HomeMy WebLinkAbout1675 FARADAY AVE; ; CB962041; Permitc, i r I G [1 T N ,:; r., C' r., . ' 1 e,-,
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D2~ccipti0n: 77128 SF SHELL BLDG-LOT 108
Aj_:.1pl/O\·:nr : .r:!AMP,~'I~ cc,r,;S'T.8!JCTION
,2,,::,0 i,·;. [::?:ADLEY AVE.
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-LAPPROVAL
-1-DATEjffi
CLEARANCE ____ _
CITY OF CARLSBAD
2075 Las Palmas Dr., Carlsbad, CA 92009 (619) 438-1161
,,. '
PERMIT APPUCATION \,)f-'b C\ 1_) V( ')--PLAN CHECK NO.
City of Carlsbad Building Department
EST. VAL t-15L{ 5, ·J'1 2075 Las Palmas Dr., Carlsba(t, CA 92009 (619) 438-1161
1. PiliMl'I' 1YPE PLAN CK DEPOSIT ' J VAIID.BY --------;,1•J't"_:-:..
DATE From list 1 (see back) give code of Permit-Type: ___________ _
For Residential Projects Only: From list 2 (see back) give
Code of Structure-Type: ____________________ _
Net Loss/Gain of Dwelling Units _________________ _
2. PROJECI' INFORMATION
# OF BEDROOMS # OF BATIIROOMS
Nf\ME (last name first) M /J ".;40.Gy #de ~ C
cI'IY a M.tm STATE m ZIP coDE 9?azo . DAY TELEPHONE ~~0 .;2/ J z
5
-~~~/:~rst) E~ '73/e'h'Q/ g/,c,~ ADDRESS 6-3 °9" c:b.,c/4/ 2>,cz: ~.azrc>
CI'IY t:J11~£',,4,0 STATE ZIP CODE DAY TELEPHONE ~/-ff CJ.s Y c5"'Z'.)/
ZIP CODE DAY TELEPHONE
~
SIGNATURE DATE s. oWNEll-BOllJJER McLARATioN
D
D
D
Owner-Builder Deciaratton: I hereby afhrm that I am exempt from the ContractoPs License Law for the following reason:
I, as owner of the property or my employees with wages as their sole compensation, will do the work and the structure is not intended or
offered for sale (Sec. 7044, Business and Professions Code: The Contractor's Llcense Law does not apply to an owner of property who builds
or improves thereon, and who does such work himself or through his own employees, provided that such improvements are not intended
or offered for sale. If, however, the building or improvement is sold within one year of completion, the owner-builder will have the burden
of proving that he did not build or improve for the purpose of sale.).
I, as owner of the property, am exclusively contracting with licensed contractors to construct the project (Sec. 7044, Business and Professions
Code: The Contractor's license law does not apply to an owner of property who builds or improves thereon, and contracts for such projects
with contractor(s) licensed pursuant to the Contractor's license law).
I am exempt under Section _______ Business and Professions Code for this reason:
(Sec. 7031.5 Business and Professions Code: Any City or County which requires a permit to construct, alter, improve, demolish, or repair
any structure, prior to its issuance, also requires the applicant for such permit to file a signed statement that he is licensed pursuant to the
provisions of the Contractor's Llcense Law (Chapter 9, commencing with Section 7000 of Division 3 of the Business and Professions Code)
or that he is exempt therefrom, and the basis for the alleged exemption. Any violation of Section 7031.5 by any applicant for a permit
subjects the applicant to a civil penalty of not more than five hundred dollars [$500]).
SIGNATURE DATE
COMPLETE THIS SECTION FOR NON-RESIDENTIAL BUILDING PERMITS ONLY:
Is the applicant or future building occupant required to submit a business plan, acutely hazardous materials registration form or risk management and
prevention program under Sections 25505, 25533 or 25534 of the Presley-Tanner Hazard·ous Substance Account Act?
0 YES ONO
Is the applicant or future building occupant required to obtain a permit from the air pollution control 'district or air quality management district?
DYES ONO
Is the facility to be constructed within 1,000 feet of the outer boundary of a school site?
0 YES D NO
IF ANY OF nm ANSWERS ARE YF.S, A FINAL CERTIFICATE OF OCDJPANCY MAY NOT BE ISSUED AFTER JULY 1, 1989 UNLESS nm APPUCANT
HAS MET OR IS MEETING TIIE REQUIREMENTS OF nm OFFICE OF EMERGENCY SERVICES AND nm Aill POU.UTION CONTROL DISTRICT.
9. wNS'l'RUCliuN LENDING AGENCV
I hereby afhrm that there 1s a construcuon lending agency for the performance of the work for which this permit 1s issued (Sec 3097(1) CJVJI Code).
LENDER'S NAME LENDER'S ADDRESS
to. APP.Lit!AN1 Cfill'l'IFICA'IloN
I certify that I have read the apphcauon and state that the above information 1s correct. I agree to comply with all City ordinances and State laws
relating to building construction. I hereby authorize representatives of the City of Carlsbad to enter upon the above mentioned property for inspection
purposes. I AISO AGREE 10 SAVE INDEMNIFY AND KEEP HARMLESS nm Cl1Y OF CARLSBAD AGAINST All. UABIIJTIES, JUDGMENTS, COSTS
AND EXPENSES WlilCH MAY IN ANY WAY ACCRUE AGAINST SAID Cl1Y IN CONSEQUENCE OF nm GRANTING OF TIIIS PERMIT.
OSHA: An OSHA permit is required for excavations over 5'0" deep and demolition or construction of structures over 3 stories in height.
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P~rmit Type: SEWER -COXHERCIAL/INDUSTRIAL
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(1,:':.::c . .i:it-'ti,_,n: IP.I::, GROUP
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EL CAJON CA 92020
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CITY OF CARLSBAD
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2075 Las Palmas Dr., Carlsbad, CA 92009 (619) 438-1161
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07/17/97 15:20
Page 1 of 1
B U I L D I N G P E R M I T Permit No: WM970035
Project No: A9702465
Development No:
Job Address: 1675 FARADAY AV
Permit Type: WATER METER PERMIT
Parcel No: 212-130-33-00
Valuation: o
Suite:
_:~ . .:·:. ~·.:..
Lot#:
Construction Type:
Occupancy Group: Reference#: Status:
Description: IMPACT FEES-1-1/2"DOMEST.IC &
: 1-1/2" IRRIGATION METERS
Appl/Ownr :
*** Fees
HOFFMAN, STEVE
6354 CORTE DEL
CARLSBAD CA
Required ***
ABETO STE D
92009
***
760
Applied:
Apr/Issue:
Entered By:
431-1103
Fees.Co.llected & Credits
NEW~---' -
ISSUED
07/17/97
07/17/97
RMA
*** -------------------------------~---:·------'·. -------------------------Fees: 22,17!3~'00_ . .. 1 • ,. /.,·, ·-....
Adjustments: . 00 · ·, (. . ./ 'Tc.:it.a'l /G'.l:'edit,s: . 00
Total Fees: 22r175.0Q. __ ,.-., Tot~'l<P::ay-~$_nt~\~ .oo
/ , ;-.::Ba-lance .D4,e :\ 2 2 , 175 . o o
Fee description ,-0. --,./?-.. ."tihits. '·(~F.ee'/Un,it Ext fee Data
-------------------'----~--.... _.,) ------;,J: _:, _,.:~~ -_____ \_ \ -~ .' :",.,----·· ------------------
Enter #Uni ts & Cocle-)?ot.able'-~Wa;ter: .> ----_-· _ ::_. .... -.J 7 \ ·\ ;/ :' 10200. 00 Di. 5
Enter #Uni ts & Code-Re:c:1aim Wa;ter·~>~::: .. ·:-y·~-~-~-,-)/1 \ -· "" 11975. 00 Ti. 5
, ,"\ ·,,.\ ·. _r . ..} /;'{'
/{\f ._~ i ~·:-w~ ,--.:....-}:
I 'I ' ; ~,.,' ,f ~ • r , • ...., "\ .,_. l , ,,, ! '; t i;,; : : { , ' \ '>/ ' l: l; .,. ·, < /. !
$• 1, !.I ,I ,-, ,',-,,_;,~ IJ $ $)/$ :! ..,.__ ,,
t, ~::-, ~ , __ '~--
\ ... .:;
CITY OF CARLSBAD
2075 Las Palmas Dr., Carlsbad, CA 92009 (619) 438-1161
07/01/98
DATE
03/16/98
03/04/98
03/04/98
01/12/98
11/16/97
10/07/97
10/07/97
09/25/97
09/23/97
08/18/97
07/16/97
07/11/97
07/11/97
07/08/97
07/02/97
05/15/97
05/14/97
05/13/97
05/13/97
04/15/97
04/07/97
04/03/97
04/02/97
03/27/97
03/26/97
03/21/97
03/19/97
03/19/97
03/18/97
03/17/97
03/17/97
03/14/97
03/12/97
03/11/97
03/07/97
03/06/97
INSPECTION HISTORY LISTING
FOR PERMIT# CB962041
INSPECTION TYPE
Final Combo
Final structural
Final Combo
Const. Service/Agricult
Interior Lath/Drywall
Frame/Steel/Bolting/Wel
Interior Lath/Drywall
Frame/Steel/Bolting/Wel
Frame/Steel/Bolting/Wel
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Underground/Conduit-Wir
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Shear Panels/HD's
Shear Panels/HD's
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Ftg/Foundation/Piers
Underground/Conduit-Wir
Ftg/Foundation/Piers
Underground/Under Floor
Underground/Under Floor
Sewer/Water Service
Ftg/Foundation/Piers
Ftg/Fo~ndation/Piers
Ftg/Foundation/Piers
INSP ACT
RI RI
RI RI
TP PI
TP AP
TP AP
TP PI
TP WC
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP A.P
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP PI
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP AP
TP PI
HIT <RETURN> TO CONTINUE ••.
COMMENTS
C/
C/619/520-1409
START WALK THRU/TIME
AP FOR SEO ONLY
1ST LAYER @2HR DMZ WALL
SLIP ASMB@ 2HR WALL
MTL DECKING@ MEZ & ROOF
MTL FLR MEZ WELDING
DRYPACK@ SHEAR FRM CLMNS
PS@ INT SHR WALLS,EXT BLST PN
P.S. @ BLAST PNLS(INT/EXT}
U/G FOR SITE POLE LITES
P.S.@TRK DOCK OPENINGS
SITE PNL FTNS
PNLS COMPLETE
PNLS SEE CARD
PNLS 14-30,33,36,40
PNLS DP 3,DP4,CP 1-4
LOBBY SLAB
SLAB TO RECESS AREA
SLAB TO L LN
SLAB G.L. 1-2,6-8
ELEV PIT WALLS
CONT FTN & PIERS SEE CARD
CONT FTN & PIERS SEE CARD
UFFER GRN
PIER/CASSON FTNS@ G.B.
SEWER MAIN COMP
MAIN 4 11 WASTE
BLDG LINE TO P/L WASTE & WATER
PIER ETNS N/INLL HD & HSB SECT
PIERS&CONT FTN A-H,1-8,7 COMP
FTN NOT COMP QUEST OR FND
FINAL BUILDING INSPECTION
DEPT: BUILDING ENGINEERING
PLAN CHECK#: CB962041
PERMIT#: CB962041
FIR~ CMWD ST LITE
DATE: 03/12/98
PERMIT TYPE: INDUST
PROJECT NAME: 77128 SF SHELL BLDG-LOT 108
ADDRESS: 1675 FARADAY AV
CONTACT PERSON/PHONE#: C/
SEWER DIST: CA WATER DIST: CA
~~~PECTE//,Ly'tvrl DATE 5-(2-4 '6 INSPECTED:
INSPECTED DATE
BY: INSPECTED:
INSPECTED DATE
BY: INSPECTED:
COMMENTS:
Lot# 108
APPROVED K DISAPPROVED
APPROVED DISAPPROVED
APPROVED DISAPPROVED
FINAL BUILDING INSPECTION
DEPT: BUILDING ENGINEERING FIRE PLANNING CMWD IS_':t1 __ 1:;ITE-
PLAN CHECK#: CB962041
PERMIT#: CB962041
PROJECT NAME: 77128 SF SHELL BLDG-LOT 108
ADDRESS: 1675 FARADAY AV
CONTACT PERSON/PHONE#: C/
SEWER DIST: CA WATER DIST: CA
INSPECTED DATE
BY: INSPECTED:
INSPECTED DATE
BY: INSPECTED:
INSPECTED DATE
BY: INSPECTED:
COMMENTS:
DATE: 03/12/98
PERMIT TYPE: INDUST
Lot# 108
;). J).-1ab -33
APPROVED DISAPPROVED
APPROVED DISAPPROVED
APPROVED DISAPPROVED
=
~-CJ-9B -0~ -~-wen Hu--a~
UL~lIY\ @i __ \/~IL AAe-Lo~
FINAL BUILDING INSPECTION
DEPT: BUILDING ENGINEERING FIRE PLANNING CMWD ST LITE
PLAN CHECK#: CB962041
PERMIT#: CB962041
PROJECT NAME: 77128 SF SHELL BLDG-LOT 108
ADDRESS: 1675 FARADAY AV
CONTACT PERSQN/PHONE#: C/
SEWER DIST: CA WATER DIST: CA
Lot#
DATE: 03/12/98
PERMIT TYPE: INDUST
/kMn 1o·sf111 I 9 1.,·.--,
' / .. .)
""'"-.., ;•. '·.··
• f •. r
·-~:.;. ~,:
. ..,. .. ~~I===
INSPECTED .
BY: Pedl'C,,-/?t c It
DATE , / -
INSPECTED: i]-25'-f,1 APPROVED~ DISAPPROVED
INSPECTED
BY:
INSPECTED
BY:
COMMENTS:
DATE
INSPECTED:
DATE
INSPECTED:
APPROVED DISAPPROVED
APPROVED DISAPPROVED
FINAL BUILDING INSPECTION
DEPT: BUILDING ENGINEERING FIRE PLANNING CMWD ST LITE
PLAN CHECK#: CB962041
PERMIT#: CB962041
PROJECT NAME: 77128 SF SHELL BLDG-LOT 108
ADDRESS: 1675 FARADAY AV
CONTACT PERSON/PHONE#: C/
SEWER DIST: CA WATER DIST: CA
INSPECTEDf
BY: ·
INSPEC:;;£
BY:
INSPECTED
BY:
COMMENTS:
DATE .,tfl114&r1/' INSPECTED~
DATE
INSPECTED:
DATE
INSPECTED:
Lot#
APPROVED
APPROVED
APPROVED
DATE: 0'3/12/98
PERMIT TYPE: INDUST
"iclt'! 108 '11 I ,-. ·Q
L--rrisAPPROVED
DISAPPROVED
DISAPPROVED
DATE: January 31, 1997
JURISDICTION: Carlsbad
PLAN CHECK NO.: 96-2041
EsGil Corporation
Professional Pfan. !l{.eview 'E.ngineers
SET: III
PROJECT ADDRESS: Faraday Avenue
PROJECT NAME: The Iris Group (Shell Building)
0 APPLICANT
~
D PLAN REVIEWER
D FILE.
D The plans transmitted herewith have been corrected where necessary and substantially comply
with the jurisd_iction's *********** codes.
• The plans transmitted herewith will substantially comply with the jurisdiction's building codes
when minor deficiencies identified below are resolved and checked by building department staff.
D The plans transmitted herewith have significant deficiencies identified on the enclosed check list
and should be corrected and resubmitted for a complete recheck.
D The check list transmitted herewith is for your information. The plans are being held at Esgil
Corporation until corrected plans are submitted for recheck.
D The applicant's copy of the check list is enclosed for the jurisdiction to forward to the applicant
contact person.
D The applicant's copy of the check list has been sent to:
• Esgil Corporation staff did not advise the applicant that the plan check has been completed.
D Esgil Corporation staff did advise the applicant that the plan check has been completed.
Person contacted: Telephone#:
Date contacted: (by: ) Fax #:
Mail Telephone Fax In Person
• REMARKS: 1. The architect or engineer of record shall prepare an inspection program which
shall be submitted to the building official for approval prior to issuance of the building permit.
2. Field verify compliance with Title 24 Disabled Access Regulations. This is a shell building.
By: Abe Doliente
Esgil Corporation
D GA D CM D EJ D PC
Enclosures:
I
1/31/97 trnsmtl.dot
9320 Chesapeake Drive, Suite 208 + San Diego, California 92123 + (619) 560-1468 + Fax (619) 560-1576
EsGil Corporation
Professional Pfan !/(!.view 'F.ngineers
PATE: December 30, 1996 0 APPLICANT
i r· _'f ··JURISDICTION: Carlsbad
~ JORIS. ~ D FIRE
0 PLAN REVIEWER
., , , .,,
0 FILE
PLAN CHECK NO.: 96-2041 SET: II
'f
iPROJECT ADDRESS: Faraday Avenue
PROJECT NAME: The Iris Group {Shell Building)
D The plans transmitted herewith have been corrected where necessary and substantially comply
with the jurisdiction's *********** codes.
D The plans transmitted herewith will substantially comply with the jurisdiction's ********** codes
when minor deficiencies identified below are resolved and checked by building department
staff.
-·o The plans transmitted herewith have significant deficiencies identified on the enclosed check list
and should be corrected and resubmitted for a complete recheck.
• The check list transmitted herewith is for your information. The plans are being held at Esgil
Corporation until corrected plans are submitted for recheck.
D The applicant's copy of the check list is enclosed for the jurisdiction to forward to the applicant
contact person .
. • The applicant's copy of the check list has been sent to:
Ken Smith
485 W. Bradley Avenue, Suite C, El Cajon, CA 92020
• Esgil Corporation staff did not advise the applicant that the plan check has been completed.
D Esgil Corporation staff did advise the applicant that the plan check has been completed.
Person contacted:
Date contacted:
r
[j REMARKS:
(by: ) Telephone#:
' .
By: Abe Doliente
Esgil Corporation
D GA D CM D EJ D PC
Enclosures:
12/18/96 trnsmtl.dot
9320 Chesapeake Drive, Suite 208 + San Diego, California 92123 + (619) 560-1468 + Fax (619) 560-1576
Carlsbad 96-2041 II
December 30, 1996
RECHECK PLAN CORRECTION LIST
JURISDICTION: Carlsbad
PROJECT ADDRESS: Faraday Avenue
DATE PLAN RECEIVED BY
ESGIL CORPORATION: 12/18/96
REVIEWED BY: Abe Doliente
FOREWORD (PLEASE READ):
PLAN CHECK NO.: 96-2041
SET: II
DATE RECHECK COMPLETED:
December 30, 1996
This plan review is limited to the technical requirements contained in the Uniform Building
Code, Uniform Plumbing Code, Uniform Mechanical Code, National Electrical Code and state
laws regulating energy conservation, noise attenuation and disabled access. This plan review
is based on regulations enforced by the Building Department. You may have other corrections
based on laws and ordinances enforced by the Planning Department, Engineering Department
or other departments.
The following items listed need clarification, modification or change. All items must be satisfied
before the plans will be in conformance with the cited codes and regulations. Per Sec. 106.4.3,
1994 Uniform Building Code, the approval of the plans does not permit the violation of any
state, county or city law.
A. Please make all corrections on the original tracings and submit two new sets of prints to:
ESGIL CORPORATION.
B. To facilitate rechecking, please identify, next to each item, the sheet of the plans upon
which each correction on this sheet has been made and return this sheet with the
revised plans.
'
C. The following items have not been resolved from the previous plan reviews. The original
correction number has been given for your reference. In case you did not keep a copy of
the prior correction list, we have enclosed those pages containing the outstanding
corrections. Please contact me if you have any questions regarding these items.
D. Please indicate here if any changes have been made to the plans that are not a result of
corrections from this list. If there are other changes, please briefly describe them and where
they are located on the plans. Have changes been made not resulting from this list?
DYes DNo
Carlsbad 96-2041 II
December 30, 1996
2. All sheets of the plans and the first sheet of the calculations are required to be
signed by the California licensed architect or engineer responsible for the plan
preparation. Please include the California license number, seal, date of license
expiration and the date the plans are signed. Business and Professions Code.
Check final sets of plans and calculations for signatures.
14. Provide a letter from the soils engineer confirming that the foundation plan,
grading plan and specifications have been reviewed and that it has been
determined that the recommendations in the soil report are properly incorporated
into the plans.
15. Provide notes on the foundation plan listing the soils report recommendations for
foundation slab and building pad preparation. (Bad soils condition -Check
soils report).
18. On the cover sheet of the plans, specify any items requiring special
inspection, in a format similar to that shown below.
• REQUIRED SPECIAL INSPECTIONS
In addition to the regular inspections, the following checked items will also
require Special Inspection in accordance with Sec. 1701 of the Uniform Building
Code.
ITEM
SOILS COMPLIANCE PRIOR TO
FOUNDATION INSPECTION
STRUCTURAL CONCRETE
OVER 2500 PSI
FIELD WELDING
HIGH-STRENGTH SOL TS
DESIGNER-SPECIFIED
OTHER
REQUIRED?
X
X
X
X
REMARKS
19. When special inspection is required, the architect or engineer of record shall
prepare an inspection program which shall be submitted to the building official
for approval prior to issuance of the building permit. Please review Section
106.3.5.
• TITLE 24 DISABLED ACCESS
20. Provide note and details on the plans to show compliance with the enclosed
Disabled Access Review List. Disabled access requirements may be more
restrictive than the UBC. This wilibe field verified.
Carlsbad 96-2041 II
December 30, 1996
• ADDITIONAL
21. Complete and recheck all the callouts and cross references to the details. Refer
to sheet S-1. ·
22A. Show 13-5 (W21 X 50) as called out on sheet MF-1 and MF-3 of the structural
calculations. Refer to sheet S-2 of the plans.
228. Clearly show 8-21 (W21 X 50) as called out on sheet MF-1 and MF-8 of the
structural calculations. Different sizes are shown on the plans: W21 X 56. not
a standard size. W18 X 50 and W 21 X sot Refer to sheet S-2 of the plans.
22C. Show 8-26 (TS 8 X 20 X 5/16) as called out on sheets MF-1 and MF-10 of the
structural calculations. Refer to sheet S-2 of the plans.
29. Show the frame elevation along line F and the required footings and grade
beams for the moment frames as called out on sheets LF-13 and LF-32 of the
structural calculations. (Note: Elevation B of the moment frame along line P
on sheet SD-7 of the original submittal was deleted).
30. Show the required dowels from the panel to the slab as called out on sheets
SW47, SW51, SVV54, SVl/57 SVV60 and SW63. (Recheck the spacing).
31. Show the required grade beams for wall panels 38, 39, 41, 42,43, 44, 45, 47, 48
and 49 as called out on sheets SW53, SW56, SW59 and SW62.
The jurisdiction has contracted with Esgil Corporation located at 9320 Chesapeake
Drive, Suite 208, San Diego, California 92123; telephone number of 619/560-1468, to
perform the plan review for your project. If you have any questions regarding these plan
review items, please contact Abe Doliente at Esgil Corporation. Thank you.
DATE: November 5, 1996
JURISDICTION: Carlsbad
PLAN CHECK NO.: 96-2041
EsGil Corporation
Professionaf Pfan !R._eview 'Engineers
SET:I
PROJECT ADDRESS: Faraday Avenue
PROJECT NAME: The Iris Group (Shell Building)
0 APPLICANT ~ DFIRE
0 PLAN REVIEWER
0 FILE
D The plans transmitted herewith have been corrected where necessary and substantially comply
with the jurisdiction's*********** codes.
D The plans transmitted herewith will substantially comply with the jurisdiction's ********** codes
when minor deficiencies identified below are resolved and checked by building department staff.
D The plans transmitted herewith have significant deficiencies identified on the enclosed check list
and should be corrected and resubmitted for a complete recheck.
• The check list transmitted herewith is for your information. The plans are being held at Esgil
Corporation until corrected plans are submitted for recheck.
D The applicant's copy of the check list is enclosed for the jurisdiction to forward to the applicant
contact person.
• The applicant's copy of the check list has been sent to:
Ken Smith
485 W. Bradley Avenue, Suite C, El Cajon, CA 92020
• Esgil Corporation staff did not advise the applicant that the plan check has been completed.
D Esgil Corporation staff did advise the applicant that the plan check has been completed.
Person contacted:
Date contacted: (by: )
• REMARKS: Please see revised valuation.
By: Abe Doliente
Esgil Corporation
0 GA O CM O EJ O PC
Enclosures:
10/24/96
Telephone #:
trnsmtl.dot
9320 Chesapeake Drive, Suite 208 + San Diego, California 92123 + (619) 560-1468 + Fax (619) 560-1576
Carlsbad 96-2041
November 5, 1996
PLAN REVIEW CORRECTION LIST
COMMERCIAL
PLAN CHECK NO.: 96-2041
OCCUPANCY: B/F-1/S-1
TYPE OF CONSTRUCTION: 111-N
ALLOWABLE FLOOR AREA: 96,000 SF
SPRINKLERS?: Yes
REMARKS:
DATE PLANS RECEIVED BY
JURISDICTION:
DATE INITIAL PLAN REVIEW
COMPLETED: November 5, 1996
FOREWORD (PLEASE READ):
JURISDICTION: Carlsbad
USE: Office/Mfg/Whse
ACTUAL AREA: 77,128 SF
STORIES:·2
HEIGHT:
OCCUPANTLOAD: 610
DATE PLANS RECEIVED BY
ESGIL CORPORATION: 10/24/96
PLAN REVIEWER: Abe Doliente
This plan review is limited to the technical requirements contained in the Uniform Building Code,
Uniform Plumbing Code, Uniform Mechanical Code, National Electrical Code and state laws
regulating energy conservation, noise attenuation and access for the disabled. This plan review
is based on regulations enforced by the Building Department. You may have other corrections
based on laws and ordinances enforced by the Planning Department, Engineering Department,
Fire Department or other departments. Clearance from those departments may be required
prior to the issuance of a building permit.
Code sections cited are based on the 1994 UBC.
The following items listed need clarification, modification or change. All items must be satisfied
before the plans will be in conformance with the cited codes and regulations. Per Sec. 106.4.3,
1994 Uniform Building Code, the approval of the plans does not permit the violation of any
state, county or city law.
To speed up the recheck process, please note on this list (or a copy) where each
correction item has been addressed, i.e .• plan sheet number. specification section. etc.
Be sure to enclose the marked up list when you submit the revised plans.
LIST NO. 22, GENERAL COMMERCIAL WITHOUT ENERGY OR POLICY SUPPLEMENTS (1994 UBC ) comforw.dot
Carlsbad 96-2041
November 5, 1996 ..
1. Please make all corrections on the original tracings and submit two new sets of
prints, to:
Esgil Corporation, 9320 Chesapeake Drive, Suite 208, San Diego, California
92123, (619) 560-1468 or to the jurisdiction's building department.
2. All sheets of the plans and the first sheet of the calculations are required to be
signed by the California licensed architect or engineer responsible for the plan
preparation. Please include the California license number, seal, date of license
expiration and the date the plans are sfgned. Business and Professions Code.
3. Exterior walls shall have a 30 inch parapet when less than 20 feet to a property
line or an assumed property line. The uppermost 18" of such parapets shall be
noncombustible. (see exceptions, Section 709.4)
4. The exterior wall shall have protected openings (3/4 hour) when closer than 20
feet to a property line or an assumed property line. Section 503.
5. Exit signs are required whenever two exits are required. Show all required exit
sign locations. Section 1013.1.
6. Show two sources of power for the lamps at exit signs. Section 1013A.
7. Show that exits are lighted with at least one foot candle at floor level. Section
1012.1.
8. Show separate sources of power for exit illumination. (Occupant load exceeds
99). Section 1012.2.
9. Elevators shall be enclosed in a one-hour shaft except in Type I and Type II F.R.
construction where the elevator shall be in a two hour shaft. Section 711.
10. Every opening into an elevator shaft enclosure shall be protected by a
self-closing fire assembly having a one-hour fire rating in one-hour shafts and
one and one-half hours in two hour shafts. Section 711.4.
11. Every eleva,tor lobby or entrance area shall be provided with an approved smoke
detector as required by Section 3003.2.
12. Provide notes, details or specifications to show the elevator will comply with UBC
Sections 3002-3007 and Title 24.
13. Note on the plans: "When serving more than 100 sprinkler heads, automatic
sprinkler systems shall be supervised by an approved central, proprietary or
remote, station service, or shall be provided with a local alarm which will give an
audible signal at a constantly attended location." Section 904.3.
Carlsbad 96-2041
November 5, 1996
14. Provide a letter from the soils engineer confirming that the foundation plan,
grading plan and specifications have been reviewed and that it has been
determined that the recommendations in the soil report are properly incorporated
into the plans.
15. Provide notes on the foundation plan listing the soils report recommendations for
foundation slab and building pad preparation.
16. The soils engineer recommended that he/she review the foundation excavations.
Note on the foundation plan that "Prior to the contractor requesting a Building
Department foundation inspection, the soils engineer shall advise the building
official in writing that:
a) The building pad was prepared in accordance with the soils report,
b) The utility trenches have been properly backfilled and compacted, and
c) The foundation excavations comply with the intent of the soils report."
17. Show floor and roof connections to concrete walls. Connection shall resist 200
pounds per lineal foot or the actual design load, whichever is greater. Section
1611. Where flexible diaphragms provide lateral support for walls and partitions,
the value of CP for anchorage shall be increased 50 percent for the center one
half of the diaphragm span.
18. On the cover sheet of the plans, specify any items requiring special inspection, in
a format similar to that shown below.
• REQUIRED SPECIAL INSPECTIONS
In addition to the regular inspections, the following checked items will also
require Special Inspection in accordance with Sec. 1701 of the Uniform Building
Code.
ITEM
SOILS COMPLIANCE PRIOR TO
FOUNDATION INSPECTION
STRUCTURAL CONCRETE
OVER 2500 PSI
FIELD WELDING
HIGH-STRENGTH BOLTS
DESIGNER-SPECIFIED
OTHER
REQUIRED?
X
X
X
X
REMARKS
19. When special inspection is required, the architect or engineer of record shall
prepare an inspection program which shall be submitted to the building official for
approval prior to issuance of the building permit. Please review Section
106.3.5.
Carlsbad 96-2041
November 5, 1996
• TITLE 24 DISABLED ACCESS
20. Provide note and details on the plans to show compliance with the enclosed
Disabled Access Review List. Disabled access requirements may be more
restrictive than the UBC. This will be field verified. ·
• ADDITIONAL
21. Complete and recheck all the callouts and cross references to the details.
22. Show all the floor beams and girders as called out in the structural calculations.
These were not cross referenced.
23. Provide structural calculations and show floor beam sizes at the stairways at grid
lines N to Rand 4 to 7.
24. Show column and footing at grids 6E, 6R, 5R, 4P as called out on sheets CF-1,
CF-6 and CF-7 of the structural calculations.
25. Wall panels P-3, P-4, P-5 and P-9 are shown as 24" thick walls. Clarify.
26. Show elevation of wall panel 32.
27. Provide structural calculations for the wall panels that are referred to details 3
and 7 of sheet A-13 of the plans.
28. Show the drag beam at grid line 6 (W24 X 55 with 1" dia A325 bolts) as called
out on sheet RD-12 of the structural calculations.
29. Show the required footings and grade beams for the moment frames and braced
frames as called out on sheets LF-32 through LF-34 of the structural
calculations.
30. Show the required dowels from the panel to the slab as called out on sheets
SW47, SW51, SW54, SW57 SW60 and SW63.
31. Show the re,quired grade beams for wall panels 39, 40, 41, 42, 44 and 45 as
called out on sheets SW56, SW59 and SW62.
32. Please see the following electrical corrections at the end of this list.
33. To speed up the review process, note on this list (or a copy) where each
correction item has been addressed, i.e., plan sheet, note or detail number,
calculation page, etc.
Carlsbad 96-2041
November 5, 1996 ,.
34. Please indicate here if any changes have been made to the plans that are not a
result of corrections from this list. If there are other changes, please briefly
describe them and where they are located in the plans.
Have changes been made to the plans not resulting from this correction list?
Please indicate:
D Yes D No
35. The jurisdiction has contracted with Esgil Corporation located at 9320
Chesapeake Drive, Suite 208, San Diego, California 92123; telephone number of
619/560-1468, to perform the plan review for your project. If you have any
questions regarding these plan review items, please contact Abe Doliente at
Esgil Corporation. Thank you.
+ ELECTRICAL PLAN REVIEW
+ 1993 NEC
+ JURISDICTION: Carlsbad DATE: 11/1/96
+ PLAN REVIEW NUMBER: 96-2041
+ PLAN REVIEWER: Eric Jensen
1. MISSING THE FOLLOWING FROM THE SINGLE LINE
a) Detail the grounding/bonding details on the single line diagram. NEC 250-
94.
b) Show the "future" conduit sizing on the single line diagram.
c) The 100 ampere panel rating shown for Panel A on the schedule does not
match the single line 200 ampere rating.
2. Obtain approval from the City of Carlsbad for the service design: If the "House
Panel" is energized, the whole service is available for use.
Note: If you have any questions regarding this electrical plan review list please
contact the plan reviewer listed above at (619) 560-1468. To speed the review
process, note on this list ( or a copy) where the corrected items have been
addressed on the plans.
r
Carl$bad 96-2041
November 5, 1996
VALUATION AND PLAN CHECK FEE
JURISDICTION: Carlsbad
PREPARED BY: Abe Doliente
BUILDING ADDRESS: Faraday Avenue
BUILDING OCCUPANCY: B/F-1/S-l
BUILDING PORTION BUILDING AREA
(ft.2)
Office, Manufactur_ing,
Warehouse (Shell) 77,128 SF
Air Conditioning
Fire Sprinklers 77,128 SF
TOTAL VALUE
PLAN CHECK NO.: 96-2041
DATE: November 5, 1996
TYPE OF CONSTRUCTION: 111-N
VALUATION VALUE
MULTIPLIER ($)
33.00 2,545,224
1.80 138,830
2,684,054
• 1991 UBC Building Permit Fee D Bldg. Permit Fee by ordinance: $ 6,909.50
• 1991 UBC Plan Check Fee D Plan Check Fee by ordinance: $ 4,491.18
Type of Review: • Complete Review D Structural Only D Hourly
D Repetitive Fee Applicable D Other:
Esgil Plan Review Fee: $ 3,592.94
Comments:
Fire Services Review: D Complete Review
D Other:
D Suppression System
D FireAlarm
Esgil Fire Services Review Fee: $
Comments:
Sheet 1 of 1
macvalue.doc 5196
City of Carlsbad
M¥ih·11 U44Qilf41•14·Sl#i;,t§UI
BUILDING PLANCHECK CHECKLIST
DATE: \ \ / 5 I Cf1.) PLANCHECK NO.: CB 96 -~ CJ'-/-I
BUILDING AdDREss: l G, 75' F°'r"'daY Av-e; i,ot-to i ; er 'if-JJ.4 ( t;)
PROJECT DESCRIPTION: /Je W .::C0c\J5tj{\'"' I &l~ I Z'llr'
ASSESSOR'S PARCEL NUMBER: .2/.2-/ 30-33 V EST. VALUE: ~ !ft/~ 2li.f
ENGINEERING DEPARTMENT W6 Z. o/<f-d/
APPROVAL DENIAL ;,S"CJ-f/t
The item you have submitted for review has been
approved. The approval is based on plans,
information and/or specifications provided in your .
submittal; therefore any changes to these items after
this date, including field modifications, must be
reviewed by this office to insure continued
conformance with applicable codes. Please review
carefully all comments attached, as failure to comply
with instructions in this report can result in
suspension of permit to build.
0 A Right-of-Way permit is required prior to
construction of the following improvements:
ATTACHMENTS
0 Dedication Application
0 Dedication Checklist
0 Improvement Application
0 Improvement Checklist
0 Future Improvement Agreement
0 Grading Permit Application
0 Grading Submittal Checklist
D Right-of-Way Permit Application
D Right-of-Way Permit Submittal Checklist
and Information Sheet
D Sewer Fee Information Sheet
Please f-~attached report of deficiencies
marked ith 0. ~e necessary corrections to plans
or speci rcatiorrs-for compliance with applicable
codes and standards. Submit corrected plans and/or
specifications to this office for review.
By: Date: -11/lJJ-6
By: <-! Date: 2,--l'f-97
By: Date:
ENGINEERING DEPT. CONTACT PERSON
Name: David Rick
City of Carlsbad
Address: 2075 Las Palmas Dr., Carlsbad, CA 92009
Phone: (619) 438-1161, ext. 4324
A-4
\\LASPALMAS\SYS\LIBRARYIENG\WORDIDOCS\CHKLS'l\Btildlng Plancheck Cklsl BP0001 Fenn DR.doc Rev. 8121/116
2075 Las Palmas Dr.• Carlsbad, CA 92009-1576 • (619) 438-1161 • FAX (619) 438-0894
Q
BUILDING PLANCHECK CHECKLIST
SITE PLAN
1. Provide a fully dimensioned site plan drawn to scale. Show:
~ North Arrow ...,,,~ Property Lines -Ease-1'1'1-ents
-.J'o Existing & Proposed Structures vE. Easements IIJcµ€ fJ.l0w.J
Existing Street Improvements F. Right-of-Way Width & Adjacent Streets
$'1 C,~.)NO\ \\\ ~ 1
2. Show on site plan: U, l \ l?~ c i,ec4&-J °''?f'',,,>r D.o?OfcJ~J r}'1'1J ·'4) pl~11 J -
A. Drainage Patterns
B. Existing & Proposed Slopes
C. Existing Topography
3. Include note: "Surface water to be directed away from the building foundation at
a 2% gradient for no less than 5' or 2/3 the distance to the property line
(whichever is less)." [Per 1985 USC 2907(d)5]
On graded sites, the top of any exterior foundation shall extend above the
elevation of the street gutter at point of discharge or the inlet of an approved
drainage device a minimum of 12 inches plus two percent." [Per 1990 USC
2907(d)5]
4. Include on title sheet:
A. Site address
B. Assessor's Parcel Number
C. Legal Description
For commercial/industrial buildings and tenant improvement projects, include:
total building square footage with the square footage . for each different use,
existing sewer permits showing square footage of different uses (manufacturing,
warehouse, office, etc.) previously approved.
EXISTING PERMIT NUMBER DESCRIPTION
Page 1 of 4
H.IWORD\OOCSICHKLsnBuiking Ptancheck Cl<lst BP0001 Form DR.doc Rov. 8121196
flfr D D
BUILDING PLANCHECK CHECKLIST
DISCRETIONARY APPROVAL COMPLIANCE
5. Project does not comply with the following Engineering Conditions of approval for Project No. ______________________ _
Conditions were complied with by: ________ _ Date: ----
DEDICATION REQUIREMENTS
6. Dedication for all street Rights-of-Way adjacent to the building site and any
storm drain or utility easements on the building site is required for all new
buildings and for remodels with a value at or exceeding $ _____ _
pursuant to Code Section 18.40.030.
Dedication required as follows: ________________ _
Dedication required. Please have a registered Civil Engineer or Land Surveyor
prepare the appropriate legal description together with an 8 ½" x 11" plat map
and submit with a title report. All easement documents must be approved and
signed by owner(s) prior to issuance of Building Permit. Attached please find an
application form and submittal checklist for the dedication process. Provide the
completed application form and the requirements on the checklist at the time of
resubmittal.
Dedication completed by: __________ _ Date: ----
~PROVEMENT REQUIREMENTS
V 7a. All needed public improvements upon and adjacent to the building site must be
~onstruction exceeds$ _______ , pursuant to Code Section 18.40.040.
)
constructed at time of building construction whenever the value of the
Public improvements required-as follows: Di r!G 3 £0 -r--f~hcA,'11,.
t---H---..:~ f'-/2.J ~ 'f" 6 !,"Q...,, ::'::6Ul(o v-' J.. 'w....;n,.fi.,,,J\ 1 IP l".n ) ,. D
\jv-.k--f( 1"'-1 .(
~t"'")
()t--\.'( •
Please have a registered Civil Engineer prepare appropriate improvement plans
and submit them together with the requirements on the attached checklist for a
separate plancheck process through the Engineering Department. Improvement
plans must be approved, appropriate securities posted and fees paid prior to
issuance of permit.
Attached please find an application form and submittal checklist for the public
improvement requirements. Provide the completed application form and the
requirements on the checklist at the time of resubmittal.
Improvement Plans signed by: _________ _ Date: ----
Page 2 of 4
H:\WORD\OOCSICHKLsnBuking Ploncheck Cldsl BP0001 Fonn DR.doc Rev. 81211116
Q
Q Q
Q
Q Q
Q
BUILDING PLANCHECK CHECKLIST
7b. Construction of the public improvements may be deferred pursuant to Code
Section 1S.40. Please submit a recent property title report or current grant deed
on the property and processing fee of $ _______ so we may prepare
the necessary Future Improvement Agreement. This agreement must be signed,
notarized and approved by the City prior to issuance of a Building permit.
Future public improvements required as follows:
Improvement Plans signed by: Date: ----------
7c. Enclosed please find your Future Improvement Agreement. Please return
agreement signed and notarized to the Engineering Department.
Future Improvement Agreement completed by:
Date:
7d. No Public Improvements required. SPECIAL NOTE: Damaged or defective
improvements found adjacent to building site must be repaired to the satisfaction
of the City Inspector prior to occupancy.
GRADING PERMIT REQUIREMENTS
The conditions that invoke the need for a grading permit are found in Section
11.06.030 of the Municipal Code.
Q Sa. Inadequate information available on Site Plan to make a determination on
Q
grading requirements. Include accurate grading quantities (cut, fill import,
.-export).
,,...b.,Grading Permit required. A separate grading plan prepared by a registered Civil
_,,, · Engineer must be submitted together with the completed application form
attached. NOTE: The Grading Permit must be issued and rough grading
approval obtained prior to issuance of a Building Permit. P . , C t ~ -f · . -h' GrqJ,'11d 'PJt111f C Ow6 -:3.f'o-sA-) ls C1Jrre,ir-'7 U/1.hr l'ev,'ew. (:{ q Rr I ',/"' OI\
\,,J\\\ be. re1v1r-ec( b~.fore... iui.>tlJ~"lc?' p.erl"I\+ Cc,,," be. Cfypn,ve ·
Grading Inspector sign off by: __________ Date:
Sc. No Grading Permit required.
Page 3 of4
H:IWORD\OOCS\CHKLS'I\Buildlng Plancheck Cldsl BP0001 Fann DR.doc Rev. 8121/96
J.
BUILDING PLANCHECK CHECKLIST
MISCELLANEOUS PERMITS
9. A RIGHT-OF-WAY PERMIT is required to do work in City Right-of-Way and/or
private work adjacent to the public Right-of-Way. Types of work include, but are
not limited to: street improvements, trees, driveways, tieing into public storm
drain, sewer and water utilities.
Right-of-Way permit required for:
A separate Right-of-Way permit issued by the Engineering Department is
required for the following:
Cl 10. A SEWER PERMIT is required concurrent with the building permit issuance. The
fee is noted in the fees section on the following page.
~-INDUSTRIAL WASTE PERMIT is required. Applicant must complete Industrial
Waste Permit Application Form and submit for City approval prior to issuance of
a Permit.
Industrial Waste permit accepted by:
/ Date:
@O ~ 12. NPDES PERMIT
LI\Corr,a tc,.,. tp J. . . . .
1 ~' Complies with the City's requirements of the National Pollutant Discharge
~tb 7 '"'o-Elimination System (NPDES) permit. The applicant shall provide best
P Cf 11S · management practices to reduce surface pollutants to an acceptable level prior
to discharge to sensitive areas. Plans for such improvements shall be approved
by the City Engineer prior to issuance of grading or building permit, whichever
occurs first.
Page 4 of 4
H.IWORD\OOCS\CHKLSl\Bullding Plancheck Cklsl BPOOO! Fann DR.doc Rev. 81211116
ENGINEERING DEPARTMENT ENGINEERING REVIEW SECTION
FEE CALCULATION WORKSHEET
D Estimate based on unconfirmed information from applicant.
D Calculation based on building plancheci< plan submittal.
AdJr~lf F~ (&\ky A K.. ~'J /o i Bldg. Permit No. CB 9'b-2t)l,,-fl
I ----=-----'-'---
Prepared by: D, (<,ck Date: H}s/9, Checked by: _____ Dste: ______ _ r ,
EDU CALCULATIONS: List types and square footages for all uses.
Types of Use: -~l)"').9-C\'»i'•) Sq. Ft./Units: 7"7 I l '2.. ~ . 77, 12.$' -
EDU's: ... ~ .::> ~·
Total EDU's: __ , _{$_'· .• _"/_·2.-___ _
ADT CALCULATIONS: List types and square footages for all uses.
Types of Use: lo>i°b. W~t€"'.io112, Sq. Ft./Units: 7?/ 12.. 9" ?J, l,;!..!_x r = 2 8 ~ AD rs: . 1-0 t>,~ -~~
Total ADrs ___ ,..,. ..... 3_: ..... i_l::> __
FEES REQUIRED:
PUBLIC FACILITIES FEE REQUIRED BYES Cl NO (SM Building Department for amount)
WITHIN CFO: [i2(ves (no bridge & thoroughfare fee, D NO
reduced Traffic Impact Fee)
Gr, .PARK-IN-LIEU FEE PARK AREA:_.....__
FEE/UNIT: ___ _
~ 2. TRAfflC ·1MPACT FEE
ADT's/UNITS: ;3,8,
~ BRIDGE AND THOROUGHFARE FEE
AD rs/UNITS: ___ _
~-FACILITIES MANAGEMENT FEE
SO.FT.: 7 71 J 2~ '
~.SEWER FEE
PERMIT No. St q{,-138
EDU's: .,. /,5,{L.f 2,.
X NO. UNITS:
X FEE/ACT: '2.'2...
'J;:.N C..F.P
X FEE/ADT:
ZONE: 5
X FEE/SO.FT.: • LI C
X FEE/EDU: I , 15 ID
BENEFIT AREA: f
EDU's: /5 · 'f 2.
DRAINAGE BASIN: 58
~-DRAINAGE FEES PLDA....-__
ACRES: r,.,) w/ FM
I
G:a"1. SEWER LATERAL ($2,500 DEPOSIT)
0 8. WATER FEE
EDU's: ___ _
X
X
X
FEE/EDU: g79
HIGH /LOW
FEE/AC:
FEE/EDU: __ _
=$ ,All}-
=$ · i1.4:92-> J
=$ ;\//r
=$ 30;! g5 I
=$ 2.7 I t:J/0 .
=$ 131S5'l·
=$ ;(!Jr
=$ /Vff
=S {?Ir ~/.?'.
TOTAL OF ABOVE FEES*: $ ', i. 0 1 lf O 7
*NOTE: Thia calculatlon ahHt la HQ! a complete llat of all t ... which may be due. / -
Dedications and Improvements may also be required with Building Permits.
------------------------------....... a::;,;..-_____ ..
-=-7. 73 r;:Dv J
ADT
~-,·_, • ~ I r,
-::, ~. 5'' -a,,. ("), ~ -. --X o ;"' z.,.. c. . . /00:C, F
I
. . . ·,:,1Ql<Y .. ·
City of Carlsbad~~
5=hf·lht=i¥MH·1•24•EJaluf@i it[~
;J~lf
TO: DEVELOPMENT PROCESSING SERVICES I
FROM: ENGINEERING INSPECTION DIVISION
DATE: P-e fp. ')_O, l 991 . J
ROUGHGRADINGAPPROVALFORPROJECTNO. fD4SJ~ 6R~1000 I
. (P.E. OR TRACT#) J ·
~\ri.t. .:Cv:1~ e0~u12:± 1615" P.r&r«j4 Avi~ J Ctacl5bo.t1, C;,i .. 9-'J.'D
(PROJECt N'AME & ADDRESS) · :;
~fh,,., Hdo'n111o . 6354 Cov+a 412 ~'J,,€'f,,4/:-bJ C,;ds<o., // ck
(DEVELOPER7s NAME & ADDRESS) '·. ~ ;l...o «> :J _
We have inspected the grading for Lot?,: / 0 6 or Phase . ---
of the a ov mentioned project. In addition, we have received rough grading certification
from l the Soils Engineer, dated :f$?\o. l ~' (,121
and from -~~~.....::£.~=.L-------' the Supervision Graqing Engineer,
dated l1 b . 1 and are satisfied that the rough grading has _been completed in
accordance wi City Standards.
f3ased on these certifications and our observation, we take .no exception to the issuance
of a building permit for Lot( · I Otz . or Phase_-_-_ -_-_-_-_-_-·of project
eD 4 '[(J . from a grading standpoint. This release, however) is
not intended to certify the project from other engineering 9oncerns including site
development, water or sewer availability, ·or-final grading.
We will need tb be advised prior to the issuance of a Certificate of Occupancy so that we
can verify that final grading and landscaping has been completed in accordance with the
approved plans for the project. ,,
APPROVED:
SR. CONSTRUCTION INSPECTOR
H:\LIBRARY\DPS\WP0ATA\INSPECT\ROUGGRAD.FOR
2075 Las Palmas Drive • Carlsbad, California 92009-1576 • (619) 438-1161
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PLANNING DEPARTMENT
BUILDING PLAN CHECK REVIEW CHECKLIST
Plan Check No. CB C/0-2£JL£}
Planner UAtJ lyN4',
APN: cl '2----C3c9 -3 >
Address fh JJ'JA12--A-DA:y Ave..
Phone (619) 438-1161, extension t,['"S~J
Type of Project and Use: .,_l"-N_D_a_.S._71J.!.--=:4-'--L-______ s;;-'--M'""'~.._-t-_t.-_-=Es;;..;;;L,,-=D:;....:6,:;__· _____ _
Zone: (,,fV) Facilities Management Zone: __ S ___________ _
CFoKn'h>ut) #
~eOne
Legend
~ Item Complete
z/F:Z.
{If property in, complete SPECIAL TAX CALCULATION WORKSHEET provided by Building
Department.)
D Item Incomplete -Needs your action
Environmental Review Required: YES __ NO K_ TYPE ___ _
DATE OF COMPLETION: ______ _
Compliance with conditions of approval? If not, state conditions which require action.
Conditions of Approval
Discretionary Action Required: YES_ NO /K_ TYPE __ _
APPROVAL/RESO. NO. ---,-___ DATE ___ _
PRO~ECT NO. _______ _
OJ"HER RELATED CASES:---------,,...,.-,'--------------
Compliance with conditions or approval? If not, state conditions which require action.
Conditions of Approval
Coastal Zone Assessment/Compliance
Project site located in Coastal Zone? YES NOk_
If NO, proceed with checklist; if YES, proceed below.
Determine status (Exempt or Coastal Permit Required):
If Exempt, proceed with checklist; if Coastal Permit required, hold building permit until Coastal
Permit issued.
Coastal Permit Determination Form already completed? YES NO
If NO, complete Coastal Permit Determination Form now.
Coastal Permit Determination Log #:
Follow-Up Actions:
1) Stamp Building Plans as "Exempt" or "Coastal Permit Required" (at minimum
Floor Plans).
2) Attach completed Coastal Permit Determination Form to this Checklist.
3) Complete Coastal Permit Determination Log as needed.
.cg/o D
--.c:(o D·
·1nclusionary Housing Fee· required: YES ___ · __ -_ , NO ~
(l:ffectiv,e date,.of lnclusionary Houslng Ordinance -May 21, l993.)
Site Plan:
1. -Provide :a fLdly dimensi.onal site plan drawn to scale. Show: North arr;ow,
property . lines,· easements, existing_ and prnposed structures, streets, ·.existing
street improvements, ri·ght-of~W,91/ width, ·dimensional setbacks and existing
topographii;:al lines.
2. Provide legal description of prqperty and assessor's parcel number. , ' ' ' ' ' ~-.-
Zoning:
1 . Setbacks:
Fronti
Int. Side: .
Street Side:
Rear:
2. Lot ·C~verage:
3-. lj!;ligbt: :-,
4 .. Parkirrn;
'Required, _ "3 &_ r
Requited • ·_:· i@ r
Required _ _ -.. -----
-:Required _ . to•r
Req,uired· -~-7..rt. AJ~ .
Required b ;3_C 1 -
Spacei;. Required _ 23g
Shown -~>~'t~Z~' __
Shown (o.,. -~~--,--"---
Shown --,,-,-----Shown +(O"
Shown &,-Z6 ~7 't.
Shown :So_' 6. '' ---.a...,-~,-.--
S how n --'-=2.;=3'-"·e,"""'-----
Guest Space$ Requ'ired _ -~ Shown -_
~[!1/ Additional. C0mmeAts tAN/J S"u/iPif P/:1/VJ l¥fP/IJV..4 l '{/1,,o/L ~ ·. lf.WilJI_N 6 1
~ -_ /?e;R,,-kl-fr f>>tl~/Vif. · ·. PUJtvj · _ /J.U ;Al· /J~Nt:/--16c/Lv ?;J~D sC-IJPS-.Pt/JNS
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OK TO ISSUE AND ~NTEREOcAPPROVAL INTO COMPUTER l)~
i.
.&--z,6-r7 DATE ---'--'------
City of Carlsbad 96314
· · Fire Department • Bureau of Prevention
Plan Review: Requirements Category: Building Plan Check
Date of Report: Wednesday, February 12, 1997 Reviewed by:_Q_._/j-=-_M~J__,~--
Contact Name Ken Smith
Address 435 W. Bradley Av
City, State El Cajon CA 92020
Bldg. Dept. No. 96-2041 Planning No.
Job Name Lot 108 The Iris Gro
Job Address 1675 Faraday Av Ste. or Bldg. No. ____ _
~ Approved -The item you have submitted for review has been approved. The approval is
based on plans; information and/or specifications provided in your submittal;
therefore any changes to these items after this date, including field modifica-
tions, must be reviewed by this office to insure continued conformance with
applicable codes. Please review carefully all comments attached, as failure
to comply with instructions in this report can result in suspension of permit to
construct or install improvements.
D Disapproved -Please see the attached report of deficiencies. Please make corrections to
plans or specifications necessary to indicate compliance with applicable
codes and standards. Submit corrected plans and/or specifications to this
office for review.
For Fire Department Use Only
Review 1st~--2nd __ _ 3rd. __ _
Other Agency ID
CFD Job# __ 96_3_1_4 __ File# ___ _
2560 Orion Way • Carlsbad, California 92008 • {619) 931-2121
\,
Job: _9~6~02_a~----
Date: 0511997
Cales by:--=-:c·:..=.su.;::;..;.N_,___ __
Sheet 1 of~6 ___ _
Structural Calculations ·
HIJK BUILDING LIGHT POLE
.A...DELTA .... /:::i ___ _. .. ENGINEERING
Co11sulti11g Structural Engineers
135 Liverpool Dr. Suite C
Cardiff, CA 92007
Tele: (619)942-8649
Fax: (619)942-6189
I •
..___.. . -·· --.. . ....
AnELTA ~ ENGINEERING Project: .. .liYK. ..... J?.!J.!!.)?.!.Nef.c ........................ .
CONSULTING STRUCTURAL ENGINEERS
135 Liverpool Dr. S uile C
Cardiff. CA 92007
Tele: (619)942-86~9
By c.~.JYN.. Date 0_?/1..J_Sht. No. ~. Of [~·M
Subject ..................................... ,.... Job No. f. ... . Fax: (619)942-6189
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AnELTA /3 ENGINEERING
CONSULTING STRUCTURAL ENGINEERS
!JS Liverpool Or. Suite C
Cardiff.CA 92007
T cle: (619)9~:-BH9
Fax: (6!9)9~:-6189
Project: :~.~-~ ...... ?._Y}fP.?.~~~-------.. ------·--------·
By c__.}_1!_:_/.__ Date ~.{1..7._Sht. No.)___ Of
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05/,19/1997 06:25 760-931-1171 WHITE CONSTRUCTIOhl r ~ "
POLE SHArT 1 112 STRANOEO BARt
TO LIG~TINO FIXTURe:
4" X ~" HANOHOLE
' IN UN!: fiJs£ HOLDER
ANCHOR 80LT COVER
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CITATION
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B
THE CITATION® SERIES
Distinctive styling combined with excellent lighting control. .. that is the Citation.
Available in three sizes, the clean, strong, and refined Citation enables the achievement
of architectural continuity. This is accomplished by combining small, medium, and large
fixtures in a harmonious lighting landscape.
SPECIFICATIONS
HOUSING
The Citation's one-piece aluminum
housing is available in three sizes:
small, medium, and large. Corners
are welded and finished to produce
a clean, sharp appearance while
increasing housing strength
and ensuring weather-tight
construction. Each fixture is
UL listed and CSA certified
for wet locations.
LENS/GASKET
Citation's clear flat tempered
glass lens is sealed to the lens
frame with silicone sealant. The
lens frame features a continuous,
one-piece EPDM gasket for ·
maximum sealing to the housing.
DOOR FASTENERS
SOCKETS
Porcelain mogul-base sockets
feature spring-reinforced
contacts for long life.
LIGHT SOURCES
The Citation is designed to operate
with any of the following lamp
types: High Pressure Sodium,
Super Metal Halide, or Metal Halide
with mogul-base sockets.
REFLECTORS/DISTRIBUTION
PATTERNS
Three reflector systems
and distribution patterns are
available with the Citation:
P'ff-.r'
FINISHES
Each Citation fixture is finished
with DuraGrip~, LSi Lighting
Systems' revolutionary superior
baked-on polyester-powder ,
finishing process, to give the
fixture an exceptionally attractive
appearance. Standard finish
colors available for the Citation
are bronze, black, platinum,
cocoa, buff, white, and green.
The DuraGrip polyester finish
withstands extreme weather
changes without cracking or
peeling. Rnish is guaranteed
for five full years.
BALLAST
High-power factor type ballast
is mounted to the housing
reinforcing plate. The ballast is
designed for -20° F operation.·
BRACKETS
Bolt-on-brackets are shipped
standard with Citation fixtures.
The Citation features an extruded
aluminum door frame. The Citation
features two captive door fasteners
to provide secure closure and easy
access with no loose hardware.
Asymmetrical (A), Type Ill (3)
medium distribution pattern for
increased pole spacing, and
Forward Throw (FT) for perimeter
lighting applications to eliminate
stray light and produce a sharp
backside cutoff. A field-rotatable
reflector, which provides flexibility
in distribution patterns without
moving the fixture, is available
with the large 1000 Watt Forward
Throw Citation only. All
photometric data is certified by
A 2-1/2' x 6" x 6" aluminum __ .•.
arm mount (bolt-on bracket) -· -----
is shipped with a small Citation ·
PHOTO METRICS
Front
I
/4
L.'
an independent testing facility.
MTG. HT A B C D E
20' 111.25 4.50 2.251 1.13 0.45
22' 9.30 3.72 1.861 0.93 0.37
24' 7.81 3.13 1.561 0.78 0.31
26' 6.66 2.66 1.331 0.67 0.27
28' 5.74 2.30 1.151 0.57 0.23
30' 5.00 2.00 1.001 0.50 0.20
35' 3.67 1.47 0.731 0.37 0.15
39' 2.96 1.18 0.591 0.30 0.12
45' 2.22 0.89 0.441 0.22 0.09
50' 1.80 0.72 0.361 0.18 0.07
Lumen Rating 107,800
Levels shown are in footcandles.
(CTS), and a 2-112· x 6" x 12'
aluminum arm mount (bolt-on
bracket) is shipped with a
medium or large Citation (CTM,
CTL). (A 6' bracket is available
for CTM, CTL in single and
0180° configurations. It must be
ordered from the Options column
of the ordering chart.) Refer to
Poles/Brackets section of catalog
for other mounting options, which
must be ordered separately.
POLES
Refer to Poles/Brackets section
of catalog for pole information.
@ listed for wet locations.
@e CSA Certified
.S& STEEL. -POLE
'"P~lJct"TED~ Tl N (.) },.,'f G R.E y
~N LIGHTING SYSTEMS A Division of LSI Industries Inc.
10000 Alliance Road• P.O. Box 42728 • Cincinnati, Ohio 45242-0728 • (513) 793-3200 • FAX (513) 984·1335
--:, ·-
·--:--.-...-·
DIMENSIONS
I
Bracket-2-bolt
Pattern
CTS (Small)
CTM (Medium)
CTL (Large)
--J Flat Lens
A B C D
20-1/8' 8' 14-5/8' 6'
25' 8' 18-3/8' 12·
29' ,o· 21' 12·
Note: A six-inch arm mount (bolt-on bracket) is shipped standard with
a small Citation. A twelve-inch arm mount (bolt-on bracket) is shipped
standard with a medium or large Citation, unless otherwise specified.
LUMINAIRE EPA CHART t. Includes bracket. ~
..
Single D90°
Small Citation (CTSl 6' Bracket 1.4 2.2
Medium Citation (CTM) 12' Bracket 2.4 4.1
Large Citation (CTL) 12· Bracket 3.2 5.1
CITATION
d. ). + u • •
D180° T90° TN12D0 ago• Pa~llel
2.8 3.6 3.6 I 4.4 I -
4.8 6.5 6.6 I 8.2 I -
6.4 8.3 8.5 I 10.2 I 5.4
ORDERING INFORMATION Select appropriate choice from each column to formulate order code. Refer to example below.
Luminaire
,_Prefix Distribution
_ CTS -Small r A -Asymmetrical
--./ 3-Typelll
FT -Forward Throw
Lamp I Line Luminaire
Wattage ~ght S~ Lens Voltage** Finish
~ HPS-Hioh Prei;sure Sodium J lll'F-Clear Flat ) 347V BRZ-Bronze
.-1uo, 150 Watt "' Tempered -aRnV ~-
SMH -Super Metal Halide . ~ Glass l"'1 MT -·Multi Tap1 I)~
175Watt --I ~ -.. · ~I/ COA-ceca ·
MH -Metal Halide -BUF -Buff
175 Watt WHT -While -------+--------+---+---------1 GRN-Green HPS-High Pressure Sodium CTM-Medium A -Asymmetrical 250
3-Type Ill 400
FT -Forward Throw
CTL-Large A -Asymmetrical 1000
3-Type Ill
FT -Forward Throw•
I I
250,400 Watt
SMH -Super Metal Halide
250,400 Watt
MH -Metal Halide
250. 400 Watt
HPS -High Pressure Sodium
1000watt
MH -Metal Halide
1000watt
I
I I
I 17 r I I
EXAMPLE OF. A TYPICAL ORDER • CTM 3
'CTL-FT-Forward Throw reflectors are field-rotatable. I 400 HPS F MT BRZ NO . •·For international voltages, consult factory.
1MT -Multi Tap is shipped standard unless otherwise specified.
Options
6BK-6' Bracket (CTM or CTL only)tt
PA-Parallel
PCR -Photoelectric Control
Receptacle
LL -Less Lamp
CL -Coated Lamp
FS120V -Single Fusing
FS277V -Single Fusing
FS347V -Single Fusing
FD208V -Double Fusing
FD240V -Double Fusing
FD480V -Double Fusing
NO -No Options
I
Note: PCR factory installed and
voltages will require field rewiring.
j prewired for 277V. Alternate
Multi Tap consists of 120V, 208V, 240V, and 2nv.
11A 6' bracket can only'be ordered with single and D180° configurations. ACCESSORY* ORDERING INFORMATION
OPTIONAL BRACKET ORDERING INFORMATION
Internal Fitter
ITTl
Order ~ Bracket
Number Configuration
BKA-4ISF-0180·--·CLR D180°
BKA·4ISF·090----CLR 090°
BKA-5ISF-D18(h·CLR D180°
BKA·5ISF-090·*·CLR 090"
Note: CLR-Specify finish.
Tenon
Mount
Fitter* rm7 .f:™
L:11J l:lli
Order Si~i;;:i1so <g;,: Bracket
Number 2 Sides) ., Sides) Configuration
BKA-NM-D180·--·CLR D180°
BKA-NM·090·*·CLR 090°
·Tenon sae 1s 2·3,'ll" 0.0. Consult 1ac1ory for other sizes.
Wall Mount
Plate
Order
Number
Bracket
Configuration
Wall Mount
Description Order Number
CTS HSS -House Side Shield 122519 ..
CTM HSS -House Side Shield 122520 ..
CTL HSS -House Side Shield 122521 --
CTS PLS -Polycarbonate Shield 122522
CTM PLS -Polycarbonate Shield · 122523
CTL PLS -Polycarbonate Shield 122524
RPP -Round Pole Plate 6908901'
PC120V -Photocell 122514
PC208V -Photocell 122515
PC240V -Photocell 122516
PC277V -Photocell 122517
PC480V -Photocell 122518
• Accessories are field installed. --specify finish. 'Black only.
••
•
••
AnELTA ~ ENGINEERING
..
. •
. ,.
CONSULTING STRUCTURAL ENGINEERS
135 Liverpool Dr. Suite C
Card irr, CA 92007
Tele: (619)9H-8649
Fu: (619)941-~189
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#7.J}1'i.J CONSULTING STRUCTURAL ENGINEERS INC.
JOB # 9 /-I ::z.. G'"
DATE' <UA/ .If-I If 9 6
DESIGN ~ • C ·
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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! :
CONSULTING STRUCTURAL ENGINEERS
16700 VALLEYVIEW AVENUE, SUITE 270
TEL.: (714) 522-0911 FAX: (714) 522-1149
STRUCTURAL CALCULATIONS
FOR
THE IRIS GROUP
CARLSBAp, CALIFORNIA
AilT RANDHA VA & ASSOCIATES
JOB NO.: 96-126
DATE: 1-22-97
ENGINEERS: ASR
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§'7.J)2'7J CONSULTING STRUCTURAL ENGINEERS INC.
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA. CALIFORNIA 90638
TELEPHONE NO. {714) 522-0911 • Ffl.:X. (714) 522-1149
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1'ELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
11:LePHONE NO. (714) 522-0911 • FAX (714) 522·1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
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02-D FRAME ANALYSIS PROGRAM, VERSION: 8.00
THE IRIS GROUP MOMENT FRAME AT LINE -P LF--16
ONUHBER OF JOINTS: 4
GENERATE COORD -NO
NUMBER OF MEMBERS : 3
NUMBER OF PROPERTIES CARD= 2
NUMBER OF LOAD CASES= 4
NO.OF LOAD COMBINATIOl/S = 3
( ru YI) TT?3v .
PRISMATIC MEMBERS -YS
GENERATE MEMBERS -NO ~-~---,--__.)-
FOR ALL MEMBERS, E = 29000,0 E!G = 2.50
UNIT CONV,CODE,INPUT= 1 OUTPUT: 0
NO. OF REMARK CARDS= 0 INPUT CHECKING ONLY -NO 0 0 0
OINPUT UNITS -KIPS & INCHES
(COORDINATES IN FEET, WINK/FT)
JOINT DATA (JOINT FIXITY , ,. X, Y DISPL. OR ROTATION(R), .. O=ALLOWED, l=NOT)
JOINT FIXITY X COORD. Y COORD,
FT NO. XYR FT
1 111 .000 ,000
2 111 29.000 ,000
3 0 .000 12,500
4 0 29.000 12,500
!MEMBER PROPERTIES (UlHTS = IN ANP K,)
NO,
1
2
OMEMBERS
SHEAR HALF SUPPORT WIDTH
I AREA AREA AT I AT J E
1240.0 32.00 ?'.50 .oo .00 29000.00
1550,0 18.20 10.20 ,00 ,00 29000,00
(END CONDITIONS, •. O=FIXED BOTH ENDS, l=HINGED AT I
2=HINGED AT J, 3=HINGED AT BOTH ENDS)
E/G I/D
2.50 W14X109
2.50 -W24X62
OMEMB JOINTS END KEMB LENGTH ------------CORF.FOR NON-PRISMATIC HEMBERS------------
NO . I J COllD . PROP (FT) K(IJ) "K(JH. C(IJ) FEM(I) FEM(J)
1 1 3
2 2 4
3 3 4
0
0
0
1
1
2
12,50
12,50
29.00
ONUMBER OF EQUATIONS= 12 BAND WIDTH= 9
ONUMBER OF MEMBERS CONNECTED TO JOINTS (FOR GEOMETRY CHECKING)
OOCCURRANCE JOINT NUMBERS :
1 2
2 3 4
1
0--------------------------------------0.
I
I
I
I
I
I
I
I
I
0
lLOAD CASE= 1 D.L.
ONUHBER OF JOINT LOADINGS: 0
OHEMBER LOADS
I
I
I
I
I
I
I
I
I
0
NUMBER OF MEMBER LOADINGS =
---------------INPUT DATA FOR FIXED END FORCES---------------
-
-
-
MEMB UNIFORM DIST,LOAD(K/FT) TEMPERATURE CHANGES DIREC HOH ENT S ( K,FT) SHEAR FORCE (K) NO. VERTICAL HORIZONTAL DEGREE COEFF, TION FEM AT I FEM AT J MIDSPAN AT I AT J
-1.5000
OJOINT DISPLACEMENTS
JOINT NO.
1
2
3
4
OMEMBER FORCES
X DISP.
(IN,)
.000
.000
.003
-,003
OMEMBER JOINTS AXIAL
NO, I J (K,)
1 1 3 21. 75
2 2 4 21,75
3 3 4 8,97
lLOAD CASE= 2 L,L,
ONUMBER OF JOINT LOADINGS=
OMEMBER LOADS
,00000
Y DISP.
( Ill. )
,000
,000
-.004
-,004
.o ,OOE+OO
ROTATION
(RAD)
,000
.000
-.001
,001
-------MOMENT (K,FT)-------
AT I MIDSPAN AT J
-32,48, 23,60 -79,69
32,48 -23,60 79,69
79.69 -78.00 -79,69
0 NUMBER OF MEMBER LOADINGS=
0//J I T7:E--P, (,,.
/ --~--------
----SHEAR(K. )---
AT I AT J
-8,97 8,97
8,97 -8,97
21. 75 21. 75
1
---------------Il/PUT DATA FOR FIXED EllD FORCES---------------
MEMB UNIFORM DIST,LOAD(K/FT) TEMPERATURE CHANGES DIil.EC If O If ENT S ( K,FT) SHEAR FORCE (K)
NO, VERTICAL HORIZOI/TAL DEGREE COEFF, TION FElf AT I FEM AT J !HDSPKN AT I AT J
-2,4000
OJOINT DISPLACEMENTS
· JOINT NO.
1
2
3
4
OMEHBER FORCES
X DISP,
(IN.)
.000
.000
.005
-,005
: :
,00000
Y DISP,
(IN,)
.000
.000
-.006
-.006
.o .OOE+OO
ROTATION·
(RAD)
.000
.ooo
-,002
,002
OHEHBER JOINTS AXIAL -------MOMENT (K,FT)-----------SHEAR(~.)---
NO, I. J (K,') AT I · MIDSPAN AT J AT I : AT J ----------l-------------. ; ________________________________ . ---------------------
1 1 3 3L80 -51.97 : 3 7. 77 -127.50
2 2 4 34.80 51.97 · -3 7, 77 127.50
3 3 4 14.36 127.50 -124. 80 -127,50
!LOAD CASE= 3 E.Q.
ONUHBER OF JOINT LOADINGS= 2 NUMBER OF MEMBER LOADINGS=
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN.
NO, X Y (K.FT) LAST INCR.
3
4
17. 0-0
17.00
OJOINT DISPLACEMENTS
JOII/T NO. I DISP.
( rn. l
.oo
.oo
Y DI SP,
(IN,)
.00
.oo
ROTATION
(RAD)
-14.36 H.36
14.36 -14.36
34. 80 34.80
0
-
-
1
2
3
4
OMEMBER FORCES
OMEMBER JOINTS
NO, I J
,000
,000
,259
.259
AXIAL
(K,)
1 1 3 -5,54
2 2 4 5.54
3 3 4 , 00
,000
,000
,001
-,001
,000
,000
-,001
-,001
-------MOMENT (K,FT)-----------SHEAR( K. )---
AT I MIDSPAN AT J AT I AT J
132,15
132,15
-80.35
25,90 80.35 17.00
25,90 80,35 17.00
,00 -80,35 -5,54
-17. 00
-17,00
5.54
!LOAD CASE= 4 RIGIDITY LOAD
ONUMBER OF JOINT LOADINGS: 2 NUMBER OF !fE!fBER LOADINGS = , 0
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
NO, X Y (K,FT) LAST INCR,
3
4
1442,00
1442,00
OJOINT DISPLACEMENTS
JOINT NO,
1
2
3
4
X DISP,
(IN,)
,000
,000
22.010
22,010
,00
,00
Y DISP,
(IN,)
,000
,000
,076
-,076
,00
,00
ROTATION
(RAD)
,000
,000
-,110
-,110
OMEMBER FORCES
OMEMBER JOINTS AXIAL
(K,)
· -------MOMENT (K,FT)--------~---SHEARfI,)---
NO, I J AT I MIDSPAN AT J AT I AT J
1 1 3 -470.07 11209,01 2196.51 6815,99 1442,00 -1442.00
2 2 4 470,07 11209,01 2196,51 6815,99 1442,00 -1442,00
3 3 4 -.oo -6815,99 .oo -6815.99 -470.07 470,07
lLOAD COMBINATIONS
ONEW --------------------~--------LOAD COMBINATIONS----------------------------
LOAD NU!f LOAD FAG LOAD FAG LOAD FAG· LOAD FAG LOAD FAG
CASE BER CASE TOR CASE TOR CASE TOR CASE TOR CASE TOR
---------------------------------------------------------------------------------I 5 .. 2 :l 1.00 2 1.00
6 3 1 1.00 I 2 1.00 3 1.00
7 2 1 ,85 3 1.00
KBASIC LOAD CASES AND COMBINATIONS
KMEMBER LOAD AXIAL -------BENDING MOMENTS--------SHEAR FORCES--
NO, CASE FORCE AT I MIDSPAN AT J AT I AT J
-----------------------------------------------------·--------------------------
1 21, 75 -32,48 23,60 -79,69 -8,97 8.97
2 34. 80 -51. 97 37,77 -127,50 -14.36 14,36
3 -5,54 132,15 25,90 80.35 17.00 -17, 00
4 -410.07 11209,01 2196,51 6815,99 1442,00 -1442,00
5 56,55 -84. 4-5 61.37 -207,19 -23,33 23.33
6 51, 01 47,70 87,27 -126,84 -6,33 6,33
7 12.95 104i54 45,96 12.62 9.37 -9.37
2 1 21. 75 32,48 -23,60 79,69 8, 97 -8,97
2 34. 80 51.97 -31.77 127.50 14, 36 -14.36
'\ ~ ~,! 1 ~ ') 1 ~ ?~ Qt) ~/) ~~ q /)/) -i ~ /l/l
Ll--t z,
: :
4 470.07 11209,01 2196.51 6815. 99 1442,00 -1442,00
5 56.55 84.45 -61.37 207.19 23,33 -23,33
6 62.09 216,59 -35,48 287.55 40.33 -40,33
7 24.03 159. 75 5,83 148,09 24. 63 -24.63 lf--t,
-3 1 8, 9 7 79,69 -78,00 -79,69 21. 75 21. 75
2 14.36 127, 50 -124,80 -127.50 34. 80 34.80
3 .00 -80,35 ,00 -80,35 -5.54 5.54
4 -.oo -6815,99 ,00 -6815,99 -470,07 470,07
5 23.33 207,19 -202,80 -207,19 56.55 56,55
6 23,33 126.84 -202,80 -287.55 51. 01 62,09
7 7.63 -12,62 -66,30 -148,09 12.95 24.03
END OF COMPUTATION**********************************************************
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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STRUCTURAL CALCULATIONS
FOR
THE IRIS GROUP
CARLSBAD, CALIFORNIA
• i
No.2009 Exp. ~-30-97
AJIT RANDHA VA & ASSOCIATES
JOB NO.: 96-126
DATE: 1-22-97
ENGINEERS: ASR
I..) u
AJIT RANDHAVA & ASSOCIATES JOB NO. 96 -126
-THE IRIS GROUP
INDEX TO STRUCTURAL CALCULATIONS
1. LOADING CRITERIA ------------LC-1
2. ROOF FRAMING DESIGN ------------RF-1 THRU RF -7
3. MEZZ. FLOOR FRAMING DESIGN ------------MF-1 THRU MF -12
4. COLUMN AND FOOTING ------------CF-1 THRU CF -17
5. SLENDER CONCRETE WALL DESIGN ------------w -1 THRU W -50
6. ROOF DIAPHRAGM ANALYSIS ------------RD-1 THRU RD -12
7. SUBDIAPHRAGM ANALYSIS ------------SD-1 THRU SD -3
8. LATERAL FRAME ANALYSIS ------------LF-1 THRU LF -34
9. SHEAR WALL DESIGN ------------SW-1 THRU SW -67
: :
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ROOF DEAD LOAD
W = 4.0 PSF
1.0 PSF
2.0 PSF
2.0 PSF
2.0 PSF
1.5 PSF
1.5 PSF
1.0 PSF
15.0 PSF
2.0 PSF
17.0 PSF
LOADING CRITERIA
ROOFING
INSULATION
METAL DECK
JOIST
CEILING
SPRINKLERS
MECH. & ELECT.
MISCELLANEOUS
D.L. FOR JOIST DESIGN
GIRDERS
D.L. FOR GIRDER DESIGN
LR·-\
JOB NO. 96 -126
THE IRIS GROUP BUILDING
ROOF LIVE LOAD: 20 / 16 / 12 PSF AS PER UBC TABLE 16-C
FLOOR DEAD LOAD
w = 36.5 PSF
2.0 PSF
2.0 PSF
3.0 PSF
1.5 PSF
2.0 PSF
47.0 PSF
3.0 PSF
50.0 PSF
3.0 PSF
53.0 PSF
2 1/211 H.R. CONCRETE
METAL DECK
MECH. & ELECT.
CEILING
SPRINKLERS
MISC.
D.L. FOR DECK
JOIST
D.L. FOR JOIST DESIGN
BEAMS
D.L. FOR BEAM DESIGN
FLOOR LIVE LOAD: 100.0PSF REDUCIBLE
LATERAL LOAD . . PER UBC 1994
SEISMIC LOAD : STATIC ANALYSIS . . ------------WIND LOAD
I Z =,0.4 ZONE 4 BASIC UBC WIND SPEED = 75 MPH
I = t1.0 BASIC WIND PRESSURE = 14.5 PSF
C = 2.75 WIND EXPOSURE = C
RW = 6.0
V = (ZI9/RW) W = 0.183 W
FOUNDATION DESIGN
ALLOWABLE SOIL BEARING: 2500 PSF (ALLOW A ONE-THIRD INCREASE FOR SHORT-TERM
WIND OR SEISMIC LOADS).
MINIMUN FOOTING WIDTH: 12 INCHES.
MINIMUM FOOTING DEPTH: 24 INCHES BELOW LOWEST ADJACENT SOIL GRADE.
MINIMUM REINFORCEMENT: TWO NO. 5 BARS AT BOTH TOP AND BOTTOM IN CONTINUOUS
FOOTINGS.
--,/4r.3\Jl AJIT RANDBAVA & ASSOCIATES
ff7.J'2:{7..l CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
():;[ GI/Jf ,J kU D r-ef071Nf ¢>~ I~ JI·
JOB# ______ _
DATE ______ _
DESIGN ___ --:---:---
SHEET # _ _;C=-T_-....... l'---~c=.....--
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~ AJIT RANDBIVA & ASSOCIATES
CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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JOB# _____ _
DATE _____ _
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SHEET # CF:-(!3
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/4r5)/41 AJIT RANDBAVA & ASSOCIATES
ff7.l}1'7..l CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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JOB# _____ _
DATE _____ _
DESIGN ___ ~--
SHEET #_=C..._"l~I_,_· ¢ __
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13-11
INDIVIDUAL SQUARE FOOTINGS f'c ~ 3,000 psi/ 1--------------------------1 DESIGN SOIL PRESSURE 1600 psf (SAFE BEARING PRESSURE 1000 psf) fv = 60,000 psi
Size B
4'-6"
5'-0"
5'-6"
6'-0"
6'-6"
7'-0"
7'-6"
8'-0"
8'-6 ..
9'-0"
9'-6"
101-0"
101-6"
11 '-0"
11 '-6"
12'-0"
12'-6"
13'-0"
13 '-6'
14'-0"
14'-6"
15'-0"
16'-0"
17'-0"
18'-0"
19'-0"
20'-0"
4'-6"
5'-0'
5 1-6"
61-0"
61-6'
7 1-0"
7'-6"
8'-o'
8'-6"
9'-0"
9'-6"
!Q'-0"' I
101-6'
11 '-0'
11 '-6"
12'-0'
12 1-6"
13'-0"
!3'-6'
14'-0'
14 '-6'
15'-0"
16'-0"
17'-0'
18'-0''
19'-0'
20'-0'
Thick•
ness
(in.)
12
12
12
12
12
12
12
12
12
13
13
14
14
15
16
16
17
18
18
19
19
20
21
22
23
24
25
Min.
Col.
Size
(in.)
10
10
JO
JO
10
10
10
JO
10
10
10
10
10
10
JO
10
10 ·
10
10
10
10
10
10
10
10
JO
10
Mat Bars Each Way
Quantity
4
5·
5
5
6
6
7
7
8
9
7
8
9
9
JO
11
11
12
10
JO
11
11
13
15
16
14
15
Bar
Size
5
5
5
5
5
5
5
5
5
5
6
6
6
6
6
6
6
6
7
7
7
7
7
7
7
8
8
Spacing
(in.)
16.0
13.5
15.0
16.5
14.4
15.6
14.0
15.0
13.7
12.7
18.0
16.2
15.0
15.7
14.6
13.8
14.4
13.6
17.3
18.0
16.8
17..4
15.5
14.1 •
14.0
17.0
16.7
Weight
Bars ·per
Footing
(lbs.)
33
47
52
57
75
81
102
109
133
159
189
228
270
283
330
380
396
450
531
551
629
652
823
1011
1144
1383
1561
Volume
of
Concrete
(c:u. yd.)
0.7
0.9
1.1
1.3
1.5
1.8
2.0
2.3
2.6
3.2
3.6
4.3
4.7
5.6
6.5
7.1
8.1
9.3
10.1
11.4
12.3
13.8
16.5
19.6
23.0
26:7
30.8
DESIGN SOIL PRESSURE 3200 psf (SAFE BEARING PRESSURE 2000 psf)
12
12
12
12
13
14
15
16
17
18
18
19
20
21
22
23
24
25
26
27
27
28
29
31
32
33
35
10
10
10
10
10
''l0 10
10
10
10
JO ·10
10
10
10
10
10
10
10
10
ll
11
12
12
13
14
T4
4
7
5
6
7
7
6
7
8
8
7
8
16
9
10
11
9
12
10
IT
12
13
14
16
14
16
17
5
4._
5
·5
5
5
6
6
6
6
7
7
5,
7'
7
7
8
7
8
8
8
8
8
8
9
9
9
16.0
9.0
15.0
13.2
12.0
13.0
16.8
15.0
13.7
14.S
18.0
16.2
8.0
15.7
14.6
13.8
18.0
13.6
17.3
16.2
15.2.
14.5
14.3
13.2
16.I
14.8
14.6
33
42
52
69
87·
94
126,
IS'l
192
204
257
310
333
386
449
517
576
613
694
792
897
1006
1158
1409
1665
2012
2254
CONCRETE REINFORCING STEEL INSTITUTE
0.7
0.9
I. I
1.3
1.6
2.1
2.6
3.1
3.7
4.5
5.0
5.8
6.8
7.8
8.9
10.2
11.5
13.0
14.6
16.3
17.S
T 9.4
22.9
27.6
32.0
36.7
43.2
Column
Design
Capacity
(kips)
28
34
42 so
58
68
78
88
100
111
123
135
149
161
174
190
203
217
234
248
266
281
315
351
387
425
465
60
74
90
107
125
144
165
!86
209
233
260
286
314
342
372
402
434
466
500
534
573
609
689
768
855
946
1035
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£6)/47 AJIT RANDBAVA & ASSOCIATES
ff7J21'iJ CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
X ~ C :· WA-'trl..
JOB# ______ _
DATE ______ _
DESIGN _____ _
SHEET # (F-I6
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ff7._)}1''7.J CONSULTING STRUCTURAL ENGINEERS INC.
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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JOB# ______ _
DATE ______ _
DESIGN ______ _
SHEET# a-17
Wr4-t-L
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IN}
* * * * * * * * * * * * * * * * * ** * * * * * * ** * * * * * * * * ** * * * * * * * * * * * * * * * * ** * * **'* * * * * * ** * * **
SOLID CONCRETE TILT-UP PANEL JOB #:96-126
~ THE IRIS GROUP
***********************************************************************
Wall Thickness,
Clear Height,
Parapet Height,
Analysis Width
tw = 8.00
Lu =28.00
tp = 2.50
== 1.00
1. LATERAL LOADS --------------------
WIND: WW = gs X Ce
gs = 14.5
Ce = 1.1
Cg = 1.2
WW = 14.5
WW = 14.5
X
*
*
in
ft
ft
ft 4-
Cg
psf
BASIC WIND SPEED= 90 mph
EXPOSURE= C
(0 -20'); J..2 ( > 20' ,<30')
inward & outward
1.1 *
1.2 *
1.2 = 18.75
1.2 = 21.05
psf
psf
(0 -20')
( > 20')
SEISMIC: ws = 0.30 * W
ws = 0.30 * 0.67 *150.00 = 30.00 psf
SEISMIC
Ws = 30~00 plf l<------------------->I
I I RF RR
RR= 498.35 lbs
RF= 416.65 lbs
X = 13. 9 ft
Ms max= 34.720 k-in
2. VERTICAL LOADS ----------------~---e = 3.5 + 4,. 000
ROOF~ P1(~L)= 23.00 *
WALL: p2· =i 16.50 *
WIND
20.0 ft 10.5 ft
Ww= 18.75 plf 21.05 plf l<-------->l<-------------->I
I RF
RR= 333.27 lbs
RF= 262.76 lbs
X = 14. 0 ft
I RR
Mw max= 22.096 k-in
= 7.500 inches
1.0 * 13.0
1.0 * 0.667 *
psf / 1000. = 0.2~9 k
1. 65p k ' • i"
0.150 =
TOTAL= 1.949 k
Slender Concrete Wall Design Per 1994 UBC 1914;8
DESIGN SECTION: T = 8 IN x B = 12 IN
Lu= 28.000 lft) F~ = 4.000 ksi) a = 5.313 in)
Concrete TyRe = Normal Fy = 60 ( ks i)
b = 12.00 (in)
We= 150 (pcf) Ee= 3604 (ksi)
n = 8.05
Pcallow) = 0.04 . F~ .Ag ........... = 15.360 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0.6 . Pb .b.d .......... = ·1.090 (in 2)
Steel Area, As= ·o.2067 finZ) ..... USE# 5 Bars@ 18" o/c Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : dCin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE· < 2 > U = 0.9D +I.Ix 1.3E:Llfil..
P2 = 1.650 kips PU2 = 1.485 kips P1 = 0.299 Jkipsl PU1 = 0.269 lkipsl e = 7.500 (in)
Py = 1.949 kips Pu = 1.754 kips MCLat> = 34. 2 (in.kips) Mu = 49.650 (in. ips)
d = • • • • • • • • • . • • . • • . • • • • •. • . . . . . . • • • • • • • • • • . . • • • . . • • • • • • • • = p = 0. 9 -[ 2 . Pu/F ~ . Ag] . . . . . . . . . . . . . . . . . . . . . . . . . . . . . =
5.313 (in) 0.891 .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b . .. .. . . . . . . .. .. .. . . . . =
c = a / 0. 85 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . --
0.347 (in)
0.408 (in)
Icr = n.[ As.(d-c)A 2 + (Pu/Fy).(t/2 -c)A 2 ] + (be/3).cA3 =
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................. =
Bn = Mn.LuA 2 / 9.6. E.Icr ........................... =
56.484 (in4)
70.442 (in.kips)
4.069 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -1.009 (in.kips)
Mu (P.6) = [ Pu1 + Pu2 ] x S ........................... = 7.138 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.S)
pMn = p.As.Fy.(d -a/2) + Pu.(t/~ -a/2)
=
=
55.78 (in.kips)
63.49 (in.kips)
Check,Service Load Deflection : Blim = Lu/150 = 2.24 (in)
beff = 12.00 (in)
Ms = M(lat) -P1 .e/2 +Py.Slim ............. = ........ = 37.96 (in.kips)
Mer = · 5. F~A 1f2_.be.tA 2/6 ................ : ......... , .. = 40.48 (in.kips)
Ser= ·Mer•LuA 2 / 9.6. E.Ig .= ••• · ................. : .. = . o_.26 (in)
o.k
B5 = Ber + [Bn -:Berl X [Ms -Mcr]/[Mn -Mer] ...... = 0'.24 (in) o.k.
LOAD CASE SUMMARY: SEISMIC GOVERNS [Mu/ ~Mn]
Load Case < 1 > Load Case < 2 >
Load Case < 3 > Load Case < 4 >
U = 0.75 X [ 1.40 + 1.1 X 1.7ECIN> ]
U = 0.9D + 1.1 x l.3Ecrn>
U = 0.75 x ·f 1.4D + 1.1 x 1.7EcouY> ] U = 0. 9D + . I x I. 3 Ecoun
= 0.867 = 0.879 <=== = 0.816
= 0.818
-
-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126
*********************************************************************
Wall Thickness,
Clear Height,
Parapet Height,
Lower Panel Leg
Upper Panel Leg
Open'g Height,
tw=
Lu=
Lp=
=
P-1 L
8.00
26.00
4.50
8.00
= 18.00
in
ft
ft
ft
ft
ft Lo= 9.00
1. LATERAL LOADS
WIND: 70.0 mph WIND SPEED;
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 ( 0-20 I) i
Cq = 1.2 inward &
Wwl = 14.5 * 1.1 * 1.2 *
Ww2 = 14.5 * 1.2 * 1.2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 *
Ws2 = 0.30 *100.00 *
SEISMIC
W = 240.00 540.00 p/f
L = 9.0 17.0 4.5 ft l<---->l<---->l<--->I
A /\
1--> X I RF RR
RR = 9193 lbs
RF = 4577 lbs
Mopng =413.89 k-in
Mmax @ X =13.476 ft
Mmax = 442.6 k-in
2. VERTICAL LOADS . : . --------·----·-----
EXPOSURE . C .
1.2 ( > 20 1 )
outward
18.00 = 337.47 p/f . (0 -20 I) ' 18.00 = 372.71 p/f . ( > 20') '
8.00 = 240.00 p/f
18.00 = 540.00 p/f
WIND
337.47 372.71 p/f
20.0 10.5 ft !<-------><------->!
I I RF RR
RR = 6396 lbs
RF = 4266 lb_s
Mopng = 296.76 k-in
Mmax @ X = 12.64 ft·
Mmax ,=: 323.62 k-in
·;-
e = 3.500
Pl=
+ 4.00,0 = 7.500 inches
ROOF
WALL : P2 =
23.00 * 18.00 * 13.0 psf / 1000 = 5.382 k
17.86 * 18.00 * 0.667 * 0.150 kc£ = 32.144 k
TOTAL =37.526 k
:e,
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 96 IN
Lu= 26.000 lft) F~ = 4.000 ksi) a = 5.313 in)
Concrete TyRe = Normal Fy = 60 ( ksi)
b = 96.00 (in)
We= 150 (pcf) Ee= 3604 (ksi) n = 8.05
Pcallow) = 0.04 . F~ .Ag ........... = 122.880 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = -8.724 (in 2)
Steel Area, As= 2.6400 (in~) .... USE 6 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : · dCin> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 2 > U = 0.90 + 1.1 x l.3Eill2..
P1 = 5.382 lkipsl Pu1 = 4.844 lkipsj P2 = 32.144 kips Pu2 = 28.930 kips Pr = 37.526 kips Pu = 33.773 kips
Mctat> = 442. 0 (in.kips} Mu = 632.918 (in. ips)
e = 7.500 (in)
d = ••••••••.•..••.•••.•.••...••.••.•••••••••.•••••••.••... p = 0.9 -[2. Pu/F~.Ag] ............................ .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b .................... .
C = a / 0. 85 · ........................................ .
= 5.313 (in)
= 0.878
;= 0.589 (in)
= 0.693 (in)
Icr = n.[ As.(d-c)A 2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 672. 839 (in 4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2)-................ . = 920.100 (in.kips)
Sn = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.847 (in)
Mu (P.e} = Pu1 .e/2 ..............•..•....•.............. = -18.164 (in.kips)
Mu (P.6) = [ Pu, + PU2 ] x 6 ............................ = 129.943 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.6)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 744.70 (in.kips)
= 823.13 (in.kips)
Check ,Service Load Deflection : Slim = Lu/150 = 2.08 (in)
beff = · 96. 00 (in)
Ms = M(lat) -P1 .e/2 +Pr.Slim ............ = .......•• = 500.47 (in.kips)
Mer=. 5. F~A1/_2.be._tA2/6 ............... _, ............ = 323.82 (in.~ips)
o.k
Ser= ·,Mer·LuA 2 / 9.6. E.Ig = ........... .-.........
1
••• = 0.22 (in)
Ss = Ber + [Sn -: Ber] X [Ms -Mcr]/[Mn -Mer] .•.... = L30 (in) o.k.
LOAD CASE SUMMARY SEISMIC GOVERNS [ Mu / pMn ]
Load Case < 1 > Load Case < 2 > Load Case < 3 > Load Case < 4 >
U = 0.75 X f 1.4D + 1.1 X 1.7ECIN) ]
U = 0.9D + .1 x 1.3Ec~>
U = 0.75 x ·f 1.4D + l.1 x l.7Ecour, ] U = 0.9D + .1 x 1..3Ecoun
= 0.897
= 0.905 <===
= 0.864
= 0.860
: ~
lkJ-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB N0:96-126
*********************************************************************
P-1 R, ZL
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 26.00 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 15.00 ft
Open'g Height, Lo= 9.00 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED;
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20');
Cq = 1.2 inward
Wwl = 14.5 * 1.1 * 1.2
Ww2 = 14.5 * 1.2 * 1.2
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00
Ws2 = 0.30 *100.00
SEISMIC
W = 150.00 450.00 p/f
L = 9.0 17.0 4.5 ft l<---->l<---->l<--->I
A
1--> X
RF
RR = 7583
RF = 3442
Mopng =330.43
Mmax @ X =13.649
Mmax ..,.. 357.2
2 . VERTI-CAL LOADS
' ----------~--------
A
I
RR
lbs
lbs
k-in
ft
k-in
&
*
*
*
*
EXPOSURE . C .
1.2 ( > 20')
outward
15.00 = 281.23 p/f . (0 -20'} I
15.00 = 310.59 p/f ; ( > 20')
5.00 = 150.00 p/f
15.00 = 450.00 p/f
WIND
281.23 310.59 p/f
20.0 10.5 ft l<-------><------->I
A A
I I RF RR
RR = 5330 lbs
RF = 3555 lb_s
Mopng = 247.30 k-in
Mmax @ X = 12.64 ft·
Mma¥ = 269.68 k-in
·r
e = 3.500 + 4.000 = 7.500 inches
ROOF: Pl=
WALL : P2 =
23.00 * 15.00 * 13.0 psf / 1000 = 4.485 k
17.86 *·15.00 * 0.667 * 0.150 kc~ = 26.787 k
TOTAL =31. 272 k
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 60 IN
Lu= 26.000 !ft} F~ = 4.000 ksi) a= 5.313 in)
Concrete TyP.e = Normal Fy = 60 (ksi)
b = 60.00 (in)
We= 150 (pcf) Ee= 3604 (ksi) n = 8.05
P(allow) = 0.04 . F~ .Ag ........... = 76.800 (kips) ........ o.k.
Pb= 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0.6 . Pb .b.d ... _ ....... = ,5.452 (in 2)
Steel Area, As=. 2.2000 (inZ) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth· ..... = 0.750 (in) Effective Depth to Steel : d<in> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 2 > U = 0.90 +I.Ix 1.3Ei!fil.
P1 = 4.485 lkipsl Pu1 = 4.036 lkipsl P2 = 26.787 kips Pu2 = 24.108 kips
Pr = 31.272_ kips . Pu = 28.145 kips
McLat> = 357.20 (rn.k1ps) Mu = 510.796 (in. ips)
e = 7.500 (in)
d = •••••••••..••••.•..•.•••.••.•.••.•••••.•••..•..•••... = 5.313 (in) p = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b .................... .
C = a / 0.85 . . ....................................... .
= 0.871
0.785 (in)
= 0.924 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 519.072 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 751.036 (in.kips)
6n = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 4.071 (in)
Mu (P.e) = Pu1 .e/2 ..........•..........................
Mu ( p. 6) = [ Pu1 + Pu2 ] X 6 .......................... .
= -15.137 (in.kips)
= 114.574 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.6) = 610.23 (in.kips)
,SMn = ,S.As.Fy.(d -a/2) + Pu.(t/2 -a/2·) = 667.04 (in.kips) .... o.k
Check Service Load Deflection : 6 Lim = Lu/150 = : 2. 08 (in)
beff! = 60.00 (in) ,
Ms = M(lat) -P1 .e/2 +Pr.Slim ......... : ............ = 405.43 (in.kips)
Mer = 5. f~A1/2.be.tA2/6 ...........•......... , ...... = 202.39 (in.kips)
6cr·r= Mcr•LUA 2 / 9.6. E.Ig · .......• ·~ ........ .' ..•... ; =· 0.22-(in)'
65 = 6cr + [~n -Ser] X [Ms -Mcr]/[Mn -Mer] ...... -=' 1.65 (in) o.k.
LOAD CASE SUMMARY: SEISMIC GOVERNS [Mu/ ,SMn]
Load Case < 1 >
Load Case < 2 > Load Case < 3 > Load Case < 4 >
U = 0.75 X [ 1.4D + 1.1 X 1.7EcrN> ] U = 0.9D + 1.1 x 1.3Ecun U = 0.75 x ,r 1.40 + 1.1 x 1.7EcoUT) ]
U = 0.90 + LI x 1.3Ecoun
= 0.912 = 0.915 <===
= 0.879
= 0.870
-
. -w7
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126
*********************************************************************
P-2 R
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 26.00 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 9.58 ft
Upper Panel Leg = 19.58 ft
Open'g Height, Lo= 9.00 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE . C .
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20'); 1.2 ( > 20 I)
Cq = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 19.58 = 367.10 p/f ; (0 -2D°')
Ww2 = 14.5 * 1.2 * 1.2 * 19.58 = 405.42 p/f . ( > 20') I
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 9.58 = 287.40 p/f
Ws2 = 0.30 *100.00 * 19.58 = 587.40 p/f
SEISMIC WIND
W = 287.40 587.40 p/f 367.10 405.42 p/f
L = 9.0 17.0 4.5 ft 20.0 10.5 ft -l<---->l<---->l<--->I !<-------><-----~->!
I'\ I'\ I'\ I'\
1--> X I I I RF RR RF RR.
RR = 10041 lbs RR = 6958 lbs
RF = 5175 lbs RF = 4641 lb?
Mopng =457.85 k-in Mopng = 322.81 k-in
Mmax @ X =13.406 ft Mmax @ X = 12.64 ft
Mmax := 487.6 k-in Mmax = 352.03 k-in !
2 . V.ERTI CAL LOADS ----~--------------. i.
e = 3.500 + .4. 000 = 7. 500 inches
ROOF : Pl =
WALL : P2 =
23.00 * 19.58 * 13.0 psf / 1000 = 5.854 k
17.86 * 19.58 * 0.667 * 0.150 kc~ = 34.966 k
TOTAL =40.820 k
-
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 114 IN
Lu= 26.000 !ft) F~ = 4.000 ksi) a = 5.313 in)
Concrete Type= Normal
Fy = 60 (ksi) b = 114.00 (in)
We = 150 (pcf)
Ee= 3604 {ksi)
n = 8.05
Pcallow> = 0.04. F~.Ag ........... = 145.920 (kips) ........ o.k.
Pb = 0.85A 2.{ F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = 10.360 (in 2)
Steel Area, As= 2.6400 (ing) .... USE 6 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 {in)
Effective Depth to Steel : dCin> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3Eillil.
P1 = 5.854 lkipsl Pu 1 = 5.269 !kipsl P2 = 34.966 kips Pu2 = 31.469 kips Pr = 40.820 kips Pu = 36.738 kips
MClat> = 487. 0 (in.kips) Mu = 697.268 (in. ips)
e = 7.500 (in)
d = ••••.•••.•••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in)
,S = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a = [ As . F y + Pu ] / 0 • 85 . F ~ • b •••••••••••••••••••••
C= a/0.85 ........................................ .
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3
= 0.880
0. 503 (in)
= O. 592 (in)
= 700.885 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 939.410 (in.kips)
Sn = Mn.LuA 2 / 9.6. E.Icr .......................... . = 3.771 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -19.757 (in.kips)
_Mu (P.5) = [ Pu1 + Pu2 ] x S ........................... = 138.541 (in.kips)
Total Factored ·oesign Moment:
Mur = Mu + Mu(P.e) + Mu(P.S)
,SMn = ,S.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 816.05 (in.kips)
= 843.09 (in.kips)
, , Check Service Load Deflection : Slim = Lu/150 = 2.08 (in) .
beff = 114.00 (in) .
Ms = M(lat) -P1 .e/2 + Pr .Slim .... : ................. = 550.55 (in.kips)
Mer= 5. F~A1/2.be.tA2/6 ...... ., ......... , ... -....... = 384.53 (in.kips)
o.k
-r Ser= Mer•LiJA 2 / 9.6=. E-.Ig ... ·; ........ .' ...... : .. ; .. = -0.22 (in)'
6s =Ser:+ [60 -Ser] x [Ms -Mcr]/[Mn -Mer] .~ .. ; .. = 1.28 (in) o.k.
LOAD CASE SUMMARY: SEISMIC GOVERNS [Mu/ pMn]
Load Case < 1 >
Load Case < 2 > Load Case < 3 > load Case < 4 >
u = 0.15 x r L4D + 1.1 x 1.1E,rn, J U = 0.9D + 1.1 x l.3Ec~> U = 0.75 x .r 1.4D + 1.1 x 1.7Ecoor) ] U = 0.9D + LI x l.3Ecoon
= 0.957 = 0.968 <===
= 0.923
= 0.921
I ,
*********************************************************************q
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB N0:96-126 vJ I
*********************************************************************
P-3 L
Wall Thickness,
Clear Height,
Parapet Height,
Lower Panel Leg
Upper Panel Leg
Open'g Height,
tw= 8.00
Lu= 27.00
Lp= 3.50
4.00
8.00
Lo= 12.50
=
=
1. LATERAL LOADS
WIND: 70.0 mph WIND
p = Ce X Cg X
qs = 14.5
Ce = 1.1
Cq = 1.2
Wwl = 14.5 *
Ww2 = 14.5 *
1.1*
1.2 *
in
ft
ft
ft
ft
ft
SPEED;
gs
psf
(0-20');
inward &
1.2 *
1.2 *
0.30 * W
EXPOSURE . C .
1.2 ( > 20 I)
outward
8.00 = 149.99 p/f . (0 -20') I
8.00 = 165.65 p/f . ( > 20 I) I
SEISMIC: Ws =
ZONE-4 Wsl =
Ws2 =
0.30 *100.00 * 4.00 = 120.00
0.30.*100.00 * 8.00 = 240.00
p/f
p/f
SEISMIC
W = 120.00 240.00 p/f
L = 12.5 14.5 3.5 ft l<---->l<---->l<--->I
I'\
1-~> X
RF
RR = 3787
RF = 2033
Mopng =198.77
Mmax @ X =14.720
Mmax = 199.5
2·. VERTICAL LOADS
e = 3.500
ROOF : Pl =
WALL: P2 =
I'\
I
RR
lbs
lbs
k-in
ft
k-in
+
23.00
17.16
4.000
* 8.00
* 8.00
=
*
*
WIND
149.99 165.65 p/f
20.0 10.5 ft l<-------><------->I
I'\ I'\
I I RF RR
RR = 2738 lbs
RF = 2001 lbs
Mopng = 159.61 k-in
Mmax @ X = 13.34 ft·
Mmax = 160.25 k-in
'i"
7.500 inches
13.0 psf / 1000 = 2.392 k
0.667 * 0.150 kcf, = 13.725 k
TOTAL =16.117 k
. r
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 48 IN
Lu= 26.000 lft) F~ = 4.000 ksi) a = 5.313 in)
Concrete TyRe = Normal Fy = 60 (ksi) b = 48.00 (in)
We = 150 (pcf)
Ee= 3604 (ksi) n = 8.05
Pcallow) = 0.04 . F~ .Ag ........... = 61.440 (kips)
Pb= 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = -4.362 (in 2)
o.k.
Steel Area, As= 1.3200 (in~) .... USE 3 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) · Effective Depth to Steel : · d<in> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x l.3Eilfil..
P1 = 2.392 lkipsl Pu1 = 2.153 !kipsl P2 = 13.725 kips Pu 2 = 12.352 kips
Pr = 16.117 kips Pu = 14.505 kips
Mclat> = 199. 0 (in.kips) Mu = 285.285 (in. ips)
e = 7.500 (in)
d = •....•.•.•..•.•.•.••••.•..•.•••......•.•••.•.....••.. = 5.313 (in)
p = 0.9 -[2 . Pu/F~ .Ag] ............................ ..
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b ................... ..
C = a / 0. 85 ........................................ .
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3
= 0.881
r= 0.574 (in)
= 0.675 (in)
= 334.724 (in4)
Mn = As.Fy. (d -a/2) + Pu. (t/2 -a/2) ................ . = 451.909 (in.kips)
Sn = Mn.LuA 2 / 9.6. E.Icr .......................... . = 3.799 (in)
Mu (P.e) = Pu1 .e/2 ............•..........••............ = -8.073 (in.kips)
Mu (P.S) = [ Pu1 + Pu 2 ] x S ........................... = 55.099 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.S)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 332.31 (in.kips)
= 404.59 (in.kips) o.k
Check Service Load Deflection : Slim = IJu/150 = 2.08 (in)
beff = 48. 00 (in)
Ms = M(lat) -P1 .e/2 + Pr .Slim ; .................... = 224.05 (in:kips)
Mer "." 5. f~A 1J2.be.tA 2/6 ... _ ............... · .......... = 161.91 (in.~ips)
Ser= Me~.LuA 2 / 9.6. E.Ig · .......... i ..... ,; .. · ...... = 0.22 (in)
Bs = 9er + [Sn -Serl x [Ms -Mcr]/[Mn -Mer]~ ..... = 0.99 (in)
LOAD CASE SUMMARY : SEISMIC GOVERNS [ Mu / pMn ]
Load Case < 1 > Load Case < 2 > Load Case < 3 > Load Case < 4 >
U = 0.75 X [ 1.4D + 1.1 X 1.7ECIN) ] U = 0.9D + 1.1 x 1.3Ecun
U = 0.75 x .[ 1.4D + l.1 x 1.7Ecoun ]
U = 0.90 + 1.1 x l.3Ecoun
= 0.815
= 0.821 <=== = 0.782
= 0. 778
t o.k.
********************************************************************* l
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO: 96-126 w· .(
********************************************************************* ,_. P-3 R
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 27.00 ·ft
Parapet Height, Lp= 3.50 ft
Lower Panel Leg = 2.00 ft
Upper Panel Leg = 6.0Q ft
Open'g Height, Lo= 12.50 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE . C .
p = Ce X Cg X gs
gs = 14.5 psf
Ce = 1.1 (0-20 1 ); 1.2 ( > 20 I)
Cg = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 6.00 = 112.49 p/f i (0 -20 1 )
Ww2 = 14.5 * 1.2 * 1.2 * 6.00 = 124.24 p/f . ( > 20') ,
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 2.00 = 60.00 p/f
Ws2 = 0.30 *100.00 * 6.00 = 180.00 p/f
SEISMIC WIND ---------------
w = 60.00 180.00 p/f 112.49 124.24 p/f -L = 12.5 14.5 3.5 ft 20.0 10.5 ft l<---->l<---->l<--->I l<-------><------->I -----------------------------------------"' "' "' /\
1--> X I I I RF RR RF RR
RR = 2754 lbs RR = 2053 lbs
RF = 1236 lbs RF = 1501 lbs
Mopng =135.53 k-in Mopng = 119.71 k-in
Mmax @ X =15.202 ft Mmax @ X = 13.34 ft
Mmax = 137.1 k-i.n : : Mrnax = 120.19 k-in
2. VERTICAL LOADS ~ -------------------·j"
' e = 3.500 + 4.000 = 7.500 inches
ROOF . Pl = 23.00 * 6.00 * 13.0 psf I 1000 = 1.794 k .
WALL . . P2 = 17.16 * 6.00 * 0.667 * 0.150 kcf, = 10.293 k
TOTAL =12.087 k
-
'i"
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8·1N x B = 24 IN
Lu= 27.000 !ft} F~ = 4.000 ksi) a = 5.313 in)
Concrete Type= Normal Fy = 60 ( ksi) b = 24.00 (in)
Pcallow) = 0.04 . F~ .Ag ........... =
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] =
As (max) = 0.6 . Pb .b.d .......... =
30.720 (kips)
0.02851
-2.181 (in2)
We = 150 (pcf) Ee= 3604 (ksi) n = 8.05
. . . . . . . . 0. k.
(JJ I 2.
Steel Area, As= 1.3200 (in~) .... USE 3 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : dCin> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 1 > U = 0.75 x [ 1.40 +I.Ix l.7Ern--1
P2 = 10.293 kips · Pu2 = 10.808 kips p1 = 1.794 !kipsl Pu1 = 1.884 lkipsl e = 7.500 (in)
Pr = 12.087 kips Pu = 12.691 kips Mnat> = 137.10 (in.kips) Mu = 192.283 (in. ips)
d = • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • =
p = 0.9 -[2 . Pu/F~.Ag] ............................. =
a = "[ As. Fy + Pu ] / 0. 85 . F ~ . b . . . . . .. . . . . . .. .. . . . .. r=
C = a / 0. 85 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . =
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 =
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................. =
6n = Mn.LuA 2 / 9.6 . E.Icr ........................... =
5.313 (in)
0.867
1.126 (in)
1.325 (in)
269. 238 (in 4)
419.815 (in.kips)
4.731 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -7.064 (in.kips)
Mu (P.6) = [ Pu1 + Pu2 ] x 6 ........................... = 60.043 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.S) = 245.26 (in.kips)
¢Mn= p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 369.76 (in.kips) .... o.k
Check Service Load Deflection : Sum= Lu/150 = 2~16 (in). beff = 24.00 (in)
Ms = M(lat) -P1 .e/2 +Pr.Slim ..................... = 156.48 (in.kips)
Mer = 5. F~A1/2.be.tA_~/6 .......... -................. = 80.95 (in.~ips)
Ser = Mer•luA 2 / 9.6 .· E.Ig ... \ ..... ~.~_ ............ = 0.24 '(in) ·r_
168 = 6er + [Sn -Ser] x [Ms -Mcr]/[Mn -· Mer] ...... = 1.24 (in) o.k.
LOAD CASE SUMMARY: SEISMIC GOVERNS [Mu/ ¢Mn]
Load Case < 1 > Load Case < 2 > Load Case < 3 > Load Case < 4 >
U = 0.75 X r 1.4D + 1.1 X 1.7ECIN> ] U = 0.9D +I.Ix 1.3Ec~> U = 0.75 x .[ 1.40 + l.1 x_l.7Ecour> ]
U = 0. 9D + 1. 1 x 1. 3 Ecoun
= 0.663 <=== = 0.658 = 0.636 = 0.623
-
-
-
wC3
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126
*********************************************************************
P-12 L
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 4.00 ft
Upper Panel Leg = 14.00 ft
Open'g Height, Lo= 12.50 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE C
p = Ce X Cq X qs
gs = 14.5 psf
Ce = 1.1 (0-20'); 1.2 ( > 20 I)
Cg = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 14.00 = 262.48 p/f . I (O -20 I)
Ww2 = 14.5 * 1.2 * 1. 2 * 14.00 = 289.88 p/f ; ( > 2 0 I)
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 4.00 = 120.00 p/f
Ws2 = 0.30 *100.00 * 14.00 = 420.00 p/f
SEISMIC WIND
W = 120.00 420.00 p/f 262.48 289.88 p/f
L = 12.5 13.0 4.5 ft 20.0 10.0 ft l<---->l<---->l<--->I l<-------><------->I
/\ /\ /\ /\
,--> X I I I RF RR RF RR
RR = 6493 lbs RR = 4901 lbs
RF = 2357 lbs RF = 3248 lbs
Mopng =250.87 k-in Mopng = 241.09 k-in
Mmax @ X =14.541 ft Mmax @ X = 12.37 ft
, ·, Mmax = 251.6 k-in Mmax = 241.12 k-in
2. · VERTICAL LOADS ___ ·: --------------
e = 3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
ROOF
WALL
23.00 * 14.00 * 13.0 psf / 1000 = 4.186 k
17.63 * 14.00 * 0.667 * 0.150 kcf = 24.677 k
TOTAL =28.863 k
-
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 48 IN
Lu= 25.5001ft) F~ = 4.000 ksi) a = 5.313 in)
Concrete TyP.e = Normal Fy = 60 (ksi)
b = 48.00 (in)
We = 150 (pcf) Ee= 3604 (ksi)
n = 8.05
Pcallow) = 0.04. F~.Ag ........... = 61.440 (kips) ........ o.k.
Pb = 0.85AZ.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = 4.362 (in 2)
Steel Area, As= 1.7600 (in£) .... USE 4 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : d,in> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 1 > U = 0.75 x [ 1.4D + 1.1 x 1.7Ern-1
w /Cf,
P2 = 24.677 kips Puz = 25.911 kips P1 = 4.186 lkipsl Pu1 = 4.395 lkipsl e = 7.500 (in)
Pr = 28.863 kips Pu = 30.306 kips
Mctat> = 251.60 (in.kips) Mu = 352.869 (in. ips)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in) p = 0.9 -[2. Pu/F~.Ag] ............................ .
a= [ As.Fy + Pu ] / 0.85 . F~ .b ................... ..
C = a / 0. 85 ........................................ .
= 0.861
= 0.833 (in)
= 0.980 (in)
Icr = n.[ As.(d-c)AZ + (Pu/Fy).(t/2 -c)AZ] + (be/3).cA3 = 418.066 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 625.689 (in.kips)
8n = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 4.050 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -16.482 (in.kips)
Mu (P.8) = [ Pu 1 + Puz ] x 8 ........................... = 122.753 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8)
.¢Mn= p.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 459.14 (in.kips)
= 553.58 (in.kips)
Check-Service Load Defledion : 8lim = Lu/150 = 2.04 (in)
beff = 48. 00 (in)
M8 = M(lat) -P1 .e/2 + Pr .8lim ..................... = 294.78 (in.kips)
Mer = 5. F~A 1f2.be.tA 2/6 ........................... = 161.91 (in.~ips)
o.k
8er = Mer .LuA,Z / 9.6 . fi,Ig ........................ = 0.21 (in)'
85 = 8er + [8n -8erJ X [Ms -Mcr]/[Mn -Mer] ...... = 1.31 (in) o'.k.
LOAD CASE SUMMARY
Load Case < 1 >
Load Case < 2 > Load Case < 3 > Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 X [ 1.40 + 1.1 X l.7EON> ] U = 0.9D + 1.1 x 1.3E,~, U = 0.75 x [ 1.40 + l.1 X l.7Ecoun ]
U = 0.9D + 1.1 x 1.3Ecoun
[Mu/ .¢Mn]
= 0.829 <===
= 0.827
= 0.816
= 0.803
-
•
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CONCRETE PIERS FOR PANEL W/OPENINGS: JOB N0:96-126 iJJ(J
*********************************************************************
P-16 L
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 4.00 ft
Upper Panel Leg = 12.00 ft
Open'g Height, Lo= 12.50 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE C
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20'); 1.2 ( > 20 I)
Cq = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 12.00 = 224.98 p/f ; (0 -20 I)
Ww2 = 14.5 * 1.2 * 1.2 * 12.00 = 248.47 p/f . ( > 2 0') I
SEISMIC: ws = 0.30 * w
ZONE-4 Wsl == 0.30 *100.00 * 4.00 = 120.00 p/f
Ws2 = 0. 30 *100.00 * 12.00 = 360.00 p/f
SEISMIC WIND
W = 120.00 360.00 p/f 224.98 248.47 p/f
L = 12.5 13.0 4.5 ft 20.0 10.0 ft l<---->l<---->l<--->I !<-------><------->!
A A A A
1--> X I I I RF RR RF RR
RR = 5618 lbs RR = 4201 lbs
RF = 2182 lbs RF = 2784 lbs
Mopng =222.28 k-in Mopng = 206.65 k-in
Mmax @ X =14.395 ft Mmax @ X = 12.37 ft
Mmax = 222.6 k-in Mmax '= 206.67 k-in
'2. VER~ICAL LOADS -------------------'
e = 3.500 + 4.000 = 7.500 inches
ROOF: Pl=
WALL: P2 =
23.00 * 12.00 * 13.0 psf / 1000 = 3.588 k
17.63 * 12.00 * 0.667 * 0.150 kcf = 21.152 k
TOTAL =24.740 k
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Slender Concrete Wall Design Per 1994 USC 1914.8
DESIGN SECTION: T = 8 IN x B = 48 IN
Lu= 25.5001ft} F~ = 4.000 ksi) a = 5.313 in)
Concrete TyP.e = Normal Fy = 60 (ksi) b = 48.00 (in)
We = 150 (pcf) Ee= 3604 (ksi)
n = 8.05
Pcallow) = 0.04. F~.Ag ........... = 61.440 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0.6 . Pb .b.d .......... = 4.362 (in 2)
Steel Area, As= 1.7600 (inf) .... USE 4 -# 6 Bars Ea. Face
wlb
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : d<in> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 1 > U = 0.75 x [ 1.4D + 1.1 x l.7Ern_J_
P1 = 3.588 lkipsl PU1 = 3.767 lkipsl P2 = 21.152 kips PU2 = 22.210 kips Pr = 24.740 kips Pu = 25.977 kips
Mnat> = 222. 0 (in.kips) Mu = 312.197 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in)
/J = 0.9 -[2 . Pu/F~ .Ag] ........................... ..
a= [ As.Fy +Pu]/ 0.85 . F~.b .................... .
C = a I o.85 .........................................
= 0.866
-0.806 (in)
= 0.949 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 416.544 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 611.920 (in.kips)
Sn = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.976 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -14.128 (in.kips)
Mu (P.8) = [ Pu1 + Pu 2 ] x 8 ........................... = 103.278 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8)
/JMn = /J.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 401.35 (in.kips)
= 542.53 (in.kips)
Check Service Load Deflection : :8lim ~ Lu/150 = 2.04 (in)
beff = 48.00 (in)
M5 = M(lat) -P1 .e/2 + Pr .8lim ..................... = 259.61 (in.kips)
Mer = 5. F~A1/2,be.tA 2/6 ..... t ...... _ ............... = 161.91 (in.kips)
o.k
8er = Mer·LuA 2 / 9.6. E.Ig ........ ! .. , ............. = 0.21 (in) ·
= 85 = 8er + [6n -6erl X [Ms -Mcr]/[Mn -Mer] ...... = 1.03 (in) o.k.
LOAD CASE SUMMARY SEISMIC GOVERNS [Mu/ /JMn]
Load Case < 1 > U = 0.75 X f 1.4D + 1.1 X 1. 7E(IN) ] = 0.740 <===
Load Case < 2 > U = 0.9D + .1 x l.3E<~> = 0.738
Load Case < 3 > U = 0.75 X [ 1.4D + 1. X 1. 7Ecoun ] = 0\ 725
Load Case < 4 > U = 0. 9D + 1. 1 x 1. 3 Ecoun = 0. 713
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CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 W f 7
*********************************************************************
P-J6 R
Wall Thickness, tw= 8.00 in
Clear Height, LU= 25.50 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 13.00 ft
Open'g Height, Lo= 12.50 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE . C .
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20'); 1.2 ( > 20 I)
Cq = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 13.00 = 243.73 p/f . (0 -20 I) I
Ww2 = 14.5 * 1.2 * 1.2 * 13.00 = 269.18 p/f . ( > 20 I) I
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 5.00 = 150.00 p/f
Ws2 = 0.30 *100.00 * 13.00 = 390.00 p/f
SEISMIC WIND
W = 150.00 390.00 p/f 243.73 269.18 p/f
L = 12.5 13.0 4.5 ft 20.0 10.0 ft l<---->l<---->l<--->I l<-------><------->I
A. A A. A.
,--> X I I I RF RR RF RR
RR = 6147 lbs RR = 4551 lbs
RF = 2553 lbs RF = 3016 lbs
Mopng =249.25 k-in Mopng = 223.87 k-in
Mroax @ X =14.238 ft Mrnax @ X = 12.37 ft
Mrnax = 249 .'4', k-in Mrnax = 223.89 k-in
2. VERTICAL LOADS
-----------------'i
e = 3.500
Pl=
+ 4.000 = 7.500 inches
ROOF
WALL: P2 =
23.00 *_13.00 * 13.0 psf / 1000 = 3.887 k
17.63 * 13.00 * 0.667 * 0.150 kcf = 22.915 k
TOTAL =26.802 k
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Slender Concrete Wall Design Per 1994 UBC 1914.8 w 18
DESIGN SECTION: T = 8 IN x B = 60 IN
Lu= 25.5001ft) F~ = 4.000 ksi) a = 5.313 in)
Concrete Type= Normal Fy = 60 ( ks i) b = 60.00 (in)
We= 150 (pcf) Ee= 3604 (ksi)
n = 8.05
Pcallow) = 0.04. F~.Ag ........... = 76.800 (kips) ........ o.k.
Pb = 0.85A 2 .( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = 5.452 (in 2)
Steel Area, As= 1.7600 (inf) .... USE 4 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : dcin) = 5.313 (in) dcout) = 6.063 {in)
LOAD CASE < 2 > U = 0.9D + 1.1 x l.3Ei!fil..
P1 = 3.887 lkipsl Pu 1 = 3.498 lkipsl P2 = 22.915 kips Pu2 = 20.624 kips
Pr = 26.802 kips Pu = 24.122 kips
Mnat) = 249.40 (in.kips) Mu = 356.642 (in. ips)
e = 7.500 (in)
d = .....•.••••..••••••••••......••.•••••.•.••••...•••••• = 5.313 (in) p = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a= [ As.Fy + Pu ] / 0.85 . F~ .b .................... .
C = a/ 0.85 .........................................
= 0.875
= 0.636 (in)
= 0.748 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 442.634 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 616.296 (in.kips)
8n = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.768 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -13.119 (in.kips)
Mu (P.8) = [ Pu1 + Pu2 ] x 8 ........................... = 90.895 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 434.42 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 550.29 (in.kips) .... o.k
Ch~ck Service Load Deflection : beff = 60. 00 (in) 8lim ='Lw/150 = 2.04 (in)
M5 = M(lat) -P1 .e/2 +Pr.Slim ..................... =
Mer= 5. F~A1f2.be.tA2/6 .................. .-........ =
8er =: Mer . LUA 2 / 9. 6 . E. lg ...... ; ......... ; i, • • • • • • =
65 = 6er + [8n -8erJ X [Ms -Mcr]/[Mn -Mer] ...... =
LOAD CASE SUMMARY
Load Case < 1 > Load Case < 2 >
Load Case < 3 > Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 X [ 1.4D + 1.1 X 1.7EON) ]
U = 0.9D + 1.1 x l.3E(~)
U = 0.75 x [ 1.40 + l.1 x 1.7Ecoun ]
U = 0 • 9D + 1. 1 x 1. 3 Ecoun
289.50 (in.kips)
202.39 (in.kips)
0.21 (in)
0.96 (in)
[Mu/ pMn]
= 0.787 = 0.789 <===
= 0. 771
= 0.762
o.k.
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CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 UJ/ I
*********************************************************************
P-1'7 1-
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = -4. 83 ft
Upper Panel Leg = 13.83 ft
Open'g Height, Lo= 7.00 ft
1. LATERAL LOADS -------------------WIND: 70. o mph WIND SPEED; EXPOSURE . C .
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20'); 1.2 ( > 2 0 I)
Cq = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 13.83 = 259.35 p/f . (0 -20 I) ,
Ww2 = 14.5 * 1.2 * 1.2 * 13.83 = 286.43 p/f . ( > 20 I) ,
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 4.83 = 144.99 p/f
Ws2 = 0.30 *100.00 * 13.83 = 414.99 p/f
SEISMIC WIND ---------------w = 144.99 414.99 p/f 259.35 286.43 p/f
L = 7.0 18.5 5.0 ft 20.0 10.5 ft l<---->l<---->l<--->I !<-------><------->! -----------------------------------------
/\ /\ /\ /\
,--> X I I I RF RR RF RR
RR = 7310 lbs RR = 5012 lbs
RF = 3457 lbs RF = 3182 lbs
Mopng =286.13 k-in Mopng = 191.07 k-in
Mmax @ X =12.885 ft Mmax @ X = 12.27 ft
Mmax = 334.0 k-in Mmax = 234.29 k-in ' ~
2. VERTICAL LOADS -------------------
e = 3.500 + 4.000 = 7.500 inches
ROOF Pl = 23.00 * 13.83 * 13.0 psf / 1000 = 4.136 k
WALL P2 = 18.23 * 13.83 * 0.667 * 0.150 kcf· = 25.217 k
TOTAL =29.353 k
Slender Concrete Wall Design Per 1994 USC 1914.8
DESIGN SECTION: T = 8 IN x B = 58 IN
Lu= 25.5001ft) F~ = 4.000 ksi) a = 5.313 in)
Concrete TyP.e = Normal Fy = 60 ( ks i)
b = 58.00 (in)
We = 150 (pcf) Ee= 3604 (ksi)
n = 8.05
Peat tow> = 0.04 . F~ .Ag ........... = 74.240 (kips) ........ o.k.
Pb = 0.85AZ.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = 5.271 (inZ)
Steel Area, As= 2.2000 (inf) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth .~ ... = 0.750 (in) Effective Depth to Steel : d<in> = 5.313 (in) d(out) = 6. 063 {in)
LOAD CASE < 2 > U = 0.90 + 1.1 x l.3Eilfil..
p1 = 4.136 lkipsl Pu1 = 3.722 lkipsl Pz = 25.217 kips Puz = 22.695 kips Pr = 29.353 kips Pu = 26.418 kips
M<Lat> = 334.00 (in.kips) Mu = 477.620 (in. ips)
d = •••••••••••••••••••••••••••••••••••••••••••••••••••••
¢ = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a= [ As.Fy +Pu]/ 0.85 . F~ .b .................... .
C = a / 0. 85 ........................................ .
Icr = n.[ As.(d-c)AZ + (Pu/Fy).(t/2 -c)AZ] + (be/3).cA3
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ .
8n = Mn.LuAZ / 9.6 . E.Icr .......................... .
Mu (P.e) = Pu1 .e/2 .................................... .
Mu ( P. 8) = [ Pu1 + Puz ] x S .......................... .
Total Factored Design Moment :
e = 7.500 (in)
= 5.313 (in)
= 0.872
= 0.803 (in)
= 0.945 (in)
= 513. 066 (in 4)
= 743.356 (in.kips)
= 3.921 (in)
= -13.959 (in.kips)
= 103.587 (in.kips)
Mur = Mu + Mu(P.e) + Mu(P.S)
¢Mn= ¢.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 567.25 (in.kips)
= 660.07 (in.kips) o.k
Check Service Load Deflection : Slim = Lu/150 = 2.04 ·(in) .
beff = 58. 00 (in) _
M5 = M(lat) -P1 .e/2 +Pr.Slim ..................... = 378.37 (in.kips)
_Mer= ·5. F~A1/Z.be.tA2/6 ................. : ......... ; = 195.64 (in.kips)
I 8cr = Mc/.LuAZ / 9.6 . E.Ig ........................ = n.21 (in)
85 = 8cr + [Sn -8c'r] X [Ms -Mcr]/[Mn -Mer] ...... = 1.45 (in) o.k.
LOAD CASE SUMMARY SEISMIC GOVERNS [Mu/ ¢Mn]
Load Case < 1 > Load Case < 2 >
Load Case < 3 >
Load Case < 4 >
U = 0. 75 X [ 1. 40 + 1. 1 X 1. 7EON> ]
U = 0.90 + 1.1 x l.3E(~)
U = 0.75 x ·[ 1.40 + l.1 x l.7Ecoun ]
U = 0. 9D + 1. 1 x 1. 3 Ecoun
= 0.857
= 0.859 <===
= 0.824
= 0.816
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CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO: 9 6-12 6 W 2-/
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P-J 7 R
Wall Thickness, tw= 8.00
Clear Height, Lu= 25.50
Parapet Height, Lp= 4.50
Lower Panel Leg = 7.80
Upper Panel Leg = 15.80
Open'g Height, Lo= 12.50
1. LATERAL LOADS -------------------WIND: 70. 0 mph WIND
p = Ce X Cq X
qs = 14.5
Ce = 1.1
Cq = 1.2
Wwl = 14.5 *
Ww2 = 14.5 *
1.1 *
1. 2 *
in
ft
ft
ft
ft
ft
SPEED;
qs
psf
(0-20');
inward &
EXPOSURE C
1.2 ( > 20')
outward
1.2 * 15.80 = 296.23 p/f ; (0 -20')
1.2 * 15.80 = 327.15 p/f; ( > 20')
0.30 * W SEISMIC: Ws =
ZONE-4 Wsl =
Ws2 =
0.30 *100.00 * 7.80 = 234.00
0.30 *100.00 * 15.80 = 474.00
p/f
p/f
SEISMIC
W = 234.00 474.00 p/f
L = 12.5 13.0 4.5 ft l<---->l<---->l<--->I
" 1--> X
RF
RR
RF
Mopng
Mmax@ x
Mmax
= 7629
= 3591
=324.79
=13.904
= 324.8
2. VERTICAL LOADS -------------------'
" I
RR
lbs
lbs
k-in
ft
k-in
Mmax
: ;
e = + 4.000 = 7.500
WIND
296.23 327.15 p/f
20.0 10.0 ft !<-------><------->!
" " I I RF RR
RR = 5531 lbs
RF = 3665 lbs
Mopng = 272.09 k-in
@ X = 12.37 ft
Mmax = 272.12 k-in
inches
ROOF
3.500
Pl= 23.00 *.15.80 * 13.0 psf / 1000 = 4.724 k
WALL: P2 = 17.63 * 15~80 * 0.667 * 0.150 kcf = 27.850 k
TOTAL =32.574 k
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AJIT RANDHAVA & ASSOCIATES
CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 FAX (714) 522-1149
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 93 IN
JOB# -----DATE ___ 1'-'-0·-'-14'--1""'-99.:....:.6_
DESIGN -----SHEET # ____ _
Lu= 25.5001ft) F~ = 4.000 ksi)
a = 5.313 in)
Concrete Type= Normal Fy = 60 (ksi) b = 93.00 (in)
We = 150 (pcf) Ee= 3604 (ksi) n = 8.05
Pcallow> = 0.04 . F~ .Ag ........... = 119.040 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0.6 . Pb .b.d .......... = 8.451 (in 2)
Steel Area, As= 2.2000 (ing) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : dCin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.90 + 1.1 x l.3Eill.2..
p1 = 4.724 !kipsl Pu1 = 4.252 lkipsl P2 = 27.850 kips Pu 2 = 25.065 kips
Pr = 32.574 kips Pu = 29.317 kips
Mnat> = 324.80 (in.kips) Mu = 464.464 (in. ips)
e = 7.500 (in)
d = •••••••••••••••••••••••••••••.•••••••••.•••.••••••••• = 5.313 (in) p = 0.9 -[2. Pu/F~.Ag] .. _ .......................... .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b .................... .
= 0.880
= 0.510 (in)
c = a / 0. 85 ........................................ . = 0.600 (in)
Icr = n.[ As.(d-c)A 2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA 3 = 580. 430 (in 4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 777.433 (in.kips)
8n = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.625 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -15.943 (in.kips)
Mu (P.8) = [ Pu1 + Pu2:] x 8 ........................... = 106.271 (in.kips)
Total Factored Design Moment~
Mur ~ Mu + ~u(P.e) + Mu(P.8)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 554.79 (in.kips).
1 'i = 697.51 (in.kips) o.k,
Check Service Load Deflection : 6lim = Lu/150 = 2.04 (in)
beff = 93.00 (in)
M5 = M(lat) -P1 .e/2 +Pr.Slim ..................... = 373.54 (in.kips)
Mer= 5. F~A1/2,be.tA2/6 ........................... = 313.70 (in.kips)
6er = Mer .LuA 2 / 9.6 . E.Ig ........................ = 0.21 (in)
65 = 6er + [8n -Serl x [Ms -Mcr]/[Mn -Mer] ...... = 0.65 (in) o.k.
LOAD CASE SUMMARY
Load Case < 1 > Load Case < 2 >
Load Case < 3 >
Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 X [ 1.4D + 1.1 X 1.7E<IN> ] U = 0.9D + 1.1 x l.3Ec~> U = 0 . 7 5 x f 1. 4D + 1. 1 x 1. 7 Ecoun ] U = 0.90 + LI x 1.3Ecoun
[Mu/ pMn]
= 0.790
= 0.795 <===
= 0.770
= 0.765
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******************************************************************~**
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB N0:96-126 (JJ 2 -:;
*********************************************************************
P-1g L
Wall Thickness,
Clear Height,
Parapet Height,
Lower Panel Leg
Upper Panel Leg
Open'g Height,
tw= 8.00
Lu= 25.50
Lp= 5.00
= 8.00
= 15.50
Lo= 12.50
1. LATERAL LOADS
WIND: 70.0 mph WIND
p = Ce X Cg X
in
ft
ft
ft
ft
ft
SPEED;
gs
gs =
Ce =
Cg =
14.5
1.1
1.2
psf
(0-20');
inward &
Wwl = 14.5 * 1.1 * 1.2
Ww2 = 14.5 * 1.2 * 1. 2
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00
Ws2 = 0.30 *100.00
SEISMIC
W = 240.00 465.00 p/f
L = 12.5 13.0 5.0 ft l<---->l<---->l<--->I
A
1--> X
RF
RR
RF
Mopng
Mmax@ x
·Mrnax
= 7792
= 3578
=315.77
=13.742
= 316.0
2. VERTICAL LOADS
"'
I RR
lbs
lbs
k-in
ft
k-in
*
*
*
*
EXPOSURE C
1.2 ( > 20')
outward
15.50 = 290.60
15.50 = 320.94
8.00 = 240.00
15.50 = 465.00
WIND
p/f . (0 -2Q I) ,
p/f . ( > 20 I) ,
p/f
p/f
290.60 320.94 p/f
20.0 10.5 ft l<-------><------->I
"' I RF
RR =
RF=
Mopng =
Mrnax@ x =
Mrnax =
5616
3566
262.44
12.27
262.53
"' I
RR
lbs
lbs
k-in
ft
k-in.
e = 3.500
Pl=
+ 4.000 = 7.500 inches
ROOF
WALL: P2 =
23.00 * 15.50 * 13.0 psf / 1000 = 4.635 k
18.23 * 15.50 * 0.667 * 0.150 kcf = 28.256 k
TOTAL =32.890 k
Slender Concrete Wall Design Per 1994 UBC 1914.8 /)} 2t{-
4t DESIGN SECTION: T = 8 IN x B = 96 IN
Lu= 25.500 !ft) F~ = 4.000 ksi) a = 5.313 in)
Concrete Type= Normal Fy = 60 (ksi)
b = 96.00 (in)
We = 150 (pcf) Ee= 3604 (ksi)
n = 8.05
Peal low> = 0.04 . F~ .Ag ........... = 122.880 (kips) ........ o.k.
Pb = 0.85A 2 .( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6. pb.b.d .......... = 8.724 (in2)
Steel Area, As= 2.2000 (in~) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : dCin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D +I.Ix l.3Eill2..
p1 = 4.635 lkipsl Pu 1 = 4.172 lkipsl P2 = 28.256 kips Pu 2 = 25.430 kips Pr = 32.891 kips Pu = 29.602 kips
M<lat> = 316.00 (in.kips) Mu = 451.880 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in) p = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b .••••••••••••.••••••.
c = a / 0. 85 ........................................ .
= 0.881
= 0.495 (in)
= 0.582 (in)
Icr = n.[ As.(d-c)A 2 + (Pu/Fy).(t/2 -c)A 2 ] + (be/3).cA3 = 584.407 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 779.719 (in.kips)
8n = Mn. LuA 2 I 9. 6 . E. Icr .......................... . = 3 .611 (in)
Mu (P.e) = Pu 1 .e/2 ..................................... = -15.643 (in.kips)
Mu (P.8) = [ Pu 1 + Pu 2 ] x 5 .................•......... = 106.888 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 543.12 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 699.97 (in.kips) .... o. k
Check Service Load Deflecti'oh : §Lim = Lu/150 = 2.04 (in)
beff = 96.00 (in)
M8 = M(lat) -P1 .e/2 + Pr.8lim ..................... =
M -5 F' A 112 be tA 2/6 · -er -· c · · · · · · · · · · · • • • • · · · • • • · • • • • • · • -Ser = Mer . LuA 2 I 9. 6 . E. Ig.; ........................ =
8s = 8er + [8n -8erJ x [Ms -Mcr]/[Mn'-Mer] ...... =
LOAD CASE SUMMARY
Load Case < 1 >
Load Case < 2 > Load Case < 3 > Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 X [ 1.4D + 1.1 X l.7E(IN) ]
U = 0.9D + 1.1 x 1.3E(~)
U = 0.75 x [ 1.4D + l.1 x l.7Ecaun ]
U = 0. 9D + 1. 1 x 1. 3 Ecaun
365.72 (in.kips)
323.82 (in.kips~
0.21 (in)
0.53 (in)
[Mu/ ,iMn]
= 0. 771 = 0.776 <=== = 0.753
= 0.747
. ' o.k.
-
-
********************************************************************* t-
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 Wl~·
*********************************************************************
P-l<a R
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 12.50 ft
Open'g Height, Lo= 12.50 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE C
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 ( 0-20 I) ; 1.2 ( > 2 0')
Cq = 1. 2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 12.50 = 234.36 p/f . (0 -20') I
Ww2 = 14.5 * 1.2 * 1.2 * 12.50 = 258.83 p/f . ( > 2 0') I
SEISMIC: Ws = 0. 30 * w
ZONE-4 Wsl = 0.30 *100.00 * 5.00 = 150.00 p/f
Ws2 = 0.30 *100.00 * 12.50 = 375.00 p/f
SEISMIC WIND
W = 150.00 375.00 p/f 234.36 258.83 p/f
L = 12.5 13.0 5.0 ft 20.0 10.5 ft l<---->l<---->l<--->I !<-------><------->!
/\ A A A
1--> X I I I RF RR RF RR
RR = 6151 lbs RR = 4529 lbs
RF = 2474 lbs RF = 2876 lbs
Mopng =236.24 k-in Mopng = 211.64 k-in
Mmax @ X =14.0~8 ft Mmax @ X = 12.27 ft
Mmax = 23 6". 3 k-in Mmax ='2a.1.72 k-in
2.: VERTIC~L LOADS -------------------. '
e = 3.500 + 4.000 = 7.500 inches
ROOF: Pl=
WALL: P2 =
23.00 *.12.50 * 13.0 psf / 1000 = 3.738 k
18.23 * 12.50 * 0.667 * 0.150 kcf = 22.787 k
TOTAL =26.524 k
Slender Concrete Wall Design Per 1994 UBC 1914.8
-DESIGN SECTION: T = 8 IN x B = 60 IN
! :
Lu= 25.500 lft} F~ = 4.000 ksi) a = 5.313 in)
Concrete Type= Normal Fy = 60 ( ks i)
b = 60.00 (in)
We = 150 (pcf) Ee= 3604 (ksi) n = 8.05
Pcallow> = 0.04. F~.Ag ........... = 76.800 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)=· 0.6. pb.b.d .......... = 5.452 (in 2)
Steel Area, As= 1.7600 (in£) .... USE 4 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : dcin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.90 +I.Ix l.3E:illil..
P1 = 3.738 lkipsl Pu 1 = 3.364 lkipsl P2 = 22.787 kips PU2 = 20.508 kips
Pr = 26.525 kips Pu = 23.873 kips Mnat> = 236.30 (in.kips) Mu = 337.909 (in. ips)
e = 7.500 (in)
d = •••••••••••••••••••••..•••••••••••••••••••••••••••••• = 5.313 (in)
¢ = 0.9 -[2. Pu/F~.Ag] ............................ .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b .................... .
C = a/ 0.85 .........................................
= 0.875
= 0.635 (in)
= 0.747 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A 2 ] + (be/3).cA3 = 442.478 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 615.457 (in.kips)
8n = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.764 (in)
Mu (P.e) = Pu 1 .e/2 ..................................... = -12.616 (in.kips)
Mu (P.S) = [ Pu 1 + Pu2 ] x S ........................... = 89.865 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 415.16 (in.kips)
¢Mn= ¢.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 549.58 (in.kips) .... o.k
Check Service Load Deflection : Sli; = Lu(l50 = 2.04 (in)
beff = 60.00 (in)
Ms = M(lat) -P1 .e/2 +Pr.Slim ..................... = 276.39 (in.kips)
Mer = 5. F~A 1f 2.be.tA 2/6· ......... ; ..... •.• ........... = 202.39 (in.kips)
Ser = Mer·LuA 2 / 9.6. E.Ig ..... : ...... : .. ~········· = 0.21 (in)
S5 : = 6er + [8n -Ser] x [Ms -Mcr]/[Mn -Mer] ...... = 0.85 (in) o.k.
LOAD CASE SUMMARY SEISMIC GOVERNS [Mu/ pMn]
Load Case <I>
Load Case < 2 > Load Case < 3 >
Load Case < 4 >
U = 0.75 x [ 1.4D + 1.1 x l.7E(IN) ] U = 0.90 + 1.1 X l.3EclN> U = 0. 7 5 x [ 1. 4D + 1. 1 x 1. 7 Ecaun ]
U = 0. 90 + 1. 1 x 1. 3 Ecoun
= 0.755
= 0.755 <=== = 0.740 = 0.730
-
-
-
\).J-l-7
"*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO: 96-126
*********************************************************************
l t:ir L
Wall Thickness, tw= 8.00 in
Clear Height, LU= 25.50 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 15.00 ft
Open'g Height, Lo= 9.00 ft
1. LATERAL LOADS
WIND: 75.0 mph WIND SPEED;
p = qs X Ce X Cq
qs = 14.5 psf
Ce = 1.1 (0-20');
Cq = 1.2 inward &
Wwl = 14.5 * 1.1 * 1. 2 *
Ww2 = 14.5 * 1.2 * 1.2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 *
Ws2 = 0.30 *100.00 *
SEISMIC
W = 150.00 450.00 p/f
L = 9.0 16.5 4.5 ft l<---->l<---->l<--->I
A A
1--> X I RF RR
RR = 7465 lbs
RF = 3335 lbs
Mopng =316.97 k-in
Mmax@ x =13.412 ft
Mmax =339.86 k:...in
2. VERTICAL LOADS
-------------r-----
EXPOSURE C
1.2 ( > 20')
outward
15.00 = 281. 23
15.00 = 310.59
5.00 = 150.00
15.00 = 450.00
WIND
p/f i (0 -2 0' )
p/f i ( > 20')
p/f
p/f
281.23 310.59 p/f
20.0 10.0 ft !<-------><------->!
A A
I I RF RR
RR = 5251 lbs
RF = 3480 lbs
Mopng = 239.14 k-in
Mmax@ x = 12.37 ft
Mmax = 258.34 k-in
e = 3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
ROOF
WALL
23.00 * 15.00 * 13.0 psf / 1000 = 4.485 k
17.63 * 15.00 * 0.667 * 0.150 kcf = 26.440 k
TOTAL =30.925 k
Slender Concrete Wall Design Per 1994 UBC 1914.8
-ESIGN SECTION : T=8 in X B=60 in
Lu = 25.500 (ft) Concrete Type = Normal
Fe = 4.000 (ksi) Fy = 60 (ksi)
d = 5.313 ( in) b = 60.00 ( in)
P(allow) = 0.04 . Fe.Ag ........... = 76.800 (kips)
0.02851 pb = o.85A2. ( Fe/Fy). [ 87/87+Fy J =
As (max) = 0.6 . pb.b.d .......... = 5.452 (in2)
We = 150 (pcf)
Ee = 3604 (ksi)
n = 8.05
........ o.k.
Steel Area, As= 2.2000 (in2) .... USE 5 -# 6 Bars Ea. Face
Clearance at Inside Face=
Arch. Reveal Depth ..... =
Effective Depth to Steel
1. 500 (in)
0. 750 (in)
d(in) =
at Outside Face= 1. 500 (in)
5.313 (in) d(out) = 6.063 (in)
LOAD CASE < 2 >
Pl= 4.485 (kips)
P2 = 26.440 (kips)
PT= 30.925 (kips)
U = 0.9D + 1.1 x 1.3E(IN)
Pul = 4.036 (kips)
Pu2 = 23.796 (kips)
Pu = 27.833 (kips)
M(lat) = 339.86 (in.kips) Mu = 486.000 (in.kips)
d =
-¢ =
a =
0.9 -[2. Pu/Fe.Ag] ............................ .
[ As . Fy + Pu ] / 0 . 8 5 . Fe . b .................... .
C = a / o. 85 ........................................ .
Icr =
e = 7.500 (in)
= 5.313 ( in)
= 0.871
= 0.783 (in)
= 0.922 ( in)
= 515.729 (in4)
Mn =
n. [ As. (d-c)A2 + (Pu/Fy). (t/2 ~ c)A2] + (be/3) .cA3
As . Fy . ( d -a/ 2 ) + Pu . ( t / 2 -a/ 2 ) . . . . . . . . . . . . . . . . .
Mn.LuA2 / 9.6 . E.Icr .......................... .
= 749.966 (in. kips
Sn = = 3.936 (in)
Mu (P.e) =
Mu (P.S) =
Pul. e/2 .................................... . = -15.137 (in.kips
[ Pul + Pu2 J x S .......................... . = 109.537 (in.kips
Total Factored Design Moment :
= 580.40 (in.kips) Mu T = Mu + Mu' ( P . e) + Mu ( P . S)
¢Mn=; ¢.A~.Fy. (d -a/2) + Pu. (t/2 a/~) 666.18 (in.kips) .... o.k .
Check Service Load Deflection Slim= Lu/150 = 2.04 (in)
beff
Ms
Mer
Ser
es
LOAD
.ad ad
Load
Load
=
=
=
=
= 48. 00 ( in)
M(lat) -Pl.e/2 +PT.Slim •.................... =
5. FeAl/2 .be. tA2/6 ........................... =
Mer. Lu""2 / 9. 6 . E. Ig . . . . . . . . . . . . . . . . . . . . . . . . =
Ser + [Sn -Ser] x [Ms -Mer]/ [Mn -Mer] . . . . . . =
CASE SUMMARY SEISMIC GOVERNS
Case < 1 > u = 0.75 X [ 1.4D + 1.1 x 1.7E(IN)
Case < 2 > u = 0.9D + 1.1 x 1.3E(IN)
Case < 3 > u = 0.75 X [ 1.4D + 1.1 x 1.7E(OUT)
Case < 4 > u = 0.9D + 1 . 1 x 1 . 3 E (OUT)
]
]
386.13 (in.kips)
161. 91 (in.kips)
0. 21 (in)
1.63 (in)
[ Mu / ¢Mn ]
= 0.869
= 0.871 <===
= 0.839
= 0.831
o.k
-
'vv-2--i
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO: 96-126
*********************************************************************
l~ ~
Wall Th_ickness, tw= 8.00 in
Clear Height, LU= 25.50 ft
Parapet Height, Lp= 4.50 ft
Lower Panel Leg = 6.75 ft
Upper Panel Leg = 16.75 ft
Open'g Height, Lo= 9.00 ft
1. LATERAL LOADS
WIND: 75.0 mph WIND SPEED;
p = qs X Ce X Cq
qs = 14.5 psf
Ce = 1.1 (0-20');
Cq = 1.2 inward &
Wwl = 14.5 * 1.1 * 1.2 *
Ww2 = 14.5 * 1.2 * 1. 2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 *
Ws2 = 0.30 *100.00 *
SEISMIC
W = 202.50 502.50 p/f
L = 9.0 16.5 4.5 ft l<---->l<---->l<--->I
A A
1--> X I RF RR
RR = 8391 lbs
RF = 3984 lbs
Mopng =363.96 k-in
Mmax@ x =13.301 ft
Mmax =387.61 k-in
2. VERTICAL LOADS'.
EXPOSURE C
1.2 ( > 20')
outward
16.75 = 314.04
16.75 = 346.83
6.75 = 202.50
16.75 = 502.50
WIND
p/f i (0 -2 0 I )
p/f i ( > 2 0 I )
p/f
p/f
314.04 346.83 p/f
20.0 10.0 ft !<-------><------->!
A A
I I RF RR
RR = 5863 lbs
RF = 3886 lbs
Mopng = 267.03 k-in
Mmax@ x = 12.37 ft
Mmax = 288.48 k-in
e = 3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
ROOF
WALL
23.00 * 16.75 * 13.0 psf / 1000 = 5.008 k
17.63 * 16.75 * 0.667 * 0.150 kcf = 29.525 k
TOTAL =34.533 k
: .
Slender Concrete Wall Design Per 1994 UBC 1914.8
.ESIGN SECTION : T=8 in X B=81 in
Lu = 25.500 (ft) Concrete Type = Normal
Fe = 4.000 (ksi) Fy = 60 (ksi)
d = 5.313 (in) b = 81. 00 (in)
P(allow) = 0.04 . Fe.Ag ........... = 103.680 (kips)
0.02851 pb = o.85A2. ( Fc/Fy). [ 87/87+Fy J =
As (max) = 0.6 pb.b.d .......... = 7.360 (in2)
We = 150 (pcf)
Ee = 3604 (ksi)
n = 8.05
........ o.k.
Steel Area, As= 2.2000 (in2) .... USE 5 -# 6 Bars Ea. Face
Clearance at Inside Face -
Arch. Reveal Depth ..... =
Effective Depth to Steel
1. 500 (in)
o. 750 (in)
d (in) =
at Outside Face= 1. 500 (in)
5.313 (in) d(out) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3E(IN)
Pl= 5.008 (kips)
P2 = 29.525 (kips)
PT= 34.533 (kips)
Pul = 4.507 (kips)
Pu2 = 26.572 (kips)
Pu = 31.080 (kips)
M(lat) = 387.61 (in.kips) Mu = 554.282 (in.kips)
e: =
=
a =
0.9 -(2 . Pu/Fe.Ag] ............................ .
[ As . Fy + Pu ] / 0 . 8 5 . Fe . b .................... .
C = a I o. 85 ........................................ .
Icr = n. [ As. (d-c) A2 + (Pu/Fy) . (t/2 -c) A2 ] + (be/3) . cA3
e = 7.500 (in)
= 5.313 (in)
= 0.876
= 0.592 (in)
= 0.697 (in)
= 564.309 (in4)
Mn = As.Fy. (d -a/2) + Pu. (t/2 -a/2) ................ . = 777.285 (in.kips
Sn = Mn.LuA2 / 9.6 . E.Icr .......................... . = 3.728 ( in)
Mu (P.e) = Pul.e/2 .................................... . = -16.902 (in.kips
Mu ( P . S) = [ Pul + Pu2 ] x S .......................... . = 115.858 (in.kips
Total Factored Desigp Moment :
MuT = Mu + Mu(P.e) + Mu(P.S)
¢Mn= ¢.As.Fy. (d.--: a/2) + Pu. (t/2 a/2) =
653.24 (in.kips)
695.19 (in.kips')
I I
Check Service Load Deflection ' : Slim= Lu/150 = 2.04 (in)
beff
Ms =
Mer =
Ser =
Ss =
LOAD
= 81. 00 (in)
M(lat) -Pl.e/2 +PT.Slim~ .................... =
5. FcAl/2. be. tA2/6 ........................... =
Mcr.LuA2 / 9.6 . E.Ig ........................ =
Ser + [Sn -Ser] x [Ms -Mer]/ [Mn -Mer] . . . . . . =
CASE SUMMARY SEISMIC GOVERNS
Case < 1 > u = 0.75 X [ 1.4D + 1.1 x 1.7E(IN) ]
439.28 (in.kips)
27,3.22 (in.kips)
O. 21 ( in)
1. 37 (in)
[ Mu / ¢Mn J
= 0.931
o.k
o.k
.ad ad Case < 2 > u = 0.9D + 1. 1 x 1. 3E ( IN) = 0.940 <===
Load Case < 3 > u = 0.75 X [ 1.4D + 1.1 x 1.7E(OUT) = 0.901
Load Case < 4 > u = 0.9D + 1 . 1 x 1 . 3 E (OUT) = 0.898
-
-
********************************************************************* 7 (
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 )//7
*********************************************************************
Wall Thickness,
Clear Height,
Parapet Height,
Lower Panel Leg
Upper Panel Leg
Open'g Height,
P-ZO L ·
8.00 in
25.50 ft
5.00 ft
4.00 ft
= 12.QO ft
9.00 ft
tw=
Lu=
Lp=
=
Lo=
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED;
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20');
Cq = 1. 2 inward &
Wwl = 14.5 * 1.1 * 1.2 *
Ww2 = 14.5 * 1.2 * 1. 2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 *
Ws2 = 0.30 *100.00 *
SEISMIC
W = 120.00 360.00 p/f
L = 9.0 16.5 5.0 ft l<---->l<---->l<--->I
,,..._ ,,..._
,--> X I RF RR
RR = 6185 lbs
RF = 2635 lbs
Mopng =249.35 k-in
Mmax @ X =13.319 ft
: Mmax = 266.5 k-in
2. VERTICAL LOADS
--------------
EXPOSURE C
1.2 ( > 20 I)
outward
12.00 = 224.98 p/f . (0 -20 I) I
12.00 = 248.47 p/f . ( > 20 I) I
4.00 = 120.00 p/f
12.00 = 360.00 p/f
WIND
224.98 248.47 p/f
20.0 10.5 ft !<-------><------->!
,,..._ ,,..._
I I RF RR
RR = 4348 lbs
RF = 2761 lbs
Mopng = 188.81 k-in
Mmax @ X = 12.27 ft
Mmax = 203.25 k-in
e = 3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
ROOF
WALL
23.00 * 12.00 * 13.0 psf / 1000 = 3.588 k
18.23 * 12.00 * 0.667 * 0.150 kcf = 21.875 k
TOTAL =25.463 k
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 48 IN
Lu= 25.500 lft) F~ = 4.000 ksi)
a = 5.313 in)
Concrete TyP.e = Normal Fy = 60 ( ks i)
b = 48.00 (in)
We= 150 (pcf) Ee= 3604 (ksi) n = 8.05
Pcallow) = 0.04. F~.Ag ........... = 61.440 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0. 6 . Pb. b. d .......... = 4. 362 (in 2)
Steel Area, As= 1.7600 (in£) .... USE 4 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : dcin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3E:W:!2..
p1 = 3.588 Jkipsl Pu1 = 3.229 lkipsl P2 = 21.875 kips Pu2 = 19.688 kips Pr = 25.463 kips Pu = 22.917 kips
Mnat> = 266. 0 (in.kips) Mu = 381.095 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in) p = 0.9 -[2. Pu/F~.Ag] ............................ .
a= [ As.Fy +Pu]/ 0.85. F~.b .................... .
C = a / 0. 85 ........................................ .
= 0.870
= 0.787 (in)
= 0.926 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 415.410 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 602.117 (in.kips)
Ein = Mn. Lu A 2 / 9. 6 . E. I er .......................... . = 3.923 (in)
Mu ( P. e) = Pu 1 • e/2 .................................... . = -12.109 (in.kips)
Mu ( P. S) = [ Pu, + Pu2 ] X S .......................... . = 89.897 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.S)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2)
= 458.88 (in.kips)
= 534.67 (in.kips) o.k
Check Service Load Deflectibn :
beff = 48.00 _(in)
8lim = Lu/150 ·= 2.04 (in)
M5 = M(lat) -P1 .e/2 +Pr.Slim ..................... =
M -5 F'A 1/2 be·tA 2/6 -er -· c · "!. • • • • • • • • • • • • • • • • • • • • • • • • • • • -Ser = Mer . Lu A 2 / 9. 6 . E. I g ' . . . . . . . . . . . . . . . . . . . . . . . . =
S5 = Ser + [8n -Ber] x [Ms -Mcr]/[Mn -Mer] ...... =
LOAD CASE SUMMARY SEISMIC GOVERNS
Load Case < 1 >
Load Case < 2 > Load Case < 3 >
Load Case < 4 >
U = 0.75 X [ 1.4D + 1.1 X l.7E<IN> ] U = 0.9D + 1.1 x l.3Ecw> U = 0. 75 x [ 1. 4D + l. l x 1. 7E,oun ] U = 0. 9D + 1. 1 x 1. 3 E,oun
304.99 (in.kips)
161~91 (in.kips)
0.21 (in) ·j
1.42 (in)
[Mu/ pMn]
= 0.856
= 0.858 <===
= 0.829
= 0.820
o. k.
-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126
*********************************************************************
P-2 f. L
Wall Thickness, tw= 8.00 in
Cl,ear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 15.00 ft
Open'g Height, Lo= 7.00 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED;
p = Ce X Cg X gs
gs = 14.5 psf
Ce = 1.1 (0-20');
Cg = 1.2 inward
Wwl = 14.5 * 1.1 * 1.2
Ww2 = 14.5 * 1. 2 * 1.2
SEISMIC: Ws = 0.30 * w
ZONE-4 Ws1 = 0.30 *100.00
Ws2 = 0. 30 *100.00
SEISMIC
W = 150.00 450.00 p/f
L = 7.0 18.5 5.0 ft l<---->l<---->l<--->I
/\
1--> X
RF
RR = 7920
RF = 3705
Mopng =308.85
Mmax @ X =12.900
Mma~ = 361.1
2. VERTICAL LOADS ~-------.----------
e = 3.500
ROOF: Pl=
WALL: P2 =
/\
I
RR
lbs
lbs
k-in
ft
k-in
+
23.00
18.23
4.000
* 15.00
* 15.00
&
*
*
*
*
=
*
*
EXPOSURE C
1.2 ( > 2 0 I)
outward
15.00 = 281.23 p/f . (0 -20 I) I
15.00 = 310.59 p/f ; ( > 20 I)
5.00 = 150.00 p/f
15.00 = 450.00 p/f
WIND
281.23 310.59 p/f
20.0 10.5 ft !<-------><------->!
/\ /\
I I RF RR
RR = 5435 lbs
RF = 3451 lbs
Mopng = 207.19 k-in
Mmax @ X = 12.27 ft
Mmax ==254.06 k-in
7.500 inches
13.0 psf / 1000 , = 4.485 k
/~/
0.667 * o .150 kcf, = 27.344 k
TOTAL =31. 829 k
w?3
-
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN X B = 60 IN
Lu= 25.500 !ft} F~ = 4.000 ksi) a= 5.313 in)
Concrete TyRe = Normal Fy = 60 (ksi)
b = 60.00 (in)
We= 150 (pcf)
Ee= 3604 (ksi) n = 8.05
Peal low) = 0.04 . F~ .Ag ........... = 76.800 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0.6 . Pb .b.d .......... = 5.452 (in 2)
Steel Area, As= 2.2000 {inf) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : dCin> = 5.313 (in) dcout> = 6.063 (in)
LOAD CASE < 2 > U = 0.90 + 1.1 x l.3E:Lll:!.l.
P1 = 4.485 !kipsl Pu1 = 4.036 !kipsl P2 = 27 .344 kips PU2 = 24.610 kips Pr = 31.829 kips . Pu = 28.646 kips
Mnat) = 361.10 (in.kips) Mu = 516.373 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in) p = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a = [ As. Fy + Pu ] / 0. 85 . F ~ . b .................... .
C = a I o.85 .........................................
= 0.870
= 0.787 (in)
= 0.926 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A 2 ] + (be/3).cA3 = 519.262 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 752.648 (in.kips)
8n = Mn.LuA 2 / 9.6. E.Icr .......................... . = 3.923 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -15.137 (in.kips)
Mu (P.8) = [ Pu1 + Pu 2 ] x 8 ........................... = 112.372 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 613.61 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 668.34 (in.kips) .... o.k
Check Service Load Deflection : Slim = Lu/150 = 2.04 (in)
beff = 60.00 {in)
Ms = M(lat) -P1 .e/2 +Pr.Slim ..................... = 409.21 (in.kips)
Mer = 5. f~A1/2.be.tA2/6 ........................... = 202.39 (in!kips)
8cr = Mcr·LuA 2 / 9.6 .. E.Ig . .'._._ .................... = 0.21 (in}
8s = 6cr + [6n -6cr1 x [Ms -Mcr]/[Mn -Mc,r] ...... = 1.61 (in) o.k.
LOAD CASE SUMMARY: SEISMIC GOVERNS
Load Case < 1 >
Load Case < 2 >
Load Case < 3 > Load Case < 4 >
U = 0.75 X [ 1.40 + 1.1 X 1.7ECIN> ] u = 0.90 + 1.1 x l.3Ecun U = 0. 75 x [ 1. 4D + l.1 x 1. ?Ecoun ]
U = 0. 9D + 1. 1 x 1. 3 Ecoun
[Mu/ ¢Mn]
= 0.914
= 0.918 <===
= 0.880
= 0.873
-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 W~r
*********************************************************************
P-2G M
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 7.83 ft
Upper Panel Leg = 14.33 ft
Open'g Height, Lo= 7.00 ft
1. LATERAL LOADS -------------------WIND: 70. o mph WIND SPEED;
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20');
Cq = 1.2 inward
Wwl = 14.5 * 1.1 * 1.2
Ww2 = 14.5 * 1.2 * 1.2
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00
Ws2 = 0.30 *100.00
SEISMIC
W = 234.99 429.90 p/f
L = 7.0 18.5 5.0 ft l<---->l<---->l<--->I
1--> X
RF
RR = 7654
RF = 4093
Mopng =313.03
Mmax @ X =12.695
Mmax = 358.4
2. VERTICAL LOADS
I RR
lbs
lbs
k-in
f:t
k-in
&
*
*
*
*
EXPOSURE C
1.2 ( > 20 I)
outward
14.33 = 268.67 p/f . (0 -20 I) I
14.33 = 296.72 p/f . ( > 20 I) I
7.83 = 234.99 p/f
14.33 = 429.90 p/f
WIND
268.67 296.72 p/f
20.0 10.5 ft !<-------><------->!
I I RF RR
RR= 5192 lbs
RF= 3297 lbs
Mopng = 197.93 k-in
Mmax@ x = 12.27 ft
Mmax = 242.7i· k-in
e = 3.500 + 4.000 = 7.500 inches
ROOF: Pl=
WALL P2 =
23.00 *.14.33 * 13.0 psf / 1000 = 4.285 k
18.23 * 14.33 * 0.667 * 0.150 kc! = 26.123 k
TOTAL =30.407 k
-
·e
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 94 IN
Lu= 25.500 !ft} F~ = 4.000 ksi) a= 5.313 in)
Concrete TyP.e = Normal Fy = 60 (ks i)
b = 94.00 (in)
We = 150 (pcf) Ee = 3604 ( ks i) n = 8.05
P,attow) = 0.04 . F~ .Ag ........... = 120.320 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0.6 . Pb .b.d .......... = 8.542 (in 2)
Steel Area, As= 2.2000 (in2) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : d<in) = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3Eil!il..
p1 = 4.285 !kipsl Pu1 = 3.856 lkipsl e = 7.500 (in)
P2 = 26.123 kips Pu2 = 23.511 kips
Pr = 30.408 kips Pu = 27.367 kips
Mnat) = 358.40 (in.kips) Mu = 512.512 (in. ips)
d = • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • =
,rl = 0.9 -[2. Pu/F~.Ag] ............................. =
a= [ As.Fy +Pu]/ 0.85 . F~.b ..................... =
5.313 (in)
0.882
0.499 (in)
O. 587 (in) C = a / 0. 85 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . =
= 579.996 (in4)
771.051 (in.kips)
3.598 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................. =
8n = Mn.LuA 2 / 9.6 . E.Icr ........................... =
Mu (P.e) = Pu1 .e/2 ..................................... = -14.462-'(in.kips)
Mu (P.8) = [ Pu, + PU2 ] x 8 ··························· = 98.463 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 596.51 (in.kips)
,rlMn = ,rl.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 692.05 (in.kips) .... o. k
Check Service Load Deflection : 8lim = Lu/150 = 2.04 (in)
beff = 94.00 (in)
M5 = M(lat) -P1 .e/2 + Pr .8lim ... · .................. =
Mer= 5. F~A 112 .be.tA 2/6 ................ , ........... =
Ber = Mer . Lu A 2 / 9. 6 . E. lg .. : ......... ! . . . . . . . . . . . =
85 = §er,+ [8n -§er] x [Ms -Mcr]/[Mn -Mer] ~ .. ',.. =
LOAD CASE SUMMARY
Load Case < 1 >
Load Case < 2 > Load Case < 3 >
Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 X [ 1.40 + 1.1 X 1.7E<IN) ]
U = 0.90 +I.Ix l.3E,~, U = 0. 7 5 x [ 1. 4D + 1. 1 x 1. 7 Ecoun ]
U = 0.9D + 1.1 x l.3Ecoun
404.36 (in.kips)
317.07 (in.kips)
0.21 (in)°
0.86 (in)
[Mu/ ,rlMn]
= 0.853 = 0.862 <=== = 0.820 = 0.819
o.k.
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 (;..Jf7
*********************************************************************
-P-2.7 L Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 8.17 ft
Upper Panel Leg = 17.17 ft
Open'g Height, Lo= 10.00 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE . C .
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 ( 0-2 0 I) ; 1.2 ( > 20 I)
Cq = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 17.17 = 321.91 p/f . (0 -20') ,
Ww2 = 14.5 * 1.2 * 1.2 * 17.17 = 355.52 p/f . ( > 2 0') I
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 8.17 = 245.10 p/f
Ws2 = 0.30 *100.00 * 17.17 = 515.10 p/f
SEISMIC WIND
W = 245.10 515.10 p/f 321.91 355.52 p/f
L = 10.0 15.5 5.0 ft 20.0 10.5 ft l<---->l<---->l<--->I !<-------><------->!
/\ /\ /\ /\
,--> X I I I RF RR RF RR
RR = 8866 lbs RR = 6221 lbs
RF = 4144 lbs RF = 3950 lbs
Mopng =373.80 k-in Mopng = 280.86 k-in
Mmax @ X =13.288 ft Mmax @ X = 12.27 ft
Mmax = 383.7 k-in : . Mmax = 290.81 k-in
2. VERTICAL LOADS ------------------~
e = 3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
ROOF
WALL
23.00 * .17.17 * 13.0 psf / 1000 = 5.134 k
18.23 * 17.17 * 0.667 * 0.150 kcf = 31.300 k
TOTAL =36.434 k
-
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 98 IN
Lu= 25.5001ft} F~ = 4.000 ksi) a= 5.313 in)
Concrete TyP.e = Normal Fy = 60 (ksi)
b = 98.00 (in)
Pcallow) = 0.04 • F~ .Ag ........... =
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] =
As (max) = 0.6 . pb.b.d .......... =
125.440 (kips)
0.02851
8.906 (in2)
We = 150 (pcf) Ee= 3604 (ksi)
n = 8.05
........ 0. k.
Steel Area, As= 2.2000 (in~) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : dcin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.90 +I.Ix l.3Eilll.
p1 = 5.134 Jkipsl Pu 1 = 4.621 1kipsl P2 = 31.300 kips Pu2 = 28.170 kips Pr = 36.434 kips Pu = 32.791 kips
Mnat> = 383. 0 (in.kips) Mu = 548.691 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in)
p = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a= [ As.Fy +Pu]/ 0.85 . F~ .b .................... .
c = a / 0. 85 ........................................ .
= 0.879
= 0.495 (in)
= 0.582 (in)
Icr = n.[ As.(d-c)A2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 589.653 (in 4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 791.728 (in.kips)
8n = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.634 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -17.327 (in.kips)
Mu (P.6) = [ Pu1 + Pu2 ] x 6 ........................... = 119.156 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.6) = 650.52 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 710.88 (in.kips) .... o.k
Check Service Load Deflection : · Slim = Lu/150 =' ·2.04 (in)
beff = 98.00 (in)
M5 = M(lat) -P1 .e/2 + Pr .8Lim ..................... = 438.77 (in.kips)
Mer =; 5. F~A1/2.be.tA2/6 ........................... ·= .. 330.56 (in.kips)
Ser = Mer .LuA,2 / 9.6 . E.Ig ................ ' ........ =' 0.21 (in)
85 = 8er + [Sn -Ser] x [Ms -Mcr]/[Mn -Mer] ...... = 1.02 (in') o.k.
LOAD CASE SUMMARY SEISMIC GOVERNS [Mu/ pMn]
Load Case < I > U = 0.75 X [ 1.4D + 1.1 X I. 7E(IN) ] = 0.906
Load Case < 2 > U = 0.90 + 1.1 X l.3Ec~> = 0.915 <===
Load Case < 3 > U = 0.75 X [ 1.4D + 1. X I. 7Ecoun ] = 0.880
Load Case < 4 > U = 0.90 + 1.1 x l.3Ecoun = 0. 877
-
: .
-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 L....J ?9
*********************************************************************
Wall Thickness,
Clear Height,
Parapet Height,
Lower Panel Leg
Upper Panel Leg
Open'g Height,
tw=
Lu=
Lp=
=
P-27 R
8.00
25.50
5.00
7.33
= 18.33
in
ft
ft
ft
ft
ft Lo= 10.00
1. LATERAL LOADS
WIND: 70.0
p =
mph
Ce X
WIND
Cq X
SPEED;
qs
qs =
Ce =
Cq =
14.5
1.1
1.2
psf
(0-20');
inward &
Wwl = 14.5 * 1.1 * 1.2 *
Ww2 = 14.5 * 1. 2 * 1.2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 *
Ws2 = 0.30 *100.00 *
SEISMIC
W = 219.90 549.90 p/f
L = 10.0 15.5 5.0 ft l<---->l<---->l<--->I
/\ /\
1--> X I RF RR
RR = 9383 lbs
RF = 4089 lbs
Mopng =385.30 k-in
Mmax @ X =13.436 ft
Mmax = 397.7 k-in
2. VERTICAL LOADS
EXPOSURE C
1.2 ( > 20')
outward
18.33 = 343.66
18.33 = 379.54
7.33 = 219.90
18.33 = 549.90
WIND
p/f . I (O -20 I)
p/f i ( > 2 0 I)
p/f
p/f
343.66 379.54 p/f
20.0 10.5 ft !<-------><------->!
/\ /\
I I RF RR
RR = 6641 lbs
RF = 4217 lbs
Mopng = 299.83 k-in
Mmax @ X = 12.27 ft
Mmax = 3-10. 46 k-in
e = 3.500
Pl=
+ 4.000 = 7.500 inches
ROOF
WALL: P2 =
23.00 *-18.33 * 13.0 psf / 1000 = 5.481 k
18.23 * 18.33 * 0.667 * 0.150 kc( = 33.415 k
TOTAL =38.895 k
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 84 IN
Lu= 25.500 !ft) F~ = 4.000 ksi) a= 5.313 in)
Concrete Type= Normal
Fy = 60 ( ks i) b = 84.00 (in)
We = 150 (pcf)
Ee= 3604 (ksi)
n = 8.05
P(allow) = 0.04 . F~ .Ag ........... = 107.520 (kips)
0.02851
........ o. k.
Pb = 0.85A 2 .( F~/Fy ).[ 87/87+Fy] =
As (max) = 0.6 . pb.b.d .......... = 7.633 (in2)
Steel Area, As= 2.2000 (in2) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = o~750 (in)
Effective Depth to Steel : dCin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.90 +I.Ix l.3Eilfil..
p1 = 5.481 Jkipsl Pu 1 = 4.933 !kipsl P2 = 33.415 kips Pu 2 = 30.073 kips Pr = 38.896 kips Pu = 35.006 kips Mnat> = 397. 0 (in.kips) Mu = 568.711 (in. ips)
e = 7.500 (in)
d = •.•••.•.•......•.....•.••.••.•••••.•••.••••...•.•••.. = 5.313 (in)
¢ = 0.9 -[2. Pu/F~.Ag] ........................... ..
a = [ As . F y + Pu ] / O . 85 . F ~ . b .................... .
C = a / 0. 85 ........................................ .
= 0.874
= 0.585 (in)
= 0.688 (in)
Icr = n.[ As.(d-c)A 2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 572.064 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 792.513 (in.kips)
Bn = Mn.LuA 2 / 9.6 . E.Icr .......................... . = 3.749 (in)
Mu (P.e) = Pu1 .e/2 ..........•.......................... = -18.498 (in.kips)
Mu (P.8) = [ Pu 1 + Pu2 ] x B ••••••••••••••••••••••••••• = 131.249 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu{P.6) = 681.46 (in.kips)
¢Mn= ¢.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 708.98 (in.kips) .... o.k
Check Service Load Deflection :
beff = 84. 00 (in)
Bum = Lu/150 = 2.04 {in)
M5 = M(lat) -P1 .e/2 +Pr.Slim ..................... =
Mer= 5. f~A 1(2.be.tA2/6 ............................ =
Ber = ;Mer. LuA 2 /; 9.6 . E. lg ...................... · .. =
65 = Ber + [B0 -Ber] X [M~ -Mcr]/[Mn -Mer] ...... =
LOAD CASE SUMMARY SEISMIC GOVERNS
Load Case <I>
Load Case < 2 > Load Case < 3 > Load Case < 4 >
U = 0.75 x [ 1.40 + I.I x 1.7E(IN) ]
U = 0.9D + 1.1 x 1.3Ecw> U = 0.75 x [ 1.40 + l.1 x l.7Ecoun ]
U = 0.90 + 1.1 x 1.3Ecoun
456.49 {in.kips)
283~34 (in.kips)
0:21 {in-)'
1.42 (in) · .... o.k.
[Mu/ ,t,Mn]
= 0.953 = 0.961 <===
= 0.929
= 0.924
-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO: 96-126
********************************************************************* 28 L
Wall Thickness, tw= 8.00 in
Clear Height, LU= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 3.00 ft
Upper Panel Leg = 10.50 ft
Open'g Height, Lo= 9.00 ft
1. LATERAL LOADS
WIND: 75.0 mph WIND SPEED;
p = qs X Ce x Cq
qs = 14.5 psf
Ce = 1.1 (0-20');
Cq = 1.2 inward &
Wwl = 14.5 * 1.1 * 1.2 *
Ww2 = 14.5 * 1.2 * 1.2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 *
Ws2 = 0.30 *100.00 *
SEISMIC
W = 90.00 315.00 p/f
L = 9.0 16.5 5.0 ft l<---->l<---->l<--->I
A A
1--> X I RF RR
RR = 5388 lbs
RF = 2194 lbs
Mopng =213.90 k-in
Mmax@ x =13.394 ft
Mmax =229.73 k-in
EXPOSURE C
1.2 ( > 20')
outward
10.50 = 196.86
10.50 = 217.41
3.00 = 90.00
10.50 = 315.00
WIND
p/f ; (0 -20 I)
p/f ( > 20 I)
p/f
p/f
196.86 217.41 p/f
20.0 10.5 ft l<-------><------->I
A A
I I RF RR
RR = 3804 lbs
RF = 2416 lbs
Mopng = 165.21 k-in
Mmax@ x = 12.27 ft
: . Mmax = 177.84 k-in
2. VERTICAL LOADS
' -------------------
e =
ROOF
WALL
3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
23.00 * 10.50 * 13.0 psf / 1000 = 3.140 k
18.23 * 10.50 * 0.667 * 0.150 kcf = 19.141 k
TOTAL =22.280 k
\J.1~4-(
Slender Concrete Wall Design Per 1994 UBC 1914.8
~SIGN SECTION : T=8 in X B=36 in
Lu = 25.500 (ft) Concrete Type = Normal
Ft = 4.000 (ksi) Fy = 60 (ksi)
d = 5.313 (in) b = 36.00 (in)
P(allow) = 0.04 . Fe.Ag ........... = 46.080 (kips)
0.02851 pb = o.85A2. ( Fc/Fy). [ 87/87+Fy J =
As (max) = 0.6 pb.b.d .......... = 3.271 (in2)
We = 150 (pcf)
Ee = 3604 (ksi)
n = 8.05
........ o.k.
Steel Area, As= 1.3200 (in2) .... USE 3 -# 6 Bars Ea. Face
Clearance at Inside Face=
Arch. Reveal Depth ..... =
Effective Depth to Steel
1. 500 (in)
O. 750 (in)
d(in) =
at Outside Face= 1.500 (in)
5.313 (in) d(out) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3E(IN)
Pl= 3.140 (kips)
P2 = 19.141 (kips)
PT= 22.281 (kips)
Pul = 2.826 (kips)
Pu2 = 17.227 (kips)
Pu = 20.053 (kips)
M(lat) = 229.73 (in.kips) Mu = 328.514 (in.kips)
d = e: =
=
0. 9 -[2 . Pu/Fe .Ag] ............................ .
[ As. Fy + Pu ] / 0. 85 . Fe. b .................... .
C = a I o. 85 ........................................ .
Icr = n. [ As. (d-c)A2 + (Pu/Fy). (t/2 -c)A2] + (be/3) .cA3
e = 7.500 (in)
= 5.313 (in)
= 0.865
= 0.811 (in)
= 0.954 (in)
= 321. 242 (in4)
Mn = As.Fy. (d -a/2) + Pu. (t/2 -a/2) ................ . = 460.720 (in.kips
Sn = Mn.LuA2 / 9.6 . E.Icr .......................... . = 3.881 (in)
Mu (P.e) = Pul.e/2 .................................... . = -10.597 (in.kips
Mu ( P . S) = [ Pul + Pu2 ] x S .......................... . = 77.834 (in.kips
Total Factored Design Moment :
MuT = Mu + Mu(P.e) + Mu(P.S)
¢Mn= ¢.As.Fy. (d -'. a/2) + :Pu. (t(2 a/2)
=
=
395.75 (in.kips)
408.33 (in.kips) .... . ;
Check Service Load Deflection Slim= Lu/150 = 2.04 (in)
beff = 66. 00 ( in)
Ms =
Mer =
M(lat) -Pl.e/2 +PT.Slim ..................... =
5. FcAl/2. be. t"'2/6 ...... · ..................... =
Ser = Mcr.Lu"'2 / 9.6 . E.Ig ......................... =
Ss = Ser + [Sn -Ser] x [Ms -Mer]/ [Mn -Mer] . . . . . . =
LOAD CASE SUMMARY SEISMIC GOVERNS
Case < 1 > u = 0.75 X [ 1.4D + 1.1 x 1.7E(IN) ]
263.41 (in.kips)
222.62 (in.kips)
·0.21 (in)
0. 84 ( in)
[ Mu / ¢Mn
= 0.965
o.k
o.k
.ad ad Case < 2 > u = 0.9D + 1.1 x 1.3E(IN) = 0.969 <===
Load Case < 3 > u = 0.75 X [ 1.4D + 1.1 x 1.7E(OUT) ] = 0.937
Load Case < 4 > u = 0.9D + 1.1 x 1. 3E (OUT) = 0.929
-
-
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB N0:96-126 (ulf.-3
*********************************************************************
P-28 R
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 15.00 ft
Open'g Height, Lo= 7.00 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE C
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 ( 0-20 I) i 1.2 ( > 20 I)
Cq = 1. 2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 15.00 = 281.23 p/f . (O -20 1 ) I
Ww2 = 14.5 * 1.2 * 1.2 * 15.00 = 310.59 p/f . ( > 2 0 I) I
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * 5.00 = 150.00 p/f
Ws2 = 0.30 *100.00 * 15.00 = 450.00 p/f
SEISMIC WIND
W = 150.00 450.00 p/f 281.23 310.59 p/f
L = 7.0 18.5 5.0 ft 20.0 10.5 ft l<---->l<---->l<--->I !<-------><------->!
A A A A
,--> X I I I RF RR RF RR
RR = 7920 lbs RR = 5435 lbs
RF = 3705 lbs RF = 3451 lbs
Mopng =308.85 k-in Mopng = 207.19 k-in
Mmax @ X =12.900 ft Mmax @ X = 12,. 27 ft
Mmax ='•361.1 k-in Mmax = 254 ·. 06 k-in
2 . .VERTICAL LOADS
----J-------. i ------
e = 3.500 + 4.000 = 7.500 inches
ROOF: Pl=
WALL P2 =
23.00 *.15.00 * 13.0 psf / 1000 = 4.485 k
18.23 * 15.00 * 0.667 * 0.150 kcf = 27.344 k
TOTAL =31. 829 k
-
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 60 IN
Lu= 25.500 lft) F~ = 4.000 ksi) a= 5.313 in)
Concrete TyP.e = Normal Fy = 60 ( ksi) b = 60.00 (in)
We= 150 (pcf)
Ee= 3604 (ksi) n = 8.05
P(allow) = 0.04 . F~ .Ag ........... = 76.800 (kips)
0.02851
........ o.k.
Pb = 0.85AZ.( F~/Fy ).[ 87/87+Fy] =
As (max) = 0.6 . pb.b.d .......... = 5.452 (inZ)
Steel Area, As= 2.2000 (ini) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : dCin> = 5.313 (in) d(out) = 6.063 (in)
LOAD CASE < 2 > _ U = 0.9D + 1.1 x 1.3Eill2...
P1 = 4.485 lkipsl PU1 = 4.036 lkipsl Pz = 27 .344 kips Puz = 24.610 kips Pr = 31.829 kips Pu = 28.646 kips
Mnat> = 361.10 (in.kips) Mu = 516.373 (in. ips)
e = 7.500 (in)
d = •••••••••••••••••••••••••••••••••••••••••.••••••••••• = 5.313 (in) p = 0. 9 -[2 . Pu/F~ .Ag] ............................ .
a= [ As.Fy + Pu ] / 0.85 . F~ .b ................... ..
c = a / 0. 85 ........................................ .
= 0.870
= 0.787 (in)
= 0.926 (in)
!er= n.[ As.(d-c)AZ + (Pu/Fy).(t/2 -c)AZ] + (be/3).cA3 = 519.262 (in4)
'11. '..u ..... (
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 752.648 (in.kips)
8n = Mn.LuAZ / 9.6. E.Icr .......................... . = 3.923 (in)
Mu (P.e) = Pu 1 .e/2 ..................................... = -15.137 (in.kips)
Mu (P.6) = [ PU1 + Puz ] x 8 ........................... = 112.372 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 613.61 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 668.34 (in.kips) .... o.k
Check Service Load Deflection : '',8Lim = Lu/150 = 2.04 (in)
' beff = 60. 00 (in)
M5 = M(lat) -P1 .e/2 + Pr .6lim ..................... = 409.21 (in.kips)
Mer = 5. F~A1/Z.be.tA2/6 .......... · ................. = 202'.39 (in.kips)
6er = Mer .LuAZ / 9.6 . E.Ig ........ ! ............... = 0.21 (in)
85 = 8er + [8n -8er] x [Ms -Mcr]/[Mn -Mer] .. , .... = 1.61 (in) o.k.
LOAD CASE SUMMARY
Load Case < 1 >
Load Case < 2 >
Load Case < 3 > Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 x [ 1.4D + 1.1 x l.7E(IN) ]
U = 0.9D + 1.1 x l.3Ec~>
U = 0. 75 x [ I. 4D + l. l x I. 7E(OUT) ]
U = O. 90 + 1. I x l . 3 Ecoun
[Mu/ pMn]
= 0.914
= 0.918 <===
= 0.880 = 0.873
-
-
* *** * ** ** * * * *** * *** * * * * ********* * **** * * * * * * * * * * ** ** * * * ************* ** -·; r-CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 ~-U --:>
********************************************************************* P-31 L
Wall Thickness, tw= 8.00 in
Clear Height, Lu= 25.50 ft
Parapet Height, Lp= 5.00 ft
Lower Panel Leg = 5.00 ft
Upper Panel Leg = 15.00 ft
Open'g Height, Lo= 9.00 ft
1. LATERAL LOADS -------------------WIND: 70.0 mph WIND SPEED; EXPOSURE C
p = Ce X Cq X qs
qs = 14.5 psf
Ce = 1.1 (0-20'); 1.2 ( > 20 I)
Cq = 1.2 inward & outward
Wwl = 14.5 * 1.1 * 1.2 * 15.00 = 281.23 p/f . (0 -20 I) I
Ww2 = 14.5 * 1.2 * 1.2 * 15.00 = 310.59 p/f . ( > 20 I) I
SEISMIC: Ws = 0.30 * w ZONE-4 Wsl = 0.30 *100.00 * 5.00 = 150.00 p/f
Ws2 = 0.30 *100.00 * 15.00 = 450.00 p/f
SEISMIC WIND
W = 150.00 450.00 p/f 281.23 310.59 p/f
L = 9.0 16.5 5.0 ft 20.0 10.5 ft l<---->l<---->l<--->I !<-------><------->!
I'\ I'\ I'\
,--> X I I I RF RR RF RR
RR = 7732 lbs RR = 5435 lbs
RF = 3293 lbs RF = 3451 lbs
Mopng =311.69 k-in Mopng = 236.01 k-in
Mmax @ X =13.319 ft
Mmax = 333.1 k-in
Mmax @ X = 12.27 ft
Mmax = 254.06 k~:i:n
2 . VERT I CAL LOADS
e = 3.500
Pl=
P2 =
+ 4.000 = 7.500 inches
ROOF
WALL
23.00 *-15.00 * 13.0 psf / 1000 = 4.485 k
18.23 * 15.00 * 0.667 * 0.150 kci = 27.344 k
TOTAL =31. 829 k
-
-
Slender Concrete Wall Design Per 1994 USC 1914.8
DESIGN SECTION: T = 8 IN x B = 60 IN
Lu= 25.500 !ft) F~ = 4.000 ksi)
a = 5.313 in)
Concrete Type= Normal
Fy = 60 (ksi)
b = 60.00 (in)
We = 150 (pcf)
Ee= 3604 (ksi) n = 8.05
Peal low> = 0.04 . F~ .Ag ........... = 76.800 (kips) ........ o.k.
Pb = 0.85A 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max)= 0.6 . pb.b.d .......... = 5.452 (in 2)
Steel Area, As= 2.2000 (in~) .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in)
Effective Depth to Steel : d<in> = 5.313 (in) dcout) =. 6.063 {in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3ED1!2..
P1 = 4.485 1kipsl Pu1 = 4.036 lkipsl P2 = 27.344 kips PU2 = 24.610 kips Pr = 31.829 kips Pu = 28.646 kips
Mnat> = 333.10 (in.kips) Mu = 476.333 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in)
p = 0.9 -[2 . Pu/F~ .Ag] ............................ .
a = [ As. Fy + Pu J / O. 85 . F ~ . b •••••••••••••••••••••
C = a / 0. 85 ........................................ .
= 0.870
= 0.787 (in)
= 0.926 (in)
Icr = n.[ As.(d-c)A 2 + (Pu/Fy).(t/2 -c)A2] + (be/3).cA3 = 519.262 (in4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 752.648 (in.kips)
8n = Mn.LuA 2 / 9.6. E.Icr .......................... . = 3.923 (in)
Mu (P.e) = Pu 1 .e/2 ..................................... = -15.137 (in.kips)
Mu (P.8) = [ Pu 1 + Pu2 ] x 8 .....•..........•.......... = 112.372 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(P.e) + Mu(P.8) = 573.57 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 668.~4 (in.kips) o.k
Check Service Load Deflection : 8Lim = Lu/150 ~ 2.04 (in)
beff = 60. 00 (in)
M5 = M(lat) -P1 .e/2 + Pr .Slim ....... ; ............. =
Mer = 5. F~A1/2.be.tA2/6 .......... ; ......... : ........ =
8ef = Mer . LuA 2 / 9. 6 . E. Ig ................ : ...... : . -;-
8s = 8er + [8n -Ber] x [Ms -Mcr]/[Mn -Mer] ..... .
LOAD CASE SUMMARY
Load Case < 1 > Load Case < 2 >
Load Case < 3 >
Load Case < 4 >
SEISMIC GOVERNS
U = 0.75 X [ 1.4D + 1.1 X 1.7ECIN> ]
U = 0.9D + 1.1 x l.3Ec~>
U = 0.75 x [ 1.4D + l.1 x l.7Ecoun ]
U = 0. 9D + 1. 1 x 1. 3 Ecoun
381.21 (in.kips)
202.39 (in.kips)
0.21 (in)
1.42 (in)
[Mu/ ,0Mn]
= 0.856
= 0.858 <=== = 0.829
= 0.820
o.k.
.e
*********************************************************************
CONCRETE PIERS FOR PANEL W/OPENINGS: JOB NO:96-126 J.l)&:1J
********************************************************************* I
P-33. R
Wall Thickness,
Clear Height,
Parapet Height,
Lower Panel Leg
Upper Panel Leg
Open'g Height,
tw= 8.00
Lu= 25.50
Lp= 5.00
= 8.00
= 18.00
Lo= 9.00
1. LATERAL LOADS
WIND: 70. O mph WIND
p = Ce X Cq X
qs = 14.5
in
ft
ft
ft
ft
ft
SPEED;
qs
psf
Ce = 1.1 (0-20');
Cq = 1.2 inward &
Wwl = 14.5 * 1.1 * 1.2 *
Ww2 = 14.5 * 1.2 * 1.2 *
SEISMIC: Ws = 0.30 * w
ZONE-4 Wsl = 0.30 *100.00 * Ws2 = 0.30 *100.00 *
SEISMIC
W = 240.00 540.00 p/f
L = 9.0 16.5 5.0 ft l<---->l<---->l<--->I
A A
1--> X I RF RR
RR = 9373 lbs
RF = 4397 lbs
Mopng =391.18 k-in
Mmax @ X =13.142 ft
Mmax = 413-. 8 k-in
2. VERTICAL LOADS
EXPOSURE . C .
1.2 ( > 20 I)
outward
18.00 = 337.47 p/f . (0 I -20 I)
18.00 = 372.71 p/f . ( > 20 I) I
8.00 = 240.00 p/f
18.00 = 540.00 p/f
WIND
337.47 372.71 p/f
20.0 10.5 ft !<-------><------->!
A A
I I RF RR
RR = 6522 lbs
RF = 4141 lbs
Mopng = 283.21 k-in
Mmax @ X = 12.27 ft
Mmax = 304.87 k-in
e = 3.500
Pl=
+ 4.000 = 7.500 inches
ROOF
WALL: P2 =
23.00 * 18.00 * 13.0 psf / 1000 = 5.382 k
18.23 * 18.00 * 0.667 * 0.150 kcf = 32.813 k
TOTAL =38.195 k
-
/46')/4] AJIT RANDBAVA & ASSOCIATES
ff7_]'2:{7_] CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522·0911 • FAX (714) 522-1149
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ff7_]'2:(7_] CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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#7.J}1'~ CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
iELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. {714) 522-0911 • FAX (714) 522-1149
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-
-
Slender Concrete Wall Design Per 1994 UBC 1914.8
DESIGN SECTION: T = 8 IN x B = 96 IN
Lu= 25.5001ft} F~ = 4.000 ksi) a = 5.313 in)
Concrete TyP.e = Normal Fy = 60 (ksi) b = 96.00 (in)
We = 150 (pcf) Ee= 3604 (ksi) n = 8.05
Peal low> = 0.04 . F~ .Ag ........... = 122.880 (kips) ........ o.k.
Pb = 0.8SA 2.( F~/Fy ).[ 87/87+Fy] = 0.02851
As (max) = 0. 6 . Pb • b. d .. . .. . . . . . = 8. 7 2 4 (in 2)
Steel Area, As= 2.2000 (inf} .... USE 5 -# 6 Bars Ea. Face
Arch. Reveal Depth ..... = 0.750 (in) Effective Depth to Steel : dcin> = 5.313 (in) dcout) = 6.063 (in)
LOAD CASE < 2 > U = 0.9D + 1.1 x 1.3Ei.illl.
p1 = 5.382 1kipsl Pu1 = 4.844 1kipsl Pz = 32.813 kips Puz= 29.532 kips Pr = 38.195 kips Pu = 34.375 kips Mnat> = 413.80 (in.kips) Mu = 591.734 (in. ips)
e = 7.500 (in)
d = ••••••••••••••••••••••••••••••••••••••••••••••••••••• = 5.313 (in)
p = 0.9 -(2 . Pu/F~ .Ag] ............................ .
a = [ As. Fy + Pu ] / o. 85 . F ~ • b ................... ..
c = a / 0. 85 ........................................ .
= 0.878
= 0.510 (in)
= 0.600 (in)
Icr = n.[ As.(d-c)AZ + (Pu/Fy).(t/2 -c)"Z] + (be/3).c"3 = 588. 587 (in 4)
Mn= As.Fy.(d -a/2) + Pu.(t/2 -a/2) ................ . = 796.415 (in.kips)
Bn = Mn. Lu A z / 9. 6 . E. I er .......................... . = 3.662 (in)
Mu (P.e) = Pu1 .e/2 ..................................... = -18.164 (in.kips)
Mu (P.B) = [ Pu1 + Puz ] x B ........................... = 125.882 (in.kips)
Total Factored Design Moment :
Mur = Mu + Mu(~.e) + Mu(P.8) = 699.45 (in.kips)
pMn = p.As.Fy.(d -a/2) + Pu.(t/2 -a/2) = 714.70 (in.kips) .... o.k
Check Service Load Deflection : Slim = Lu/150 = 2.0~ .. (in)
beff = 96. 00 (in) ,
M5 . = M(lat) -P1 .e/2 +Pr.Slim ..................... = 471.54 (in.kips)
.Mer= 51 F~"1/Z,be.t"Z/6 ........................... = 323.82 (in.kips)
Ber= Mcr;.Lu"Z / 9.6. E.Ig ····················;···· = 0,.21 (in)' B5 = Ber + [Bn· -·Berl X [Ms -Mcr]/[Mn -Mer] ...... = 1.29 (in) .... o.k.
LOAD CASE SUMMARY: SEISMIC GOVERNS [Mu/ pMn]
Load Case < 1 > Load Case < 2 >
Load Case < 3 > Load Case < 4 >
U = 0.75 X [ 1.4D + 1.1 X l.7EcrN> ]
U = 0.9D + 1.1 x l.3E(~) U = 0.75 x [ 1.4D + l.1 x 1.7Ecoun ] U = 0. 9D + 1. 1 x 1. 3Ecoun
= 0.967 = 0.979 <===
= 0.939 = 0.937
-
/46')/47 AJIT RANDBAVA & ASSOCIATES
#'7JL(7J CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
1ELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
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ff'7.J'2:('7.J CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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SUBDIAPHRAGM ANALYSIS ROOF
***********************************************************************
THICKNESS OF WALL = 8.00 in
CLEAR HEIGHT = 28. 5·0 ft
PARAPET HEIGHT = 2.00 ft
SEISMIC, Ws = 0. 30 * 100.00 * 16.250 * 1.50
= 731.25 #/ft
WIND, Ww = 14.50 * 1.23 * 1.200 * 16.250
= 347.78 #/ft
=====> 731. 25 #/ft SEISMIC GOVERNS.
1. PURLIN TIES TO WALL@ 8.0 ft o.c.
FORCE REQ'D Pu = 8.00 * 731.25 = 5850.0 #
=====> PROVIDE FILLET WELD 1/4 X 2 II AT BOTH SIDES
P-allow = 1.33 * 2 * 2 * 3711 #
= 19743 # > Pu O.K. ! ! ! !
TENSION CAPACITY OF EACH 7/8 11 DIA. ANCHOR =
..:u-ro_ 51 {jrj:
SHEAR CAPACITY OF EACH 7/8 11 DIA. ANCHOR = 4050
Fv = 30.00 * 8.00 * 13.00 I 2.
= 1560 # ..a-Ft = 5850 /4-=/#-b6
= 2925 re 1560! c.',b-0 c-~~;~-+ CL = :a 96 < 1.33
O.K. ! ! ! !
2. RAFTER TIES TO WALL@ 4.0 ft o.c.
FORCE REQ'D Pu=
=====>
4.00 * 731.25 = 2925.0 #
PROVIDE 1/411 x 411 STRAP PLATES EACH SIDE WITH
2 -:-,p/8 11 DIA. M. BOLTS
CAPACITY OF 2 -1/411 x 4 11 STRAP PLATES
#
#
= ( 4 -2 * 11/16) * 0.25 * 22000 * ~ * 1.3~ / 1.7
= 90362 # > Pu o·.K. !!!r
CAPACITY OF 2 -5/8 11 DIA. M. BOLTS
= 2 * 2250 *1.33
= 5985 # > Pu O.K. !!!!
3. RAFTER TIES EACH OTHER@ 4 ft o.c.
FORCE REQ'D Pu= 2925.0 #
e.
=====> PROVIDE 3.511 x 16 GA. STRAP W/ 24-l0d NAILS AT EA. END
CAPACITY OF 3.511 x 16 GA. STRAP
WITH 3 ROWS STAGGERED NAILINGS
= ( 3.5 -2 *.148) * 0.0598 * 22000 * 1.33 / 1.7
4. TRY
RL = RR
= 0.5
=
VL = vR
=
=
= 4119 # > Pu O.K. !!!!
CAPACITY OF 24-l0d NAILS
= 24 * 113 * 1.33
= 3607 # > Pu
88.00 X 58.00 SUBDIAPHRAGM
* 58.00 * 731.25
21206 #
21206 I 88
241 #/ft < 250 #/ft A
O.K. ! ! ! I RL
O.K. !!!!
/\
RR
PROVIDE STRAPS ACROSS THE 10 PURLINS FROM THE INSIDE FACE OF WALL
5. TRY 44.00 X 29.00 SUBDIAPHRAGM
RL = RR
= 0.5
=
VL = vR
=
=
*
10603
10603
241
29.00
# *
/ 44.oo
731.25
#/ft < 250 #/ft
O.K. !!!
PROVIDE STRAPS TYP. @ 4'-0"o.c. ACROSS THE
4 PURLINS FROM THE INSIDE FACE OF WALL
/\
I RL
/\
RR
. . ------------------------------------------------------:----------------PROVIDE TUBE TIES ACROSS THE 6 PURLINS FROM THE WALL
FORCE REQ'D
Pu = 21206 #
CAPACITY OF TS 3 1/2 X 2 i/2 X 1/4
= 2.59*0.6*46000*1.33/l.7= 55926 # > Pu O.K.
5. BAR JOIST TIES EACH OTHER@ 8 ft o.c.
FORCE REQ'D Pu= 5850.0 #
=====> PROVIDE FILLET WELD 3/16 x 2 11 AT BOTH SIDES
P-allow = 1.33 * 2 * 2 * 0.75 * 3711 #
= 14807 # > Pu O.K. !!!!
-
CAPACITY OF PLATE 3 11 x 1/4 11
= 3 * 0.25 * 22000 * 1.33 / 1.7
= 12909 # > Pu O.K. !!!!
6. JOIST GIRDER TIES EACH OTHER
FORCE REQ'D Pu= 55.0 * 731.25 / 1000
=====>
= 40. 22 Kips
PROVIDE FILLET WELD 1/4 x MIN. 9 11 AT BOTH SIDES
P-allow = 1.33 * 2 * 9 * 3.711 = 88.84 K > Pu O.K. !!!!
CAPACITY OF PLATE 4 11 x 7/811
= 4 * 0.875 * 22000 * 1.33 / 1.7 = ~0.24 K > Pu O.K. !!!!
-
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£6')/41 AJIT RANDBAVA & ASSOCIATES
#°7.J~'lJ CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA. CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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ff'l.J~7J CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAA (714) 522-1149
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16700 VALLEY VIEW AVE .. SUITE 270, LA MIRADA, CALIFORNIA 90638
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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£6)/41 AJIT RANDBAVA & ASSOCIATES
ffiJ'}1"iJ CONSULTING STRUCTURAL ENGINEERS INC.
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16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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DESIGN _____ --::---
SHEET #_-=l.,__"F_-_(-"'-J __
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02-D FRAME ANALYSIS PROGRAM, VERSION: 8.00 Lr-16 THE IRIS GROUP MOMENT FRAME AT LINE -P
ONUMBER OF JOINTS= 4 NUMBER OF MEMBERS = 3 /" "0!11~ GENERATE COORD -NO NUMBER OF PROPERTIES CARD= 2
PRISMATIC MEMBERS -YS NUMBER OF LOAD CASES= 4 ~---'" GENERATE MEMBERS -NO NO.OF LOAD COMBINATIONS= 3
FOR ALL MEMBERS, E = 29000,0 E/G = 2.50
UNIT CONV,CODE,INPUT: 1 OUTPUT: 0
NO, OF REMARK CARDS= 0 INPUT CHECKING ONLY -NO
OINPUT UNITS -KIPS & INCHES
(COORDINATES IN FEET, WINK/FT)
JOINT DATA (JOINT FIXITY , ,, X, Y DISPL, OR ROTATION(R),,.O=ALLOWED, l=NOT)
JOINT FIXITY X COORD, Y COORD.
· FT NO, XYR FT
1 111 .000 ,000
2 111 29.000 .000
3 0 .000 12,500
4 0 29.000 12,500
!MEMBER PROPERTIES (UNITS: IN AND K.)
NO,
1
2
OMEMBERS
SHEAR HALF SUPPORT WIDTH
I AREA AREA AT I AT J E
1240,0 32.00 7,50 .00 ,00 29000,00
1550.,0 18,20 10,20 ,00 ,00 29000.00
(END CONDITIONS, .. O=FIXED BOTH ENDS, !=HINGED AT I
2=HINGED, AT J, 3=HINGED AT BOTH ENDS)
E/G
2,50
2,50
0 0 0
I/D
WBX109
W2H62
OMEMB JOINTS END MEMB LENGTH ------------COEF,FOR NON-PRISMATIC MEMBERS------------
NO . I J. ··coND PROP -(FT) ---k(IJ) -K(JIJ C(IJ) -FEM(I) FEH(J)
1 1 3
2 2 4
3 3 4
0
0
0
1
1
2
12,50
12,50
29,00
ONUHBER OF EQUATIONS = 12 BAND WIDTH: 9
ONUMBER OF MEMBERS CONNECTED TO JOINTS (FOR:GEOMETRY CHECKING)
OOCCURRANCE JOINT NUMBERS
2 3 4
1
0--------------------------------------0
I
I
I
I
I
I
I
I
I
0
lLOAD CASE= 1 D.L.
ONUMBER OF JOINT LOADINGS= 0
OMEMBER LOADS
I
I
I
I
I
I
I
I
I
0
NUMBER OF MEMBER LOADINGS :
·r
. .
-
-
-
MEMB UNIFORM DIST.LOAD(K/FT) TEMPERATURE CHANGES DIREC MOH ENT S ( K.FT) SHEAR FORCE (K)
NO. VERTICAL HORIZONTAL DEGREE COEFF. TION FEM AT I FEM AT J MIDSPAN AT I AT J
.00000 . 0 ,OOE+OO -1. 5000
OJOINT DISPLACEMENTS
JOINT NO, X DISP, Y DISP.
(IN,)
ROTATION
(RAD)
L'F--fc
~.
1
2
3
4
OMEMBER FORCES
(IN,)
,000
,000
.003
-.003
OMEMBER JOINTS AXIAL
NO, I J (K,)
1 1 3 21. 75
2 2 4 21. 75
3 3 4 8.97
1LOAD CASE= 2 L.L.
ONUMBER OF JOINT LOADINGS=
OMEMBER LOADS
0
,000
,000
-,004
-.004
,000
.000
-.001
,001
-------MOMENT (K,FT)-------
AT I MIDSPAN AT J
-32. 48, 23.60 -79.69
32.48 -23.60 79·, 69
79,69 -78.00 -79,69
NUMBER OF MEMBER LOADINGS =
----SHEAR(K. )---
AT I AT J
-8.97 8.97
8.97 -8.97
21.75 21.75
1
---------------INPUT DATA FOR FIXED END FORCES---------------
HEMB UNIFORM DIST.LOAD(K/FT) TEMPERATURE CHANGES DIREC KOHEN TS ( K,FT) SHEAR FORCE (K)
NO. VERTICAL HORIZONTAL DEGREE COEFF. TION FEK AT I FEH AT J MID SP KN AT I AT J
3 -2.4000
OJOINT DISPLACEMENTS
JOINT NO. · --I DISP.
: :
1
2
3
4
OMEHBER FORCES
(IN.)
.000
.000
.005
-.005
OMEMBER JOINTS AXIAL
Nb. I J (K.)· ·r
1 1 3 34;80 ·
2 2 4 34.80
3 3 4 14. 36
!LOAD CASE= 3 E.Q.
ONUMBER OF JOINT LOADINGS=
.00000 . 0 .OOE+OO
2
Y DISP, --ROTATION
(IN,) (RAD)
,000
.000
-.006
-.006
.000
.000
-,002
,002
-------MOMENT (K,FT)---~---
AT I, MIDSPAN ·AT J
-51.97 37.77 -127.50
51.97 · -37.77 127.50
127,50 -124. 80 -127,50
NUMBER OF MEMBER LOADINGS=
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED).
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
NO. X Y (K.FT) LAST INCR,
3
4
17. 0-0
17.00
OJOINT DISPLACEMENTS
JOINT NO. I DISP,
(IN,)
.00
,00
Y DISP,
(IN,)
,00
,00
ROTATION
(RAD)
----SHEAR(K, )---
At I 4T J
. i
-14. 36 14.36
14. 36 -14.36
34.80 34.80
0
~-
l ,
-
-
-
1 .000 .000 .000
2 .000 ,000 ,000
3 ,259 .001 -.001
4 .259 -,001 -,001
OMEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K.FT)-----------SHEAR(K,)---
NO, I J (K,)
1 1 3 -5.54
2 2 4 5.54
3 3 4 .00
lLOAD CASE= 4 RIGIDITY LOAD
ONUMBER OF JOINT LOADINGS= 2
AT I
132.15
132,15
-80,35
MIDSPAN AT J AT I
25,90 80.35 17.00
25,90 80.35 17.00
,00 -80,35 -5.54
NUMBER OF MEMBER LOADINGS = ' 0
OJOINT LOADS ( JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
AT J
-17,00
-17. 00
5. 54
NO, X Y (K,FT) LAST INCIL
3
4
1442, 00
1442,00
OJOINT DISPLACEMENTS
JOINT NO,
1
2
3
4
X DISP,
(IN,)
,000
.000
22,010
22,010
.oo
.oo
Y DISP.
(IN,)
.000
.000
.076
-.076
.00
,00
ROTATION
(RAD)
,000
,000
-,110
-,110
OMEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K.FT)-------
NO, I J (K,) AT I MIDSPAN .AT J
1 1 3 -470.07
2 2 4 470,07
3 3 4. -.00
lLOAD COMBINATIONS
11209,01
11209.01
-6815.99
2196.51 6815,99
2196.51 6815,99
.oo -6815,99
·---. --·-~
----SHEAR(K, )---
AT I· AT J
1442.00 -1442.00
1442.00 -1442.00
-470.07 470.07
ONEW --~----------~---------------LOAD COMBIN~TIONS----------------------------
LOAD NU!f LOAD FAC LOAD FAC LOAD FAC· LOAD FAC LOAD FAC
CASE BER CASE TOR CASE TOR CASE TOR CASE TOR CASE TOR
--------------------------------------------. -----------------------------------
5.
6
7
2
3
2
1 1.00
1 1.00
1 . 85
~ 1. 00 · r
2 1,00 3 1.00
3 1. 00 .
KBASIC LOAD CASES AND COMBINATIONS
KMEMBER LOAD AXIAL -------BENDING HOMENTS------
NO, CASE FORCE AT I MIDSPAN .AT J
1 21. 75 -32,48 23,60 -79.69
2 34.80 -51. 97 37.77 -127.50
3 -.5. 54 132,15 25.90 80.35
4 -470.Q? 11209,01 2196,51 6815,99
5 56.55 -84.4.5 61.37 -207,19
6 51, 01 4 7, 70 87.27 -126,84
7 12.95 10L54 45,96 12.62
2 1 21. 75 32.48 -23.60 ?S,69
2 34. 80 51.97 -37,77 127.50
--SHEAR FORCES--
AT I AT J
-8.97 8,97
-14.36 14 I 36
17.00 -17.00
1442 I 00 -1442.00
-23.33 23.33
-6,33 6, 3 3
9.37 -9.37
8,97 -8.97
14. 36 -14.36
L'"f--1 i
4 470,07 11209.01 2196,51 6815,99 1442,00 -1442,00
5 56.55 84.45 -61. 3 7 207,19 23,33 -23,33
6 62,09 216,59 -35,48 287,55 40,33 -40,33
7 24.03 159,75 5,83 148,09 24.63 -24.63 Cf--lr
3 1 8.97 79,69 -78,00 -79.69 21, 75 21. 75 -2 14.36 127,50 -124.80 -127,50 34,80 34,80
3 ,00 -80,35 ,00 -80,35 -5,54 5.54
4 -.00 -6815,99 .oo -6815,99 -470,07 470.07
5 23.33 207,19 -202,80 -207,19 56,55 56,55
6 23,33 126,84 -202,80 -287,55 51.01 62,09
1 7,63 -12,62 -66,30 -148,09 12,95 24.03
END OF COMPUTATION**********************************************************
: :
·r
-
-
: .
. ;·
-
02-D FRAME ANALYSIS PROGRAM, VERSION: 8.00
THE IRIS GROUP BRAGE FRAME AT LINE 4,2
ONUMBER OF JOINTS: 5
GENERATE GOORD -NO
PRISMATIC MEMBERS -YS
GENERATE MEMBERS -NO
FOR ALL MEMBERS, E: 29000,0
UNIT CONV.CODE,INPUT: 1
NO, OF REMARK CARDS= 0
OINPUT UNITS -KIPS & INCHES
NUMBER OF MEMBERS : 6
NUMBER OF PROPERTIES CARD= 3
NUMBER OF LOAD GASES= 4
NO.OF LOAD COMBINATIONS= 3
E/G : 2.50
OUTPUT : 0
INPUT CHECKING ONLY -NO
(COORDINATES IN FEET, WINK/FT)
JOINT DATA (JOINT FIXITY ,,, X, Y DISPL, OR ROTATION(R),,,O=ALLOWED, !:NOT)
JOINT FIXITY X COORD, Y COORD,
NO, XYR FT FT
----------------------------------------
1 110 ,000 ,000
2 110 21.000 ,000
3 0 ,000 12,500
4 0 10,500 12,500
5 0 21.000 12.500
lMEMBER PROPERTIES (UNITS: IN AND K,)
SHEAR HALF SUPPORT WIDTH
NO, I AREA AREA AT I AT J E E/G
0 0 0
I/D
1
2
3
127.0 10,30 2.50 ,00 ,00 29000,00 2,50 W8X35
800,0 14,70 6,30 ,00 ,00 29000,00 2,50 Wl8X50
50,5 10,40 5,20 ,00 ,00 29000,00 2.50 TS6X6Xl/2
OMEMBERS (END CONDITIONS, ,-,O=FIXED BOTH ENDS, !=HINGED AT I· · · -· -·
2=HINGED AT J, 3=HINGED AT BOTH ENDS)
OMEMB JOINTS . END MEHB LENGTH ------------COEF,FOR NON-PRISMATIC MEMBERS------------
NO I J GOND PROP (FT) K(IJ) K(JI) C(IJ) FEH(I) FEH(J)
1 1 3 0 1 12.50
2 2 5 0 1 · 12,50
3 1 4 3 3 16.32
4 2 4 3 3 16,32
5 3 4 1 2 10,50
6 4 5 2 2 10,50
ONUMBER OF EQUATIONS : 15 BAND WIDTH: 12
ONUMBER OF: MEMBERS CONNECTED TO JOINTS (FOR GEOMETRY CHECKING)
OOCCURRANCE JOINT NUMBERS
2 1 2 3 5
4 4
1
o-----------------------0-----------------------o
I ** ** I
I * * I
I * * I
I ** ** I
I * * I
I ** ** I
I * * I
I * ** I
I ** * I
T * * I
...
: .
· ... r
-
1 H
I *
I **
I *
I *
I**
0
1LOAD CASE= 1 D,L,
* I
** I * I
* I
**I
0
ONUMBER OF JOINT LOADINGS: 2 NUMBER OF MEMBER LOADINGS : 2
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
NO. X Y (K,FT) LAST INCR,
3
&5
OMEMBER LOADS
.oo
.oo
-21,90
-21,90
,00
,00
---------------INPUT DATA FOR FIXED END FORCES---------------
MEMB UNIFORM DIST,LOAD(K/FTl TEMPERATURE CHANGES DIREC HOH ENT S ( K,FTl SHEAR FORCE (Kl
NO, VERTICAL HORIZONTAL DEGREE COEFF, TION FEM AT I FEM AT J MIDSPAN AT I AT J
5
6
-.5600
-.5600
OJOINT DISPLACEMENTS
JOINT NO,
1
2
3
4
5
OMEMBER FORGES
OHEKBER JOINTS
NO, I J
1 1 3
2 2 5
3 1 4
4 2 4
5 3 4
6 4 5
!LOAD CASE= 2
X DISP.
(IN, l
.000
,000
,000
,000
.000
AXIAL
(K,)
23,85
23.85
5.13
5,13
.oo
• 00 ·
1.'L.
ONUKBER OF JOINT LOADINGS=
,00000
,00000
y DISP I
(IN,)
.000
,000
-,012
-.004
-,012
I 0
I 0
' . -· ----
,OOEtOO
,OOEtOO
ROTATION
(RAD)
,000
,000
,000
,000
,000
--·. ------.
-------MOMENT (K,FTl-------
AT I MIDSPAN AT J
,00 ,00 .oo
,00 .00 .00
! : ! I 00 ,00 ,00
,00 .oo .oo
,00 -2.54 -10,35
10,35 -2,54 .oo • j"
2 NUMBER OF MEMBER LOADINGS=
OJOINT LOADS ( JOINT DEFORMATION, IF JOINT RESTRAIIIED l
OJOINT JOINT LOADS (Kl IN DIR'N MOMENT LOAD GEN,
NO, X y (K.FTl LAST INCR,
---------------------------------------------------------------
3
5
OHEMBER LOADS
, 00
.oo
-37,80
-37.80
,00
,00
----SHEAR(K,)---
AT I AT J
I 00 .oo
.oo .00
.oo ,00
.oo ,00
1.95 3.93
: 3 I 93 1.95 .:
2
---------------INPUT DATA FOR FIXED END FORCES----------------
MEMB UNIFORM DIST,LOAD(K/FTl TEMPERATURE CHANGES DIREC HOH ENT S ( K.FT) SHEAR FORCE (K)
NO, VERTICAL HORIZONTAL DEGREE COEFF, TION FEM AT I FEH AT J MIDSPAN AT I AT J
5
6
-,8000 -,8000
OJOINT DISPLACEMENTS
.00000
,00000
,0
'0
.OOE+OO ,OOEtOO
-
-
JOINT NO,
1
2
3
4
5
OMEMBER FORCES
OHEMBER JOINTS
NO. I J
X DISP,
(IN,)
,000
,000
.000
.000
.000
AXIAL
(K.)
Y DISP,
(IN,)
,000
,000
-,020
-.006
-,020
ROTATION
(RAD)
,000
,000
,000
,000
,000
-------MOMENT (K,FT)-------
AT I MIDSPAN AT J
----SHEAR(K, )---
AT I AT J
-----------------------------------------------------------------\ ---------------
1 1 3 40,49 .00 ,00 ,00 .oo .oo
2 2 5 40.49 ,00 ,00 .oo . 00 ,00
3 1 4 7.46 ,00 ,00 ,00 ,00 .oo
4 2 4 7.46 .oo .oo .oo .00 .00
5 3 4 ,00 .oo -3.10 -15.85 2,69 5.71
6 4 5 .00 15.85 -3.10 .oo 5.71 2.69
lLOAD CASE= 3 E,Q,
ONUHBER OF JOINT LOADINGS= 2 NUMBER OF MEMBER LOADINGS= 0
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
NO. X Y (K,FT) LAST INCR,
3 25,30 .oo .00
5 25.30 ,00 ,00
OJOINT DISPLACEMENTS
JOINT NO, X DISP, Y DISP, ROTATION
(IN,) (IN,) (RAD)
----------~~. -----. -----------------------------------------------------------
1 ,000 ,000 -.000
2 ,000 ,000 -,000
3 ,047 ,000 -,000
4 ,040 ,000 ,000
5 .047 .000 -,000
: : OMEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K,FT)-~---------SHEAR(K, )---
NO, I J (K,) AT I MIDSPAN AT J AT I AT J
' ____ : --------~ --------· -----------------------------------------------------. i' --
1 1 ~ .oo .oo .oo ,00
2 2 5 ,00 ,00 :00 .00
3 1 4 -39.34 .oo .00 ,00
4 2 4 39.34 .00 .oo .00
5 3 4 25.30 ,00 .oo-,00
6 ' 4 5 -25,30 ,00 .00 ,00
!LOAD CASE= 4 RIGIDITY LOAD
ONUMBER OF JOINT LOADINGS= 2 NUMBER OF MEMBER LOADINGS =
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
NO. X · Y (K.FT) LAST H/CR.
3
5
1442.00
1442.00
OJOINT DISPLACEMENTS
s/V\l'l' \l/1
.oo
.00
17 'H~P
,00
.00
,00 ,00
.oo .00
.oo .00
.00 ,00
.oo .oo
. 00 .00
0
(IN,) {IN,) (RAD)
------------------------------------------------------
1 .000 ,000 -.018 u--~ 3 2 ,000 ,000 -,018
3 2,690 ,000 -,018
4 2,264 ,000 ,000
5 2,690 ,000 -.018
OMEMBER FORGES
O!!EMBER JOINTS AXIAL -------MOMENT (K,FT)-----------SHEAR(K, )---
NO, I J (K.) AT I MID SPAM AT J AT I AT J
---------------------------------------------------------------------------------
1 1 3 ,00 .oo ,00 ,00 .00 .oo
2 2 5 ,00 ,00 ,00 ,00 .00 .oo
3 1 4 -2241.94 ,00 ,00 ,00 .00 .00
4 2 4 2241.94 ,00 ,00 .oo ,00 ,00
5 3 4 1442, 00 ,00 .oo ,00 ,00 .00
6 4 5 -1442,00 ,00 .oo .oo .oo ,00
lLOAD COMBINATIONS
ONEW -----------------------------bOAD COMBINATIO~S----------------------------
LOAD NU!f LOAD FAG LOAD FAG LOAD FAG LOAD FAG LOAD FAG
CASE BER GASE TOR CASE TOR CASE TOR CASE TOR CASE TOR
---------------------------------------------------------------------------------
5 2 1 1.00 2 1.00
6 3 1 1.00 2 LOO 3 1.00
7 2 1 ,85 3 1.00
KBASIC LOAD CASES AND COMBINATIONS
KlfEMBER LOAD AXIAL -:-----BENDING MOMENTS--------SHEAR FORCES--
NO, CASE FORGE AT I MIDSPAN AT J AT I AT J ---------------------------------------------------------------------------------
1 1 23.85 ,00 ,00 ,00 .00 ,00
2 40,49 ,00 .oo .00 ,00 ,00
3 ,00 ~00 -; 00 . . ---, 00 ----·-.oo ... -~ .-00 -------· ------
4 .00 ,00 ,00 ,00 ,00 .00
5 64,34 ,00 .00 ,00 .00 .00
6 64.34 ,00 .00 ,00 .oo .oo
1 20,28 ,00 .00 .oo .00 ,00
2 I 23,85 ,00 ,00 .00 ,00 ,00
2 40,49 ,00 .00 .oo ,00 .00 : :
3 ,00 ,00 .oo ,00 ,00 , 00 ·
4 .00 .oo: ,00 .oo ,00 .00
5 64,34 "00 .o~ .00 ,00 .oo
6 = 64, 34 .. oo ,00 ;oo .00 .00 • j"
7 20,28 ,00 ,00 ;00 ; ,00 ,00
3 1 5.13 .00 .00 ,00 , 00 .oo
2 7.46 ,00 .00 .00 .oo .00
3 -39.34 .oo ,00 · .00 ,00 .oo
4 -224 I. 94 ,00 .00 .oo ,00 .00
5 12.58 ,00 ,00 .00 .oo .00
6 -26,75 .oo .oo ,00 .oo .00
7 -34,98 ,00 ,00 ,00 , 00 ,00
4 1 5 .13 , 00 .oo .00 ,00 .00
2 ·7, 46 .oo .00 .00 .oo .oo
3 39.34 .oo .00 ,00 .00 .00
4 2241.94 .00 ,00 .00 .00 .00
5 12,58 ,00 .00 .00 ,00 .00
6 51. 92 .00 ,00 ,00 .00 .00
7 43.69 .oo .oo ,00 .00 .00
OMEMBER LOAD AXIAL -------BENDING MOMENTS--------SHEAR FORGES--
IT/\ /'l!\'i< Ji'l'lll/'11? /Ofl T VTMO!\t !'I' r ! 'I' T a'i' T
--------------------------------------------------------------------------------
5 1 ,00 .00 -2.54 -10,35 1.95 3.93
2 .00 ,00 -3.10 -15.85 2.69 5.71
3 25,30 .oo .00 .00 ,00 .00 (_,r:-~1 4 1442.00 .00 ,00 .oo .00 .00
5 .oo ,00 -5.64 -26.20 4.64 9.64
6 25.30 .00 -5,64 -26.20 4.64 9,64
7 25,30 .oo -2,16 -8,80 1.66 3.34
6 1 ,00 10.35 -2,54 .00 3.93 1.95
2 .oo 15.85 -3.10 .00 5.71 2.69
3 -25.30 ,00 .00 ,00 .oo .oo
4 -1442.00 .oo .00 .00 .00 .oo
5 .oo 26,20 -5.64 ,00 9.64 4.64
6 -25.30 26.20 -5,64 .00 , 9. 64 4. 64
7 -25,30 8.80 -2.16 ,00 3, 34 1.66
END OF COMPUTATION**********************************************************
-
! :
. r
-
-
--
CF-~
02-D FRAME ANALYSIS PROGRAM, VERSION: 8,00
THE IRIS GROUP
LA T ,...,--oA-A/1~ ?4 7?12../~ / I (:Tj'<.~ ~fJ rr--J f -I
fb~~A..l . LpJ c -p 1 L-tN$-l ·
ONUMBER OF JOINTS= 15
GENERATE COORD -NO
PRISMATIC MEMBERS -YS
GENERATE MEMBERS -NO
FOR ALL MEMBERS, E: 29000,0
UNIT CONV,CODE,INPUT= 1
NO, OF REMARK CARDS= 0
OINPUT UNITS -KIPS & INCHES
NUMBER OF MEMBERS = 18
NUMBER OF PROPERTIES CARD= 4
NUMBER OF LOAD CASES= 3
NO.OF LOAD COMBINATIONS= 4
E/G = 2,50
OUTPUT: 0
INPUT CHECKING ONLY -NO
(COORDINATES IN FEET, WINK/FT)
JOINT DATA (JOINT FIXITY , .. X, Y DISPL, OR ROTATION(R),,,O=ALLOWED, l=NOT)
JOINT FIXITY X COORD, Y COORD,
NO, XYR FT FT
----------------------------------------
1 111 ,000 ,000
2 111 1L500 .000
3 111 29.000 .000
4 111 41,000 ,000
5 111 52,000 .000
6 0 .ooo 12,500
7 0 14.500 12,500
8 0 29,000 12,500
9 0 41.000 12,500
10 0 52,000 12,500
11 0 --· -,000 25,000
12 0 14.500 25.000
13 0 29,000 -25,000
14 0 41.000 25,000
15 0 52,000 25,000
!MEMBER PROPERTIES (UNITS= IN AND K,)
NO.
1
2
3
' 4
OMEMBkRs
SHEAR HALF SUPPORT WIDTH
I AREA AREA AT I AT J E
. • •• t
· 723,0 20.00. 5,80 .00 .00 29000,06
882,0 24.10 7,30 ,00 ,00 29000,00
612,0 11.80 5,60 ,00 ,00 29000·,00
1350,0 16,20 9,30 ,00 t ,00 29000,01}·
(END CONDITIONS,, ,O=FIXED BOTH ENDS, l=HINGED AT I
2=HINGED AT J1 3=HINGED AT BOTH ENDS)
E/G
2,50
2,50
2,50
2,50
O O 0
I/D
WHX68
WHX82
li18X4.0
W2U55
OMEMB JOINTS END MEMB LENGTH ------------COEF,FOR NON-PRISMATIC HEMBERS------------
NO I J COND PROP (FT) K(IJ) K(Jr) C(IJ) FEK(I) FEM(J)
--------------------------------------------------------------------------------------------------
1 1 6 0 1 12,50
2 2 7 0 2 12,50
3 3 8 0 2 12,50
4 4 9 0 2 12.50
5 5 10 0 1 12.50
6 6 11 0 1 12,50
7 ? 12 0 2 12,50
8 8 13 0 2 12,50
9 9 14 0 2 12.50
10 10 15 0 1 12.50
11 6 ? 0 3 14.50
12 7 8 0 3 14.50
13 8 9 0 n 12.00 J
-
15 11 12
16 12 13
17 13 14
18 14 15
0
0
0
0
3
3
3
3
14, 50
14, 50
12,00
11.00
ONUMBER OF EQUATIONS= 45 BAND WIDTH: 18
ONUMBER OF MEMBERS CONNECTED TO JOH/TS (FOR GEOMETRY CHECKING)
OOCCURRANCE JOINT NUMBERS
2 3 4 5
2 11 15
3 6 10 12 13 H
4 7 8 9
1
o---------------------0----------------------o------------------o----------------o
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I
o---------------------0--------.-------------o------------------o----------------o
I I I I I
I I I I I
I I I I I
I I I I I
I I I I I I --I~ ---·---·--·--t-I I
I I I I I
I I I I I
I I I I I
I I I I I
0 0 0 0 0
!LOAD CASE= 1 DL
ONUMBER OF JOINT LOADINGS: 0 NUMBER OF MEMBER LOADINGS= 2 .
OHEMBER LOADS
: :
---------------INPUT DATA FOR FIX~D END FORCES----;-----------
MEMB UNIFORM DIST,LOAD(K/FT) TEMPERATURE; CHANGES DIREC M O M EU T S ( K,FT) SHEAR FORCE (K)
NO, VERTICAL HORIZONTAL DEGREE COEFF, TIO!/ FEM AT l FEM AT J MIDSPAN AT I AT J .
11
15
-,5200
-.2200
OJOINT DISPLACEMENTS
JOINT NO.
1
2
3
4
X DISP,
. (IN.)
.000
.000
.000
.ooo
.000
.00000
.00000
Y DISP,
(IN,)
.000
.000
,000
.000
.000
,0
.o
.OOE+OO
.008+00
ROTATION
(RAD)
,000
,000
.000
,000
.000
GENERATED LOADS
GENERATED LOADS
..
,,
7 .000 -,002 ,000
8 ,000 -,002 ,000
(_,{--L 7 9 ,000 -,002 ,000
10 .000 -,001 ,000
11 ,001 -,002 .000
e 12 .001 -,003 .000
13 .000 -,003 .000
H .000 -,002 .000
15 .000 -.001 .000
OHEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K,FT)-----------SHEAR(K, )---
NO, I J (K,) AT I MIDSPAN AT J AT I AT J
1 1 6 5.08 -1.42 .91 -3,25 -,37 , 3 7
2 2 7 11.08 ,12 -,04 , 19 .02 -,02
3 3 8 9,84 .44 -.22 ,88 ,10 -.10
4 4 9 8,63 ,15 -, 03· ,20 .03 -.03
5 5 10 3,86 .86 -.49 1.83 .22 -,22
6 6 11 1.51 -3,72 -,42 -2,88 -.53 ,53
7 7 12 3.29 .34 .04 ,25 .05 -.05
lMEMBER FORCES
OHEMBER JOINTS AXIAL ~------MOMENT (K.FT)-----------SHEAR(K.)---
NO, I J (K,) AT I MIDSPAN AT J AT I AT J
---------------------------------------------------------------------------------
8 8 13 2,93 1.04 ,10 .83 ,15 -.15
9 9 14 2.55 .15 -,03 ,20 ,03 -.03
10 10 15 1.15 2,10 ,21 1.68 ,30 -,30 -11 6 7 -, 15 6,96 -5,24 -9,88 3,57 3.97
12 1 8 -,13 9.35 -4.66 -8,66 3.82 3.72
13 8 9 -.09 6.74 -2,98 -6.02 3.18 3.06
--.J4 . 9 10 -. 09 _ . 5.66 ... -3.07 _ .. ~:i.93 . 3..02 2.70 -· -------· -
15 11 12 .53 2,88 -2.28 -4.12 1.51 1.68
16 12 13 .48 3 ,·87 -2.00 -3.70 i. 61 1.58
17 13 14 .33 2.87 -1.27 -2,50 1.35 1.29
18 H 15 .30 2. 30 -1.34 -1.68 1.27 1.15
1LOAD CASE: 2 LL
ONUMBER OF JOINT LOADINGS= 0 NUMBER OF MEMBER LOADINGS= 2
OMEMBER LOAD~ ' . ---------------INPUT DATA FOR FIXE~ END FORCES---------------
HEMB UNIFORM DIST,LOAD(K/FT) TEMPERATURE CHANGES DIREC : HOH ENT S ( K,FT) SHEAR FORCE (K)
NO, VE~~!CAL HORIZONTAL DEGREE _ COEFF, TIQN FEM AT I; FEH A~ J MIDSPAN AT. I AT f
-----------~-----------------------------------------------------------------------------------------------------------
11 -.8000 .00000 .o .OOE+OO i
GENERATED LOADS
15 -.2000 .00000 . 0 .OOE+OO
GENERATED LOADS
OJOINT DISPLACEMENTS
JOINT NO, X DISP. Y DISP, ROTATION
(IN,) (IN,) (RAD)
-------------------------------------------------------1 ,000 .ooo .000
2 .000 .000 ,000
3 ,000 .ooo .000
4 .000 ,000 .000
5 .000 ,000 .000
6 .000 -,002 -,000
7 .000 -.003 .000
8 .000 -.003 .000
10 ,000 -,001 ,000
11 ,001 -,002 ,000 lr;->'f 12 ,001 -, 004 ,000
13 ,000 -,003 ,000
14 .000 -,003 ,000 -15 .000 -,002 ,000
OMEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K,FT)-----------SHEAR(K,)---
NO, I J IK,) AT I MIDSPAN AT J AT I AT J
---------------------------------------------------------------------------------
1 1 6 6,89 -2,23 1.46 -5,15 -,59 ,59
2 2 7 14,94 ,24 -,08 ,39 ,05 -.05
3 3 8 13,30 .69 -,35 1.38 .17 -.17
4 4 9 11.65 ,19 -,03 ,25 .04 -,04
5 5 10 5.23 1.35 -,78 2,90 ,34 -.34
6 6 11 1.41 -5,36 -1.15 -3,05 -,67 .67
7 7 12 2.93 ,45 ,13 ,19 .05 -.05
!MEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K,FT)-----------SHEAR(K, )---
NO, I J IK.J AT I MIDSPAN AT J AT I AT J
---------------------------------------------------------------------------------
8 8 13 2.68 1.47 ,27 .93 ,19 -.19
9 9 14 2.29 ,21 -,05 ,32 .04 -,04
10 10 15 1.09 3.00 , 58 1.84 .39 -.39
11 6 7 -,08 10.51 -8, 12 -15,29 5,47 6,13
12 7 8 -.08 ·14,45 -7. 17 -13.26 5,88 5.72
13 8 9 -,05 10,41 -4,57 -9,25 4,90 4. 70 -14 9 10 -.05 8,79 -4, 76 -5,89 4.66 4.14
15 11 12 • 67 3,05 -1.95 -3,56 1.41 1.49
16 12 13 .62 3,37 -1.83 -3,48 1.44 1.46
.. -.17 -13 14 .43 2 .55 -· . -1.20. .-Z.26 . 1-.22 . 1.18
18 H 15 .39 1.94 -1.13 -1.84 1.11 1.09 -!LOAD CASE= 3 EQ
ONUMBER OF JOINT LOADINGS= 4 NUMBER OF MEMBER LOADINGS= 0
OJOINT LOADS (JOINT DEFORMATION, IF JOINT RESTRAINED)
OJOINT JOINT LOADS (K) IN DIR'N MOMENT LOAD GEN,
NO, X y (K,FT) LAST IUCR.
--------------.----------~------------------------·-: r---------
6 4.20 ,00 .00 · 10 4
GENERATED LOADS
7 8.40 ,00 ,00 · 9 1
GENERATED LOADS
11 2,30 .00 .00 15 4
GENERATED LOADS
12 4.60 ,00 ,00 14 1
GE!IERATED LOADS
OJOINT DISPLACEMENTS
JOINT NO, X DISP, Y DISP, ROTATION
(IN,) (IN,) !RAD)
-------------------------------------------------------,000 ,000 .000
2 .000 ,000 .000
3 .000 ,000 ,000
4 ,000 ,000 ,000
5 ,000 ,000 .000
6 .210 ,002 -,001
7 .211 -,000 -.001
8 ,211 ,001 -,001
J d.i.11 ,VVl -, VV.L
10 ,210 -.003 -,001
11 .358 .003 -.000 i,'F-~1
12 .358 -,000 -.000
13 .358 .001 -.000
14 .358 ,001 -,000
15 .358 -,004 -,000
OMEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K.FT)-----------SHEAR(K, )---
NO, I J (K,) AT I MIDSPAN AT J AT I AT J
---------------------------------------------------------------------------------
1 1 6 -8,57 64.19 12 ,44 39,30 8.28 -8.28
2 2 7 ,89 84.03 12,06 59. 92 11.52 -11.52
3 3 8 -2.52 84.53 11.86 60.81 11.63 -11.63
lHEMBER FORCES
OMEMBER JOINTS AXIAL -------MOMENT (K:FT)-----------SHEAR(K.)---
NO. I J (K,) AT f MIDSPAN AT J AT I AT J
. . ---------------------------------------------------------------------------------
4 4 9 -2.35 85,72 11.03 63.66 11. 95 -11.95
5 5 10 12.55 65,58 11. 66 42.25 8.63 -8.63
6 6 11 -2.57 6,03 -6.82 19.67 2.06 -2.06
7 1 12 .27 20,72 -6,88 34.49 4. 42 -4.42
8 8 13 -.75 21. 42 -6.85 35.12 4.52 -4.52
9 9 14 -.64 24, 74 -6.23 37,21 4.96 -4.96
10 10 15 3.70 8.94 -6,36 21.66 2.45 -2.45
11 6 1 -2.02 -45.33 -1.87 -41.60 -6.00 6.00
12 7 8 -.72 :.39,04 -.12 -38,80 -5,37 5,37
13 8 9 .57 -4 3, 44 -,60 -42.24 -7.14 7.14 -14 9 10 1. 98 -46, 15 2.52 -51. 19 -8.85 8,85
15 11 12 .24 -19.67 -1.01 -17.65 -2.57 2.57
16 12 13 .43 -16,84 -.10 -16.64 -2.31 2.31
· 17 -13 14 -,50 .. -18,49 -· · -;-15 · -18.18 --3. 06 3.06 --------
18 H 15 .15 -19.03 1.32 -21.66 -3,70 3.70
1LOAD COMBINATIONS
ONEW -----------------------------LOAD COMBINATIONS----------------------------
LOAD NU!f LOAD FAC LOAD FAC LOAD FAC LOAD FAC LOAD FAC
CASE BER CASE TOR CASE TOR CASE TOR CASE TOR CASE TOR
---------------------------------------------------------------------------------
4 3 1 1.00 2 LOO 3 1.00
5 3 1 1.00 2. 1.00 3 -1.00 : :
6 2 1 .85 3 1.00
7 2 1 .85 3 -LOO
. r
KBASIC LOAD CASES AND COMBINATIONS. ;
KMEHBER LOAD AXIAL -------BENDING MOMENTS--------SHEAR FORCES--
NO, CASE FORCE AT I MIDSPAN AT J 'AT I AT J
--------------------------------------------------------------------------------
I . 5.08 -1.42 .91 -3.25 -, 3 7 .37
2 6.89 -2.23 1.46 .,5 .rn -.59 ,59
. 3 -8.57 64.19 12,44 39,30 8.28 -8,28
4 3.39 60,54 14 ,82 30,90 7.32 -7. 32
5 20.53 -67,84 -10.07 -4 7, ~-0 -9.24 9.24
6 -4.25 62,98 13,22 36, 5-4 7.96 -7.96
7 12,89 -65.40 -11.67 -42,06 -8.60 8.60
2 1 11.08 .12 -,04 .19 .02 -,02
2 14. 94 ,24 -.08 .39 ,05 -.05
3 ,89 84.03 12,06 59,92 11.52 -11.52
4 26,91 84.38 11. 94 60.50 11. 59 -11. 59
5 25 .12 -83,68 -12,17 -59.33 -11.44 11.44
6 10.31 84.13 12, 03 60,08 11. 54 -11.54
o.~, -oJ,JJ -a,VJ -;,J.ril -u .~J 11,'!J
3 1 9.84 ,44 -,22 .88 ,10 -.10 L,T-so
2 13.30 ,69 -,35 1.38 ,17 -.17
3 -2,52 84.53 11.86 60,81 11.63 -11.63
4 20.61 85,65 11. 29 63,07 11.90 -11.90 -5 25,65 -83,41 -12,43 -58,55 -11.36 11.36
6 5,84 84,90 11.67 61.56 11. 72 -11. 72
7 10,88 -84.16 -12,04 -60,07 -11. 54 11.54
4 1 8.63 , 15 -,03 ,20 ,03 -.03
2 11.65 , 19 -.03 .25 .04 -.04
3 -2.35 85,72 11.03 63,66 11.95 -11.95
4 17.93 86,06 10,98 64.11 12. 01 -12.01
5 22.64 -85,38 -11.09 -63,21 -)1.89 11.89
6 4.98 85,85 11.01 63,83 11.97 -11.97
7 9,69 -85,60 -11.05 -63,49 -11.93 11.93
OHEHBER LOAD AXIAL -------BENDING MOMENTS--------SHEAR FORGES--
NO, CASE FORGE AT I MIDSPAN AT J AT I AT J
--------------------------------------------------------------------------------
5 1 3,86 ,86. -.49 1.83 .22 -.22 ·-
2 5.23 1. 35 -.78 2.90 .34 -,34
3 12,55 65,58 11.66 42,25 8,63 -8,63
4 21. 63 61,79 10.40 46,99 9.18 -9.18
5 -3.46 -63,37 -12,92 -37,52 -8,07 8.07
6 15.83 66,31 11.25 43,81 8,81 -8.81
7 -9,27 -64. 84 -12,07 -40,70 -8,44 8.44
6 1 1.51 -3.72 -,42 -2,88 -.53 ,53
2 1.41 -5.36 -1. 15 -3, 05 -.67 ,67
3 -2,57 6,03 -6.82 19,67 2,06 -2.06
4 .35 -3,04 -8,39 13,74 ,86 -.86
5 5.50 -15, 11 5.25 -25.60 -3,26 3.26
6 -1.29 2,87 -7,18 17,22 1.61 -1.61
7 3,86 -9.19 6.46 -22,12 -2,50 2,50
-----·----------------------+-------------• -----·. ~--------
7 1 3.29 ,34 ,04 ,25 , 05 -.05
2 2,93 ,45 ,13 ,19 .05 -.05
3 .27 20,72 -6.88 34.49 4.42 -4.42
4 6.48 21.52 -6,71 34,94 4.52 -4.52
5 5.95 -19,93 7.06 -34 ,.04 -4, 32 4. 32
6 3.06 21.01 -6,85 34. 71 4.46 -L46
1 2,53 -20,43 6.92 -34. 2 7 -4, 38 4,38
: .
8 1 2.93 1.04 .10 • 83; ,15 -.15
2 2.68 1.47 ,27 .93 .19 -, 19
3 --. 75 · 21.42: .-6,85 %.12 4;52 -j.52
. t 4 4.87 23.92 -6.48 36,88 4,86 -! , 86; . I ,
5 6.~6 -18,92 7,22 -33,36 -4.18 L18
6 1. 75 22,30 · -6,76 35,82 4.65 -4.65
7 3.24 -20.54 6.94 -34. 4 2 -4.40 4.40
9 1 . 2.55 ,15 -,03 ,20 .03 -.03
2 2,29 .21 -.05 · , 32 .04 -.04
3 -,64 24. 74 -6.23 · 3 7. 21 4.96 -L96
4 4.20 25,10 -6, 31 37,73 5.03 -5.03
5 5,48 -24.37 6.16 -36,69 -4,88 4. 88
6 1.53 24.87 -6.26 37,38 4,98 -4.98 -7 ·2. 81 -24.61 6,21 -37,03 -4.93 4.93
10 1 1.15 2.10 , 21 1. 68 .30 -.30
2 1.09 3,00 ,58 1.84 .39 -,39
3 3, 70 8.94 -6.36 21.66 2.45 -2.45
4 5.94 14. 03 -5,57 25, 18 3, 14 -3.14
5 -1.45 -3,84 7.15 -18, 14 -1. 76 1. 76
6 4. n8 l n ?? -6 .19 23.09 2,10 -2. 70
'/ -Z,'/Z -·1, lb b.~4 -ZU,&J -~.l~ ,L 1~
O!fEMBER LOAD AXIAL -------BENDING MOMENTS--------SHEAR FORCES--
NO. CASE FORCE AT I MIDSPAN AT J AT I AT J l-F-JJ
--------------------------------------------------------------------------------
11 1 -.15 6.96 -5.24 -9,88 3.57 3. 9 7
2 -.08 10.51 -8, 12 -15,29 5 .4 7 6.13 -3 -2.02 -45,33 -1.87 -41.60 -6.00 6.00
4 -2.26 -27,86 -15,23 -66. 77 3,04 16.10
5 1. 79 62,81 -11.50 16,43 15.03 4.11
6 -2,15 -39,42 -6,32 -50,00 -2,96 9.37
7 1. 89 51.25 -2.59 33.20 9.03 -2.62
12 1 -,13 9,35 -4 ,66 -8 ,66 3,82 3. 72
2 -.08 14.45 -7.17 -13,26 5.88 5.12
3 -.12 -39.04 -.12 -38.80 -5.37 5,37
4 -.93 -15.24 -11.96 -60.71 4. 33 14.81
5 .51 62.84 -11. 72 16.88 15.07 4.07
6 -,83 -31.09 -4.08 -46,15 -2.12 8.53
7 .61 46,98 -3.84 31.H 8.61 -2,20
13 1 -.09 6,74 -2,98 -6.02 3.18 3,06 ,,
2 -.05 10.41 -4.57 · -9, 25 4.90 4.70
3 .57 -43.44 -.60 -4 2, 24 -7 .14 7 .14
4 ,43 -26,29 -8.15 -51.51 .94 14,90
5 -.72 60,59 -6,95 26.97 15,22 .62
6 ,50 -37.71 -3.13 -4 7.36 -4 .44 9, 74
7 -.65 49.17 -1.94 37.13 9,84 -4.54
14 1 -.09 5,66 -3,07 -3,93 3.02 2,70
2 -,05 8,79 -4. 76 -5,89 4.66 4.H
3 1.98 -46 .15 2,52 -51.19 -8,85 8.85
4 1.84 -31. 70 -5,31 -61.02 -1,17 15.69
5 -2 ,11 60,61 -10,34 41, 3 7 16,53 -2,01
6 1.91 -41.34 -,09 -54,54 -6.29 11.15
7 -2.05 50.97 -5.13 47.85 11.41 -6.55
-------· -------~----
15 1 .53 2,88 -2,28 -4.12 1.51 1.68
2 ,61 3.05 -1.95 -3,56 1.41 1.49
3 .24 -19,67 -1.01 -17,65 -2,51 2.57
4 1.44 -13.14 -5.24 -25,33 .35 5.74
5 .96 25,60 -3.22 9,91 5.50 .59
6 ,69 -17,22 -2,95 -21.15 -1.29 4.00
7 .20 22,12 -,93 14.15 3.86 -1.15
! : !
16 1 .48 3.87 -2.00 -3.70 1.61 1.58
2 .62 3, 3 7 -1.83 -3.48 1.44 1.46
3 .43 -16,84 :. .10 -16,64 . .,2,31 2.~1
4 1.53 I -9 160 -3:Si3 -23.81 • 74 5 .35
5 ,67 24.07 -3,73 9,46 5.36 '?3
6 .83 -13,55 · -1.80 -19,?8 -,94 3.65
7 -.02 20,12 -1.60 13,49 3,67 -.96
OMEMBER LOAD AXIAL -------BENDING MOMENTS--------SHEAR FORCES--
NO, CASE FORCE AT I MIDSPAN AT J AT I AT J
--------------------------------------------------------------------------------
17 1 .33 2,8? -1.27 -2.50 1.35 1.29
2 .43 2,55 -1.20 -2,26 1.22 1.18
3 ,50 -18,49 -.15 -18,18 -3.06 3.06
4 1.26 -13.07 -2.62 -22.94 -.48 5,52
5 . ,26 23.90 -2.32 13. 42 5.63 -,59
6 .78 -16,04 -1.24 -20.31 -1.91 4.15
7 -,22 20.93 -,93 16.05 4.20 -1.96
18 1 .30 2.30 -1.34 -1. 68 1.27 1. 15
2 ,39 1.94 -1.13 -1, 84 1.11 1.09
3 .15 -19,03 1.32 -21,66 -3,70 3,70
4 .84 -14 .1J -1.15 -Z5 .18 -1.32 5.94
-
/4i5)/41 AJIT RANDBAVA & ASSOCIATES
ffi.J'2:{i.J CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
JOB# _____ _
DATE ______ _
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CONSULTING STRUCTURAL ENGINEERS INC
~:p~~::ilE(7W14/Ji.)'!v5E., SUITE 270, LA MIRADA, CALIFORNIA 9063;
· 22-0911 • FAX (714) 522-1149
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CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
f')1° 11?;A'J1 f::M/Mc:.... ~TIN,6f Pz..51q
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§"7.J2[{'7_] CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
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DESIGN _ _...!,:9~-e_. __ _
SHEET#· _____ _
(:::.c,,0:2-1-x:d-9.x J:::f"=-o-t:Jvl!:5
l -#. 7
: :
2 /:r= o.cJr>, s-swffx:21:J= /, ~721,J ·
AT
• i"
**********************************************************
SHEAR DISTRIBUTION -ALONG LINE P.3
****************************************** -ROOF DISTRIBUTION
SHEAR= 18.626 kip (TOTAL)
------------------------------------PANEL No. of R each V each
No. Sim. Panels (kip) -------------------------------
P-1 1 1.51 8.575 -----
P-2 1 1.77 10.051 -----
0 0.000 0.000
SUM OF RIGIDITIES = 1 * 1.51 = 1.51
1 * 1.77 = 1.77
0 * 0 = 0 --------------------R sum = 3.28
SUM OF SHEAR FORCES= 1 * 8.575 = 8.575
1 * 10.051 = 10.051
0 * 0.000 = 0.000 '
--------------------V sum = 18.626 -Veach= V total* (Reach/ R sum)
: :
-
·-
-
5lu2-·
******************************************************************* WALLS ALONG LINE WALL RIGIDITY
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.1(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-1
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 33 0.378 0.135 ------------------------------------
6 33 0.181 0.055 ------------------------------------
PARALLEL WI¼.LL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 6 8 0.75 0.267 3.742 ------------------------------------
2 6 5 1.2 0.532 1.876 ------------------------------------
5.619 0. 1'77
PANEL DEFLECTION = 0.135 -0.055 +0.177 =0.258
PANEL RIGIDITY = 1 /0.258 =3.873
PANEL W/ 1 OPENING P-1 t '2...
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft)
+ 15.5 33 0.469 0.182 __ ..;.r---
9 33 0.272
PARALLEL WALL ELEMENTS. (PIERS)
0.083
-'.: RC . .. ~ ---~--------------------------------------------Pier h
(ft)
d
(ft)
h/d DFi 1/DFi
1 9 8 1.125 0.479 2.083
2 9 5 1.8 1.123 0.890
DF
2.974 0.336
PANEL DEFLECTION = 0.182 -0.083 +0.336 =0.434
.PANEL RIGIDITY = 1 /0. 434 =2. 300
L = o, ~8 --;-o,/_f-f' -o,og 3 + o, ~3 tr= o,G 6 2 ·
p_,:: ¼ -= /,:t-/.
;
-
i 4cu> *******************************************************************
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-2
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 34.58 0.361 0.127 ------------------------------------
6 34.58 0.173 0.052 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 6 5 1.2 0.532 1.876 ------------------------------------
2 6 9.58 0.626 0.212 4.706 ------------------------------------
6.583 0. 1·51
PANEL DEFLECTION = 0.127 -0.052 +0.151 =0.226
PANEL RIGIDITY = 1 /0.226 =4.412
PANEL W/ 1 OPENING P-i 1
SERIAL WALL ELEMENTS RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 15.5 34.58 0.448 0.170 ~:14:3
------------------_____ .,..
. ' ------------
9 34.58 0.260 0.079 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . :RC .
-----------------;--------~------------------=--Pier h d h/d DFi 1/DFi DF
. (ft) (ft) ------------------------------------------
1 9 5 1.8 1.123 0.890 ------------------------------------
2 9 9.58 0.939 0.364 2.741 ------------------------------------------
3.631 0.275
PANEL DEFLECTION = 0.170 -0.079 +0.275 =0.365
PANEL RIGIDITY = 1 /0.365 =2.732
..6 -o, ~'"2-6"" + o,lt"f.3 -o,o7f f->0-2--?r-_ 0 ,rg-cr'
f< ::: ½ -= /, 7 7.
I ' '
Swf
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE P.5
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-3
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 27.5 28 0.982 0.673 ------------------------------------
12.5 28 0.446 0.142 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 12.5 4 3.125 3.989 0.250 ------------------------------------
2 12.5 16 0.781 0.282 3.545 ------------------------------------------
3.796 0. 2'63
PANEL DEFLECTION = 0.673 -0.142 +0.263 =0.794
PANEL RIGIDITY = 1 /0.794 =1.259
PANEL W/ 1 O~ENING P-3
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) -------------------------------~~@=-+ 12.5 34.58 0.361 0.127 ------------------------------~-----
12.5 34.58' 0.361 0.113 ------------------------------------
:PARALLEL;WALL ELEMENTS (PIERS) . RC . ------------------------------------------~-----;
Pier h d h/d DFi 1/DFi DF
(ft) . (ft) ------------------------------------------
1 12.5 4 3.125 3.989 0.250 ------------------------------------
2 12.5 16 .0.781 0.282 3.545 ------------------------------------------
3.796 0.263
PANEL DEFLECTION = 0.127 -0.113 +0.263 =0.277
.PANEL RIGIDITY = 1 /0. 277 =3. 602
/.
: :
·r
..J_ (2_.:::: ~f-
:;:::-3~2 c;>
. '
-
************************************************************~L.[;;t;*
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d}3 + 0.3(h/d)
PANEL W/ 1 OPENING P-4
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 27 0.462 0.178 ------------------------------------
12.5 27 0.462 0.148 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ----------·-------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 12.5 4 3.125 3.989 0.250 ------------------------------------
2 12.5 15 0.833 0.307 3.248 ------------------------------------
3.498 0. 2,85
PANEL DEFLECTION = 0.178 -0.148 +0.285 =0.315
PANEL RIGIDITY = 1 /0.315 =3.168
PANEL W/ 1 OPENING P-3
: :
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 34.58 0.361 0.127 ---------------------------------,----
12.5 34.58 0.361 0.113 ------------------------. ------------
PARALLEL WALL ELEMENTS (PIERS) . RC •, ---· --·-----------------·-------*----~----------Pier h d h/d DFi 1/DFi• DF
' (ft) (ft) ------------------------------------------
1 12.5 4 3.125 3.989 0.250 ------------------------------------
2 12.5 16 0.781 0.282 3.545 ------------------------------------------
3.796 0.263
PANEL DEFLECTION = 0.127 -0.113 +0.263 =0.277
PANEL RIGIDITY = 1 /0.277 =3.602
-
-
<;;:1..~16
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-5
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 42.33 0.295 0.098 ------------------------------------
12.5 42.33 0.295 0.091 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 12.5 4 3.125 3.989 0.250 ------------------------------------
2 12.5 30.33 0.412 0.130 7.654 ------------------------------------
7.905 0.126
PANEL DEFLECTION = 0.098 -0.091 +0.126 =0.134
PANEL RIGIDITY = 1 /0.134 =7.450
PANEL W/ 1 OPENING P-3
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC OF
(ft) (ft) ------------------------------------
+ 12.5 34.58 0.361 0.127 -----~ ------------!""-----------------
12.5 34.58 0.361 0.113 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . . .. . ------------~--------~--------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 12.5 4 3.125 3.989 0.250 ------------------------------------
2 12.5 16 .0. 781 0.282 3.545 ------------------------------------------
3.796 0.263
PANEL DEFLECTION = 0.127 -0.113 +0.263 =0.277
.PANEL RIGIDITY = 1 /0. 277 =3. 602
******************************************************************* WALL RIGIDITY WALLS ALONG LINE ----------------------------DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-6
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 12 1.041 0.764 ------------------------------------
0.001 12 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 6 0.000 0.000 19999 ------------------------------------
2 0.001 6 0.000 0.000 19999 ------------------------------------------
39999 o. o·oo
PANEL DEFLECTION = 0.764 -0.000 +0.000 =0.764
PANEL RIGIDITY = 1 /0.764 =1.307
! :
. t
··-
! :
'i"
******************************************************************* WALL RIGIDITY WALLS ALONG LINE ----------------------------DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-7
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 11.5 1.086 0.839 ------------------------------------
0.001 11.5 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 0.001 5.75 0.000 0.000 19166 ------------------------------------
2 0.001 5.75 0.000 0.000 19166 ------------------------------------
38333 0. 0'00
PANEL DEFLECTION = 0.839 -0.000 +0.000 =0.839
PANEL RIGIDITY = 1 /0.839 =1.190
e·
*************************************************************f:<::*1
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-8
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 12.5 11.92 1.048 0.775 ------------------------------
0.001 11.92 0.000 ------------------------------
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
DF
------
------
0.000 ------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 5.96 0.000 0.000 19866 ------------------------------------
2 0.001 5.96 0.000 0.000 19866 ------------------------------------------
39733 o. o·oo
PANEL DEFLECTION = 0.775 -0.000 +0.000 =0.775
PANEL RIGIDITY = 1 /0.775 =1.288
. i'
•' '
-
-6W 10
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-9
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 28 0.446 0.169 ------------------------------------
0.001 28 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 14 0.000 0.000 46666 ------------------------------------
2 0.001 14 0.000 0.000 46666 ------------------------------------------
93333 o. o·oo
PANEL DEFLECTION = 0.169 -0.000 +0.000 =0.169
PANEL RIGIDITY = 1 /0.169 =5.899
PANEL W/ 1 OPENING P-9
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 28 0.446 0.169 ------------------· -------------------
12.5 28 0.446 0.142 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) : RC ---------------------------~-------1------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 12.5 .4 3.125 3.989 0.250 ------------------------------------
2 12.5 16 .0.781 0.282 3.545 ------------------------------------
3.796 0.263
PANEL DEFLECTION = 0.169 -0.142 +0.263 =0.290
-PANEL RIGIDITY = 1 /0. 290 =3. 446
-:.• •
~UJ ((
**********************************************************
SHEAR DISTRIBUTION -ALONG LINE 2
******************************************
ROOF DISTRIBUTION
SHEAR= 73.225 kip (TOTAL}
------------------------------------PANEL No. of R each V each
No. Sim. Panels (kip) -------------------------------
P-10 1 1.307 15.254 -----
P-11 2 2.366 27.614 -----
P-13 1 0.235 2.743
SUM OF RIGIDITIES 1 * 1.307 =
2 * 2.366 =
1 * 0.235 =
1.307
4.732
0.235 --------------------R sum = 6.274
SUM OF SHEAR FORCES= 1 * 15.254 = 15.254
2 * 27.614 = 55.228
1 * 2.743 = 2.743 --------------------V sum = 73.225
Veach= V total* (Reach/ R sum)
·t
/1..,U { 2,..
**********************************************************?********
WALL RIGIDITY WALLS ALONG LINE 2
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-10
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 12.5 12 1.041 0.764 ------------------------------
0.001 12 0.000 ------------------------------
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
DF
------
------
0.000 ------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 6 0.000 0.000 19999 ------------------------------------
2 0.001 6 0.000 0.000 19999 ------------------------------------------
39999 0. 0'00
PANEL DEFLECTION = 0.764 -0.000 +0.000 =0.764
PANEL RIGIDITY = 1 /0.764 =1.307
PANEL W/ 1 OPENING P-10
SERIAL WALL ELEMENTS
Solid h d
(ft) (ft) ------------------
+ 12.5 12 ---=-=~-------------
0.001 12 ------------------
: RC
h/d DC DF
-------------o~i~ 1.041 0.764 ------------------
0.000 0 .. 000 ------------------
PARALLEL WALL ELEMENTS (.PIERS) : '. RC
---·r __________________ ~-----------------------
Pier h
(ft) .
; d
(ft)
h/d
1 0.001 .6 0.000
2 0.001 6 .0.000
DFi 1/DFi DF
------------
0.000 19999 ------------
0.000 19999 ------------
39999. 0.000
PANEL DEFLECTION = 0.764 -0.000 +0.000 =0.764
.PANEL RIGIDITY = 1 /0. 764 =l. 307
-
4wt,3
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 2
DC: DEFLECTION; CANTILEVER TYPE
OF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-11 ~ f-t'"2--
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 29 0.431 0.161 ------------------------------------
6 29 0.206 0.062 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 6 4 1.5 0.787 1.269 ------------------------------------
2 6 4.9 1.224 0.550 1.815 ------------------------------------------
3.084 0. 3'24
PANEL DEFLECTION = 0.161 -0.062 +0.324 =0.422
PANEL RIGIDITY = 1 /0.422 =2.366
PANEL W/ 1 OPENING P-11
SERIAL WALL ELEMENTS : RC ------------------------------------------AF =~, Is 73 -0 ,of.6 f o,7t i. Solid h d h/d DC OF
(ft) (ft) ------------------------------o~~J3 ::-0,1 r-.:2-3
+ 12.5 29 0.431 0.161 ------------·------------~=-----------F-~~ /,3~.
9 29 0.310 0.096 ------------------------------------
PARALLEL WALL ELEMENTS (PIER$)_ : RC · --------------------~--------~------------------Pier h d h/d DFi 1/DP.i DF
(ft) (ft) ------------------------------------
1 9 .4 2.25 1.814 0.551 ------------------------------------
2 9 4.9 .1.836 1.170 0.854 ------------------------------------
1.405. 0.711
PANEL DEFLECTION = 0.161 -0.096 +0.711 =0.776
.PANEL RIGIDITY = 1 /0. 776 =1. 287
;5uJ/<f
******************************************************************* WALL RIGIDITY WALLS ALONG LINE 2 ----------------------------DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-13
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 6 2.083 4.241 ------------------------------------
0.001 6 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 3 0.000 0.000 9999. ------------------------------------
2 0.001 3 0.000 0.000 9999. ------------------------------------------
19999 0. 0'00
PANEL DEFLECTION = 4.241 -0.000 +0.000 =4.241
PANEL RIGIDITY = 1 /4.241 =0.235
PANEL W/ 1 OPENING P-13
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 ------------
0.001 ------------
PARALLEL WALL
6 2.083 4.241 IP--..36
------------------------
6 ' 0.000 0.000 ------------------------
ELEMENTS (PIERS) . RC
AF::,_ 1.t-~ ~ 6 .
{<. =-~ ==-.. o,C .K£, . ------------------------------------------~-----' Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 .3 0.000 0.000 9999. ------------------------------------
2 0.001 3 . 0. 000 0.000 9999. -------------------------------------------
19999. 0.000
PANEL DEFLECTION = 4.241 -0.000 +0.000 =4.241
,PANEL RIGIDITY = 1 /4.241 =0.235
• j'
-
-
-
**********************************************************
SHEAR DISTRIBUTION -ALONG LINE 1
***************************~**************
ROOF DISTRIBUTION
SHEAR= 9.328 kip (TOTAL)
------------------------------------PANEL No. of R each V each
No. Sim. Panels (kip) -------------------------------
P-14 1 1.307 2.606 -----
P-15 1 0.997 1.988 -----
P-16 1 2.375 4.735
SUM OF RIGIDITIES = 1 * 1.307 =
1 * 0.997 =
1 * 2.375 =
1.307
0.997
2.375 --------------------R sum = 4.679
SUM OF SHEAR FORCES= 1 * 2.606 = 2.606
1 * 1.988 = 1.988
1 * 4.735 = 4.735 --------------------V sum = 9.328
Veach= V total* (Reach/ R sum)
..
-
-
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 1
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-14
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 12 1.041 0.764 ------------------------------------
0.001 12 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 6 0.000 0.000 19999 ------------------------------------
2 0.001 6 0.000 0.000 19999 ------------------------------------------
39999 0. 0'00
PANEL DEFLECTION = 0.764 -0.000 +0.000 =0.764
PANEL RIGIDITY = 1 /0.764 =1.307
PANEL W/ 1 OPENING P-14
SERIAL WALL ELEMENTS : RC
Solid h d h/d
(ft) (ft) ------------------------
+ 12.5 12 1.041 ---------------~...:. .... ------
0.001 12 0.000 ------------------------
DC DF
Af::--------£~.i"F 0.764 ------------1R. ..1__
0.000 ~~-
------------
PARALLEL W~LL ELEMENTS (PIE-RS) · : RC , _ ----------~-------·r ___________________________ _
Pier h d h/d 1DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 0.001 .6 0.000 0.000 19999 ------------------------------------
2 0.001 6 . 0. 000 0.000 19999 ------------------------------------
39999_ 0.000
PANEL DEFLECTION = 0.764 -0.000 +0.000 =0.764
,PANEL RIGIDITY = 1 /0. 764 =1. 307
0•'+?--1
2, :S,1--2. _
-
~wt? *******************************************************************
WALL RIGIDITY WALLS ALONG LINE 1
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
OF= 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-15
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC OF
(ft) (ft) ------------------------------------
+ 12.5 24 0.520 0.212 ------------------------------------
9 24 0.375 0.117 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 9 4 2.25 1.814 0.551 ------------------------------------
2 9 4 2.25 1.814 0.551 ------------------------------------------
1.102 0. 9'07
PANEL DEFLECTION = 0.212 -0.117 +0.907 =1.002
PANEL RIGIDITY = 1 /1.002 =0.997
PANEL W/ 1 OPENING P-15
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF bf= 0,1 ?o-o,I I 7 f o.,qo J
(ft) (ft) ------------------------------":::::'
+ 12.5 24 0.520 0.212 -~~]":-
: I ------------------------------------{<h~ g' 24 0.375 0.117 ------------------------------------
P.;RALL~L WALL ELEMENTS (PIERS} : RG .. -----------------------------------~--------1 ---Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 9 _4 2.25 1.814 0.551 ------------------------------------
2 9 4 2.25 1.814 0.551 ------------------------------------
1.102. 0.907
PANEL DEFLECTION = 0.212 -0.117 +0.907 =l.002
,PANEL RIGIDITY = 1 /1.002 =0.997
°'Cf~
-/, o~.:z..
-
: :
• j'
>Lt.I ,t *******************************************************************
WALL RIGIDITY
DC: DEFLECTION; CANTILEVER TYPE
DP: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-16
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 12.5 28 0.446 0.169 ------------------------------
9 28 0.321 ------------------------------
WALLS ALONG LINE 1
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
DF
------
------
0.099 ------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 9 4.88 1.844 1.180 0.847 ------------------------------------
2 9 7.8 1.153 0.499 2.000 ------------------------------------------
2.847 0. 3,51
PANEL DEFLECTION = 0.169 -0.099 +0.351 =0.420
PANEL RIGIDITY = 1 /0.420 =2.375
PANEL W/ 1 OPENING P-16
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF .LJ.F:::Cl,{~3-o,o ?? ~, tr-'1
(ft) (ft) -------------------------------q_,74!,-= o,:s, q s--
+ 12.5 28 0.446 0.169 ------------------------------------l ' 9 28 0.321 0. 09·9 fl-=-AF, ------------------------------------
PAR,ALLEL WALL ELEMENTS (PIER~) . RC .
. . ------------------------------------------------;pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 9 4.88 1.844 1.180 0.847 ------------------------------------
2 9 7.8 1.153 0.499 2.000 ------------------------------------------
2.847 0.351
PANEL DEFLECTION = 0.169 -0.099 +0.351 =0.420
PANEL RIGIDITY = 1 /0.420 =2.375
2\.r-3 2 I
I ,
**********************************************************~lull
SHEAR DISTRIBUTION -ALONG LINE A
******************************************
ROOF DISTRIBUTION
SHEAR= 63.660 kip (TOTAL)
------------------------------------PANEL No. of R each V each
No. Sim. Panels (kip) -------------------------------
P-17 1 1.274 6.249 -----
P-18 1 1.577 7.736 -----
P-19 1 2.747 13.475 -----
P-20 4 1.326 6.504 -----
P-24 1 2.076 10.183 -------------------------------
SUM OF RIGIDITIES = 1 * 1.274 = 1.274
1 * 1.577 = 1.577
1 * 2.747 = 2.747
4 * 1.326 = 5.304
1 * 2.076 = 2. 076 ' --------------------R sum = 12.978
SUSUM SHEAR FORCES = 1 * 6.249 = 6.249
1 * 7.736 = 7.736
1 * 13.475 = 13.475
4 * 6.504 = 26.017
1 * '10.183 = 10.183 --------------------V sum= 63.660
V each = V total * ( R each/ R sum )
! :
. r
-
-
,5lJ2,.:::>
******************************************************************* WALL RIGIDITY WALLS ALONG LINE A ----------------------------DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0. 1 (h/d) 3 +· 0. 3 (h/d)
PANEL W/ 1 OPENING P-17
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 28 0.446 0.169 ------------------------------------
9 28 0.321 0.099 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 9 8 1.125 0.479 2.083 ------------------------------------
2 9 5 1.8 1.123 0.890 ------------------------------------------
2.974 0. 3'36
PANEL DEFLECTION = 0.169 -0.099 +0.336 =0.405
PANEL RIGIDITY = 1 /0.405 =2.463
PANEL W/ 1 OPENING P-17
SERIAL WALL ELEMENTS RC ------------------------------------------Solid h d h/d DC DF .6.F = r?, 143 -o,011+od3C,
(ft) (ft) ------------------------------------~ 0,3, $
0, 1£1-.::i. + 12.5 28 0.446 0.169 ------------------------------__ ..;.~,..-
_l_ 9 28 0.321 0.099 {<=-Af ------------------------------------
P~LLEL WALL ELEMENTS (PIERS) . : RC . -----------------·--------------------·i _______ _ I
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 9 8 1.125 0.479 2.083 ------------------------------------
2 9 5 1.8 1.123 0.890 ------------------------------------
2.974 0.336
PANEL DEFLECTION = 0.169 -0.099 +0.336 =0.405
,PANEL RIGIDITY = 1 /0. 405 =2. 463
,::..2_.,_(;32,
-
·r
5W2-'f
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE A
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-18
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 32 0.390 0.141 ------------------------------------
9 32 0.281 0.086 ------------------------------------
PARALLEL WALL ELEMENTS {PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 9 5 1.8 1.123 0.890 ------------------------------------
2 9 12 0.75 0.267 3.742 ------------------------------------------
4.633 0. 2,15
PANEL DEFLECTION = 0.141 -0.086 +0.215 =0.270
PANEL RIGIDITY = 1 /0.270 =3.699
• j' ..
-
-
5'02-2-
******************************************************************* WALL RIGIDITY WALL ALONG LINE A
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 2 OPENINGS ONE ABOVE THE
SERIAL WALL ELEMENTS : RC
Solid
+
h
(ft)
15.5
9
d
(ft) ------
32
h/d
0.484
32 0.281
DC
0.190
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL# P-18
DF
0.086
L~ = 0 ,( f-b-O•clt(f'7.25l'f
= O•-$~'¢
PARALLEL WALL ELEMENTS (PIERS) : RC
Pier h
(ft)
d
(ft)
h/d DFi 1/DFi
1 7 5 1.4 0.694 1.440
2 7 4.833 1.448 0.738 1.354
3 9 4.17 2.158 1.652 0.605
DF
3.399 0.294
PANEL DEFLECTION = 0.190 -0.086 +0.294 =0.398
PANEL RIGIDITY = 1 /0.398 =2.510
-
.?'w2__3
******************************************************************* WALL RIGIDITY WALLS ALONG LINE A
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-19
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 12.5 31.25 0.4 0.145 ------------------------------
6 31.25 0.192 ------------------------------
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
DF
------
------
0.058 ------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 6 19.25 0.311 0.096 10.35 ------------------------------------
2 6 6 1 0.4 2.5 ------------------------------------------
12.85 o. 0'77
PANEL DEFLECTION = 0.145 -0.058 +0.077 =0.165
PANEL RIGIDITY = 1 /0.165 =6.058
PANEL W/ 1 OPENING P-19
SERIAL WALL ELEMENTS : RC
Solid h d h/d
(ft) (ft) ------------------------
+ 15.5 31.25 0.496 ------------------------
9 31.25 0.288 ------------------------
DC DF
-------~zq-0.197 -~.;.., ___ ------
0.088 ------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ----------------------~-------·r ----------------Pier h d h/d DFi 1/DFi: DF
(ft) (ft) ------------------------------------------
1 9 19.25 0.467 0.150 6.645 ------------------------------------
2 9 6 1.5 0.787 1.269 ------------------------------------------
7.915 0.126
PANEL DEFLECTION = 0.197 -0.088 +0.126 =0.235
.PANEL RIGIDITY = 1 /0.235 =4.252
/4 = O. /6 J--f-o, / ,5 { _o,o 8~ T o, I~ .::-o, 3 6 Cf-
/; -
-
~w2-,<f
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE A
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 30 0.416 0.153 ------------------------------------
9 30 0.3 0.092 ------------------------------------
PARALLEL W~LL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 9 5 1.8 1.123 0.890 ------------------------------------
2 9 5 1.8 1.123 0.890 ------------------------------------
1.780 0. 5'61
PANEL DEFLECTION = 0.153 -0.092 +0.561 =0.622
PANEL RIGIDITY = 1 /0.622 =1.605
PANEL W/ 1 OPENING
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 30 0.416 0.153 <!.rJ22..
----------------------------------~--
0.001 30 o·. ooo 0.000 : ------------------------------------
PARALLEL WA:pL ELEMENTS (PIERS) . RC . ---------------------------------------------~--Pier h i d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 15 0.000 0.000 49999 ------------------------------------
2 0.001 15 . 0. 000 0.000 49999 ------------------------------------------
99999 0.000
PANEL DEFLECTION = 0.153 -0.000 +0.000 =0.153
PANEL RIGIDITY = 1 /0.153 =6.496
: :
• i"
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE A
==============
-
-
***~***************************************************************
WALL RIGIDITY WALLS ALONG LINE A ----------------------------
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-2;j-
. r
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 25 30 0.833 0.481 ------------------------------------
0.001 30 0.000 0.000 ------------------------------------
PARALLEL W.~LL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 15 0.000 0.000 49999 ------------------------------------
2 0.001 15 0.000 0.000 49999 ------------------------------------------
99999 0. 0'00
PANEL DEFLECTION = 0.481 -0.000 +0.000 =0.481
PANEL RIGIDITY = 1 /0.481 =2.076
-
-
-
>w2-&
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 8
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-25
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 25 28.6 0.874 0.529 ------------------------------------
7.66 28.6 0.267 0.082 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS} . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 7.66 12.75 0.600 0.201 4.952 ------------------------------------
2 7.66 7.866 0.973 0.384 2.600 ------------------------------------------
7.553 0 .1'32
PANEL DEFLECTION = 0.529 -0.082 +0.132 =0.579
PANEL RIGIDITY = 1 /0.579 =1.725
. i"
-
-
?wb7
*****************************************************************¾* WALL RIGIDITY WALLS ALONG LINE 8 ----------------------------
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-26
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 25 36.4 0.686 0.335 ------------------------------
10 36.4 0.274 ------------------------------
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.1(h/d)3 + 0.3(h/d)
DF
------
------
0.084 ------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 10 8.17 1.223 0.550 1.816 ------------------------------------
2 10 7.25 1.379 0.676 1.478 ------------------------------------------
3.295 0. 3'03
PANEL DEFLECTION = 0.335 -0.084 +0.303 =0.554
PANEL RIGIDITY = 1 /0.554 =1.803
; :
-
-
**********************************************************
SHEAR DISTRIBUTION -ALONG LINE 8
******************************************
ROOF DISTRIBUTION
SHEAR= 54.250 kip (TOTAL)
------------------------------------TYPE No. of R each V each
Sim. Panels (kip) -------------------------------P-25 1 1.725 7.222 -----
P-26 1 1.803 7.549 -----
P-27 1 1.951 8.169 -----
P-28 1 1.516 6.347 -----
P-29 1 1.327 5.556 -----
P-30 1 1.595 6.678 -----
P-31 1 1. 629 6.821 -----
P-32 1 1.411 5.908 -----
0 0 0.000 ----------------------------------SUM I 8 112.957 I 54.250 ------------------------------------
: :
-
5t-a 2-f
******************************************************************* WALL RIGIDITY WALLS ALONG LINE 8
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
OF= 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-27 1 p-..?&' / f-.;i.J_ f-3z:>. p-~ I
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC OF
(ft) (ft) ------------------------------------
+ 10 30 0.333 0.114 ------------------------------------
6 30 0.2 0.060 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi OF
(ft) (ft) ------------------------------------------
1 6 5 1.2 0.532 1.876 ------------------------------------
2 6 5 1.2 0.532 1.876 ------------------------------------------
3.753 0. 2,66
PANEL DEFLECTION = 0.114 -0.060 +0.266 =0.320
PANEL RIGIDITY = 1 /0.320 =3.120
PANEL W/ 1 OPENING P-27
SERIAL WALL ELEMENTS RC
Solid h d h/d DC OF
(ft) (ft) -------------------------------~al.fr + 15.5 30 0.516 0.210 ------------.------------------------
12 30 0.4 0.126 ------------------------------------
PARALLEL, WALL ELEMENTS (PIERS) . RC .
' . .
--------------------J
Pier h id h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 12 0.01 1200 ****** 0.000 ------------------------------------
2 12 25.7 0.466 0.150 6.655 ------------------------------------------
6.655 0.150
PANEL DEFLECTION = 0.210 -0.126 +0.150 =0.234
PANEL RIGIDITY = 1 /0.234 =4.273
: :
• j"
A..=-o,32._ -fOt/fS'iJ'r-,:;,1.2.6 -+ oit.:r-: ..... o,f-{~ R.=-JA.:=. J ... ccr-f
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 8
-
-
<Jle.J 3 a
*******************************************************************
WALL RIGIDITY WALL ALONG LINE 8
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 2 OPENINGS ONE ABOVE THE
SERIAL WALL ELEMENTS : RC
PANEL# P-28
------------------------------------------Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 15.5 30 0.516 0.210 aLtf..lf
------------------------------------
12 30 0.4 0.126 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 7 5 1.4 0.694 1.440 ------------------------------------
2 7 5 1.4 0.694 1.440 ------------------------------------
3 12 5 2.4 2.102 0.475 ------------------------------------
3.355 0.297
PANEL DEFLECTION = 0.210 -0.126 +0.297 =0.381
PANEL RIGIDITY = 1 /0.381 =2.619
-
-
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 8
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-29
SERIAL WALL ELEMENTS : RC.
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 10 30 0.333 0.114 ------------------------------------
6 30 0.2 0.060 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 6 5 1.2 0.532 1.876 ------------------------------------
2 6 5 1.2 0.532 1.876 ------------------------------------------
3.753 0. 2·66
PANEL DEFLECTION = 0.114 -0.060 +0.266 =0.320
PANEL RIGIDITY = 1 /0.320 =3.120
PANEL W/ 1 OPENING P-29
SERIAL WALL ELEMENTS : RC
Solid h d h/d
(ft) (ft) ------------------------
+ 15.5 30 0.516 ------------------------
12 30 6.4 ------------------------
DC DF
------:-~-0.210 ------------
0.126 ------------
P~LLE~ WALL ELEMENTS (PIERS) : RC
: ;
--:-----~ ---------------------------;--------·-P"--
Pier , hi · d h/d DFi 1/DFi DF
(ft) ' (ft) ------------------------------------
1 12 5 2.4 2.102 0.475 ------------------------------------
2 12 13 0.923 0.355 2.812 ------------------------------------
3.287 0.304
PANEL DEFLECTION = 0.210 -0.126 +0.304 =0.387
PANEL RIGIDITY = 1 /0.387 =2.577
L ::: 0' 3 2. r c:;, I 2,-,:j-t;cf' -Ot /-;UJ t-o, 30 r.;:--=-0 ·1T3 b
R. ::. ~ .;_1,~~1
·e
-
******************************************************************* WALL RIGIDITY
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-30
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 10 30 0.333 0.114 ------------------------------
6 30 0.2 ------------------------------
WALLS ALONG LINE 8
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
DF
------
------
0.060 ------
PARALLEL W~LL ELEMENTS (PIERS} . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 6 5 1.2 0.532 1.876 ------------------------------------
2 6 5 1.2 0.532 1.876 ------------------------------------------
3.753 0. 2'66
PANEL DEFLECTION = 0.114 -0.060 +0.266 =0.320
PANEL RIGIDITY = 1 /0.320 =3.120
PANEL W/ 1 OPENING P-30
SERIAL WALL ELEMENTS RC
Solid h d h/d DC
(ft) (ft)
+ 15.5 30 0.516 0.210 ------------------------------' 9 30 0.3
DF
0.092
PARALLEL WALL ELEMENTS (~IERS) : -'.RC . . ' ----~-------------------------------------------Pier h : d h/d DFi 1/DFi DF
(ft) (ft}
1 9 5 1.8 1.123 0.890
2 9 13 0.692 0.240 4.151
5.041 0.198
PANEL DEFLECTION = 0.210 -0.092 +0.198 =0.315
PANEL RIGIDITY = 1 /0.315 =3.166
. .6.. .::::o, 2-1? C + o, ~g _ c;,.0'72.. /<7·/9'8.::::. e>r&--Z--6€5 .
-
-
***********************************************************'7*~}.J
WALL RIGIDITY WALL ALONG LINE 8
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 2 OPENINGS ONE ABOVE THE
SERIAL WALL ELEMENTS RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 15.5 30 0.516 0.210 ------------------------------
7 30 0.233 ------------------------------
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
PANEL# P-31
DF
o,"Jr~?&-
------
0.071 ------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 7 5 1.4 0.694 1.440 ------------------------------------
2 7 4.5 1.555 0.843 1.186 ------------------------------------
3 7 14.5 0.482 0.156 6.407 ------------------------------------------
9.033 0.110
PANEL DEFLECTION = 0.210 -0.071 +0.110 =0.249
PANEL RIGIDITY = 1 /0.249 =4.006
: :
-
--
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 8
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d}3 + 0.3(h/d)
PANEL W/ 1 OPENING P-32
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC OF
(ft) (ft) ------------------------------------
+ 10 33 0.303 0.102 ------------------------------------
6 33 0.181 0.055 ------------------------------------
PARALLEL W~LL ELEMENTS (PIERS) : RC ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 6 5 1.2 0.532 1.876 ------------------------------------
2 6 8 0.75 0.267 3.742 ------------------------------------------
5.619 0.1:77
PANEL DEFLECTION = 0.102 -0.055 +0.177 =0.224
PANEL RIGIDITY = 1 /0.224 =4.447
PANEL W/ 1 OPENING P-32
SERIAL WALL ELEMENTS : RC
Solid h d h/d
(ft) (ft) ------------------------
+ 15.5 33 0.469 :-~----------------------
9 30 0.3 ------------------------
DC OF
------o.~7-0.182 ------------
0.092 : ------------
·PARALLEL .WALL ELEMENrs (PIERS)'. : RC . .. , ------------------------------------------------' Pier h : d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 9 5 1.8 1.123 0.890 ------------------------------------
2 9 8 .1.125 0.479 2.083 ------------------------------------
2.974 0.336
PANEL DEFLECTION = 0.182 -0.092 +0.336 =0.425
.PANEL RIGIDITY = 1 /0.425 =2.348
~ -= o,22.¢::, -{-CJ,2<,co7 _c,,09 2. r-"'~ 6 .:::= 0,70(3 7
R =-¼ -=-;,c;:,r/
-
-
*******************************************************************
WALL RIGIDITY WALLS ALONG LINE 6
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = O.l(h/d)3 + 0.3(h/d)
:~~~-~~-~-~:~~=~: ___ P-35 f f-3-/
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 28 21 1.333 1.348 ------------------------------------
0.001 21 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 10.5 0.000 0.000 34999 ------------------------------------
2 0.001 10.5 0.000 0.000 34999 ------------------------------------------
69999 0.000
PANEL DEFLECTION·= 1.348 -0.000 +0.000 =1.348
PANEL RIGIDITY = 1 /1.348 =0.741
·;-
-
-
*****************fa*************************************************
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3(h/d)
DF = 0.l(h/d)3 + 0.3(h/d)
PANEL W/ 1 OPENING P-37
: :
·r
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 20 0.625 0.285 ------------------------------------
0.001 20 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 10 0.000 0.000 33333 ------------------------------------
2 0.001 10 0.000 0.000 33333 ------------------------------------------
66666 0. 0,00
PANEL DEFLECTION = 0.285 -0.000 +0.000 =0.285
PANEL RIGIDITY = 1 /0.285 =3.506
-
***********************************************************£~.!?
WALL RIGIDITY WALLS ALONG LINE E
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
PANEL W/ 1 OPENING P-39
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC
(ft) (ft) ------------------------------
+ 27.5 32 0.859 0.511 ------------------------------
0.001 32 0.000 ------------------------------
DC= 0.4(h/d)3 + 0.3
DF = O.l(h/d)3 + 0.3
DF
------
------
0.000 ------
PARALLEL W~LL ELEMENTS (PIERS) . RC .
Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------
1 0.001 16 0.000 0.000 53333 ------------------------------------
2 0.001 16 0.000 0.000 53333 ------------------------------------
****** 0. O·OO
PANEL DEFLECTION = 0.511 -0.000 +0.000 =0.511
PANEL RIGIDITY = 1 /0.511 =1.954
PANEL W/ 1 OPENING P-39
SERIAL WALL ELEMENTS : RC
Solid h d h/d
(ft) (ft) ------------------------
+ 12.5 32 0.390 ------------------------·-0.001 32 0.000 ------------------------
DC DF
------------
0.141 ------------' 0.000 ------------
PARALLEL WALL ELEMENTS (PIERS) . RC . -------------------------~--------~-------------Pier h d
(ft) (ft) ------------------
1 0.001 16 ------------------
2 0.001 16 ------------------
PANEL DEFLECTION =
.PANEL RIGIDITY =
h/d DFi 1/DFi : DF
------------------------
0.000 0.000 53333 ------------------
0.000 0.000 53333 ------------------------
****** 0.000
0.141 -0.000 +0.000 =0.141
1 /0.141 =7.090
' --
-
-
: :
5u1]d
*************************************************************** WALL RIGIDITY WALLS ALONG LINE J
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3
DF = O.l(h/d)3 + 0.3
PANEL W/ 1 OPENING P-40 f-tp! ,.
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 15 25.92 0.578 0.251 ------------------------------------
0.001 25.92 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 12.96 0.000 0.000 43199 ------------------------------------
2 0.001 12.96 0.000 0.000 43199 ------------------------------------------
86399 0. 0,00
PANEL DEFLECTION = 0.251 -0.000 +0.000 =0.251
PANEL RIGIDITY = 1 /0.251 =3.981
PANEL W/ 1 OPENING P-40 7-~(
SERIAL.WALL ELEMENTS : RC
Solid h d h/d DC DF .b. F -::: "' .r ff 7 (ft) (ft) ------------------------------------f·=~~ + 12.5 25.92 0.482 0.189 17,:_l!:t.7
------------------------------~-----
0.001 25.92 0.000 0. 000, ------------------------------------
PARALLEL WALL ELEMENTS (PIERS), . RC . . . . : . ----------------------------------·-------------P,ier h d h/d DFi ·1/DFi OF
(ft) (ft) ------------------------------------------
1 0.001 12.96 0.000 0.000 43199 ------------------------------------
2 0.001 12.96 0.000 0.000 43199 ------------------------------------------
86399 0.000
PANEL DEFLECTION = 0.189 -0.000 +0.000 =0.189
PANEL RIGIDITY = 1 /0.189 =5.275
6,~/<3
I
--
~W ?C(
***************************************************************
WALL RIGIDITY WALLS ALONG LINE 6-,J
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3
DF = O.l(h/d)3 + 0.3
PANEL W/ 1 OPENING P-42
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 21 0.595 0.262 ------------------------------------
0.001 21 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d
(ft) (ft) ------------------
1 0.001 10.5 ------------------
2 0.001 10.5 ------------------
PANEL DEFLECTION =
PANEL RIGIDITY =
h/d DFi 1/DFi DF
------------------------
0.000 0.000 34999 ------------------
0.000 0.000 34999 ------------------------
69999 0. 0,00
0.262 -0.000 +0.000 =0.262
1 /0.262 =3.803
. r
·:e
: :
·;-
~(<) {a?·
*************************************************************** WALL RIGIDITY WALLS ALONG LINE iJ
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3
DF = O.l(h/d)3 + 0.3
PANEL W/ 1 OPENING P-43 1 p-W
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 15 20.5 0.731 0.376 ------------------------------------
0.001 20.5 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) -------------------------------------------
1 0.001 10.25 0.000 0.000 34166 ------------------------------------
2 0.001 10.25 0.000 0.000 34166 ------------------------------------------
68333 0. 0,00
PANEL DEFLECTION = 0.376 -0.000 +0.000 =0.376
PANEL RIGIDITY = 1 /0.376 =2.658
PANEL W/ 1 OPENING P-43 / -p-<'7JC
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF .Ap -:::-(}, u, t".
(ft) (ft) ------------------------------o~:or--I
+ 12.5 20.5 0.609 0.273 ~ =-.c5.F -----------------------------.;-------
0.001 20.5 0.000 0.000 -------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC .
• • l • ---------·-----------------·----·---------------
: l?ier h d h/d DFi t/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 10.25 0.000 0.000 34166 ------------------------------------
2 0.001 10.25 0.000 0.000 34166 ------------------------------------------
68333 0.000
PANEL DEFLECTION = 0.273 -0.000 +0.000 =0.273
PANEL RIGIDITY = 1 /0.273 =3.654
-~87/
-
$0~!
***************************************************************
WALL RIGIDITY WALLS ALONG LINE
DC: DEFLECTION; CANTILEVER TYPE
DF: DEFLECTION; FIXED TOP & BOTTOM TYPE
DC= 0.4(h/d)3 + 0.3
DF = O.l(h/d)3 + 0.3
PANEL W/ 1 OPENING P-45
SERIAL WALL ELEMENTS : RC
Solid h d h/d DC DF
(ft) (ft) ------------------------------------
+ 12.5 20 0.625 0.285 ------------------------------------
0.001 20 0.000 0.000 ------------------------------------
PARALLEL WALL ELEMENTS (PIERS) . RC . ------------------------------------------------Pier h d h/d DFi 1/DFi DF
(ft) (ft) ------------------------------------------
1 0.001 10 0.000 0.000 33333 ------------------------------------
2 0.001 10 0.000 0.000 33333 ------------------------------------------
66666 0. 0,00
PANEL DEFLECTION = 0.285 -0.000 +0.000 =0.285
PANEL RIGIDITY = 1 /0.285 =3.506
! :
-
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE-
********************************************************i************** Uplift About Base Of Wall Panel Number = P-
Wall Height, H = 26.50 ft ( Finish Floor To Top of Wall )
Roof Height, H'= 30.50 ft ( Finish Floor To Ave. Ledger Ht.
Mezz Height, H' '= o.oo ft ( Finish Floor To Mezz. Fin. Ht.
Base Height,H'' '= 2.00 ft ( Bottom of Panel To Floor Slab)
Wall Length, B = 33.00 ft fc' = 4 ksi
Wall Thk, t = 8.00 in fy = 60 ksi
Roof D.L. On Wall = 0.068 K/ft *
LOADS ON PANEL . . ----------------Roof Lateral, Vr = Per Seismic Cale
Mezz Lateral, Vm = Per Seismic Cale
Wt of Panel above Slab
Wp = 87.45 2.10
Wall Lateral, Vw = Wp * 0.092
Total Lateral, V = V roof + V mezz + V
SHEAR STRENGTH:
Left Pier Width =
Rirht Pier Width =
Relative Rigidity of Left Pier =
Relative Rigidity of Right Pier=
V -Left =
16.470
wall
33 =
=
=
=
=
=
8.00 ft
5.00 ft
2.08
0.89
=
(
2.083 *
2.083 +
1.4 *
0.89)
11.539 * 1000
Vu -Left = ---------------------------------= 8 * 96.00
2.244 Kips
8.60 kips o.oo kips
85.35 kips
7.87 kips
16.47 kips
11.54 Kips
21.04 psi
Concrete Shear Strength, v c =
'',Shear Reinf Not Req'd
0.85 * 2 * fc'Al/2 = 107.52_psi
. rv Right=
( 2.083 +
1.4 *
16.;470
0.89)
4.9305 * 1000
= 4.93 Kips
VU -Right = ---------------------------------= 14.38 psi
8 *
Concrete Shear Strength, v .c =
Shear Reinf Not Req'd
BASE SHEAR:
60.00
0.85 * 2 * fc'Al/2 = 107.52 psi
)
)
-
-
16.470 * 1000
v-base = ------------------= 499.1 :n
Allow Base Shear = 1.33 * 1500
= 1995 Lbs /ft O.K.!!!
Provide #5 dowels at 24" o.c.
from Panel to Slab
UPLIFT:
262.3 + 0.0 + 104.3
T = C = -------------------------------=
33 * 0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) =
Reg. No. of Dowels at Bottom of Panel =
=
o.k.
Net Uplift, T' = -27.69 kips
Counter Net Uplift.Using The Following:
1. Weight of Backfill
Wl = 16.5 *1.33 *0.12* 2.00 =
2. Weight of Cont. Footing
W2 = 16.5 *0.15* 2.50 *1.5 =
3. Weight of 1/2 Adjacent Panel
W3 = 12 *0.10* 26.50 =
TOTAL RESISTING DEAD LOAD Wtl = . !
Uplift Force T' = -27..69 kip~
Lbs / ft
12.34 kips
-27.69 Kips·
T' /(1.33*3.0)
-6.9
5. 28 kips
9.28 kips
31.80 kips
46.36 KIPS
·Total Dead Load * • 8 5
• j"
= 39.40 Kips more t~an uplift force
0. K. ! '
NO NET UPLIFT ! ! !
-
-
·;-
-
. sw+~
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE-
***********************************************************************
Uplift About Base Of Wall Panel Number = P-2
Wall Height, H = 26.50 ft ( Finish Floor To Top of Wall )
Roof Height, H'= 30.50 ft ( Finish Floor To Ave. Ledger Ht.
Mezz Height, H' '= 0.00 ft ( Finish Floor To Mezz. Fin. Ht.
Base Height,H' ''= 2.00 ft ( Bottom of Panel To Floor Slab)
Wall Length, B = 33.00 ft fc' = 4 ksi
Wall Thk, t = 8.00 in fy = 60 ksi
Roof D.L. On Wall = 0.068 K/ft *
LOADS ON PANEL . . ----------------Roof Lateral, Vr = Per Seismic Cale
Mezz Lateral, Vm = Per Seismic Cale
wt of Panel above Slab
Wp = 87.45 2.10
Wall Lateral, Vw = Wp * 0.092
Total Lateral, V = V roof + V mezz + V
SHEAR STRENGTH:
Left Pier Width =
Rirht Pier Width =
Relative Rigidity of Left Pier =
Relative Rigidity of Right Pier=
V -Left =
17.970
wall
33 =
=
=
=
=
=
9.58 ft
5.00 ft
2.74
0.89
=
(
2.741 *
2.741 +
1.4 *
0.89)
13.565 * 1000
VU -Left = ---------------------------------= 8 * 114.96
2.244 Kips
10.10 kips
0.00 kips
85.35 kips
7.87 kips
17.97 kips
13.57 Kips
20.65 psi
concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fc'Al/2 = 107.52. psi
V -Right=
Vu -Right
0.S9 * ,17.970 ----------------~----~----( 2.741 +
L4 *
0.89 i)
4.4047 * 1000
=
= ---------------------------------= 60.00
4.40 '.Kips
12.85 psi
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fc'Al/2 = 107.52 psi
BASE SHEAR:
I
)
)
• i",.
-17.970 * 1000
v-base = ------------------= 544.6
33
Allow Base Shear = 1.33 * 1500
Lbs /ft =
UPLIFT:
308.1 +
1995 O.K.!!!
Provide #5 dowels at 24" o.c.
from Panel to Slab
o.o + 104.3
T = C = -------------------------------=
33 *.0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) =
Req. No. of Dowels at Bottom of Panel =
=
o.k.
Net Uplift, T' = -26.15 kips
Counter Net Uplift ·using The Following:
1. Weight of Backfill
Wl = 16.5 *1.33 *0.12* 2.00 =
2. Weight of Cont. Footing
W2 = 16.5 *0.15* 2.50 *1.5 =
3. Weight of 1/2 Adjacent Panel
W3 = 12 *0.10* 26.50 =
TOTAL RESISTING!DEAD LOAD Wtl =
Uplift Force T' = · -26 .15 -kips
Lbs/ ft
13.88 kips
-26.15 Kips
T' /(1.33*3.0)
-6.6
5.28 kips
9.28 kips
31. 80 kips
46.36 KIPS
Total Dead Load* .85 = 39.40 Kips mo~e than uplift force
O.K. !
NO NET UPLIFT ! ! !
-
-
f)d-t71
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE-
***********************************************************************
Uplift About Base Of Wall Panel Number = P-11
Wall Height, H = 26.50 ft ( Finish Floor To Top of Wall )
Roof Height, H'= 30.50 ft ( Finish Floor To Ave. Ledger Ht.
Mezz Height, H''= 12.50 ft ( Finish Floor To Mezz. Fin. Ht.
Base Height,H' 11= 2.00 ft ( Bottom of Panel To Floor Slab)
Wall Length, B = 29.00 ft fc' = 4 ksi
Wall Thk, t = 8.00 in fy = 60 ksi
Roof D.L. On Wall = 0.476 K/ft *
LOADS ON PANEL . . ----------------Roof Lateral, Vr = Per Seismic Cale
Mezz Lateral, Vm = Per Seismic Cale
Wt of Panel above Slab
Wp = 76.85 2.10
Wall Lateral, Vw = Wp * 0.092
Total Lateral, V = V roof + V mezz + V
SHEAR STRENGTH:
Left Pier Width =
Rirht Pier Width =
Relative Rigidity of Left Pier =
Relative Rigidity of Right Pier=
V -Left =
54.806
wall
29 =
=
=
=
=
=
4.00 ft
4.90 ft
0.55
0.85
=
(
0.551 *
0.551 +
1.4 *
-0.854 )
21.493 * 1000
VU -Left = ---------------------------------=
8 * 48.00
13.804 Kips
27.61 kips
20.30 kips
74.75 kips
6.89 kips
54.81 kips
21.49 Kips
78.36 psi
Concrete Shear Strength, v c =
Shear Reinf Reg'd ---->
0.85 * 2 * fc'Al/2 = 107.52 psi
v Right=
VU -Right
0.854 * I 54.806 . ' . -------------·------------
( 0.551 +
1.4 *
o·. 854 )
33.313 * 1000
=
= ---------------------------------= 58.80
33.31 K_\pS
99.15 psi
Concrete Shear strength, v c -
Shear Reinf Reg'd ---->
0.85 * 2 * fc'Al/2 = 107.52 psi
BASE SHEAR:
)
)
: :
-
-
54.806 * 1000
v-base = ------------------= 1889.9
29
Allow Base Shear = 1.33 * 1500
= 1995 Lbs /ft O.K.!!!
Provide #5 dowels at 2411 o.c.
from Panel to Slab
UPLIFT:
842.2 + 253.8 + 91.3
T = C = -------------------------------=
29 * 0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) =
Reg. No. of Dowels at Bottom of Panel = =
o.k.
Net Uplift, T' = 5.39 kips
Counter Net Uplift Using The Following:
1. Weight of Backfill
Wl = 14.5 *1.33 *0.12* 2.00 =
2. Weight of Cont. Footing
W2 = 14.5 *0.15* 2.50 *1.5. =
3. Weight of 1/2 Adjacent Panel
W3 = 12 *0.10* 26.50 =
TOTAL RESISTI~G DEAD LOAD Wtl =
Uplift Force T' = 5.39 k~ps
I 'i"
Lbs/ ft
45.49 kips
5.39 Kips
T' /(1.33*3.0)
1.4
4.64 kips
8.16 kips
31. 80 kips
44.60 KIPS
Total Dead Load * .85 = 37.90 Kips ~ore than uplift force
O.K. !
NO NET UPLIFT ! ! !
--
-
-
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE 6
***********************************************************************
Uplift About Base Of Wall Panel Number =
Wa~l Height, H = 28.66 ft ( 'Finish Floor To
Roof Height, H'= 28.66 ft ( Finish Floor To
Mezz Height, H' '= 0.00 ft ( Finish Floor To
Base Height, H'' '= 2.00 ft ( Bottom of Panel
Wall Length, B = 21.00 ft fc' =
Wall Thk, t = 8.00 in fy =
Roof D.L. on Wall = 0.45 K/ft * 21 =
LOADS ON PANEL :
Roof Lateral, Vr = Per Seismic Cale =
Mezz Lateral, Vm = Per Seismic Cale =
Wt of Panel above Slab
Wp = 64.39 4.20 =
Wall Lateral, Vw = Wp * 0.183 =
Total Lateral, V = V roof + V mezz + V wall =
SHEAR STRENGTH:
1.4 * 89.75 * 1000
P-~4 ~~ 7 . / }
Top of Wall )
Ave. Ledger Ht.
Mezz. Fin. Ht.
To Floor Slab)
3 ksi
60 ksi
9.45 Kips
78.74 kips
0.00 kips
60.19 kips
11.01 kips
89.75 kips
VU= ----------------------------------------= 62.33 psi
8 * 252.00
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fCIAl/2 = 93.11 psi
O.K.!!!
BASE SHEAR:
89.754 * 1000
v-base = = 4274.0
21
Allow Base Shear = 1.33 * 4500
Lbs=/ft =
UPLIFT:
2256.7 +
5985 O.K.!!!
Provide #5 dowels@ 8 "o.c.'
from Panel to Slab
0.0 + 157.8
Lbs / ft
;;,
)
)
: ;
'
, --.1
-
-
')'LJ -{cf'
T = C = -------------------------------= 127.75 kips
21 * 0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) = 96.37 Kips
1.4 * 96.37
Add'l Tension Steel=--------------------= 2.50 sq in
0.9 * 60
USE 6 -#6
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
* *
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift Occurs
Net Uplift, T' -= 96.37 kips
Counter Net Uplift Using The Following:
1. 1/2 Weight of Adjacent Panel
Wl = 0 *0.1* 36.00 =
2. S.O.G.
W2 = 12 *0.75* 12.00 =
3. Weight of footing
W3 = 12 *0.15*4.00* 12 =
4. Weight of Soil On Pad
W4 = 12 *0.1*1.5* 12 =
TOTAL RESISTING DEAD LOAD Wtl =
96. 37 kips
2.64 sq in
O kips
10.8 kips
86.4 kips
21.6 kips
118. 8. KIPS
Uplift Force
Total Dead Load* .85 = 100.9 more than uplif~ force O.K.
-
-
/46\/41 AJIT RANDBAVA & ASSOCIATES
§"7.J}1''7..l CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
~ CTOF-q:> l-:::::--o . 0 ' 7.x:-~~')< ~ ~ =-i r ~r K'
LL ,;:, o, c:, /~ .;_'-;cr-3 ::-1¥.o i~
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Z-PL-::=--t1·?-r~t.t-rt!'t:.-fc-::: tll,8 I,::'
2. TL -·1:r7,g ~ -
JOB# ______ _
DATE ______ _
DESIGN_-~,---,-~-,,---
SHEET # 50 41
. ~ /Mr{~ ~A o--/Z <! ~ ~ ~/L ;;;?.GAf/e I'~ := -/~,e/2--:,. /<7.; -, r J/._,
: :
lJ =--o,c /.
• i"
( :: (;;o ·1 x ~ -= '°· ,;)q,c,r x ½ --'8 ,ooc1 ?7
k-==-c,?' t:j O /Z, ~ / 2--r:=.¢:"¥°,::: OJ/ J / ,A/J.-
Lf $ · )~ -# f 5ief.-Wf/
-~'->T. ..
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-,,
-
~ AIIT RANDBAVA I ASSOCIATES
#7.J'}1''7.J CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
-/foX/--f--=/g',,;jrf7-
~ / f6)c?,c-; £co r>rr-
-µ-=. I!)· OOC> 'f$C.,.,)C /:z__>C<;c"~:::-0, /,8 /,,{/
JOB# ______ _
DATE ______ _
DESIGN _ _,,_,_--,-__
SHEET #----'5"'-'_tv;....._..--;"--'(J.>=---
f"'/ c, 12--12---# r-M w ~ -LS a If r@ /> o_c....
: :
. i.
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE s'W ~(
*********************************************************************** 4t. Uplift About Base Of Wall Panel Number = P--38 & 11
-
Wall Height, H = 12.50 ft ( Finish Floor To
Roof Height, H'= 12.50 ft ( Finish Floor To
Mezz Height, H' '= o.oo ft ( Finish Floor To
Base Height,H'' '= 2.00 ft ( Bottom of Panel
Wall Length, B = 20.00 ft fc' =
Wall Thk, t = 8.00 in fy =
Roof D.L. On Wall = 0.232 K/ft * 20 =
LOADS ON PANEL . . ----------------Roof Lateral, Vr = Per Seismic Cale =
Mezz Lateral, Vm = Per Seismi9 Cale =
Wt of Panel above Slab
Wp = 29.00 4.00 =
Wall Lateral, Vw = Wp * 0.183 =
Total Lateral, V = V roof + V mezz + V wall =
SHEAR STRENGTH
1.4
VU=
* 58.88
..
8
*
*
1000
240.00
Top of Wall )
Ave. Ledger Ht.
Mezz. Fin. Ht.
To Floor Slab)
4 ksi
60 ksi
4.64 Kips
54.30 kips
· 0 .·00 kips
25.00 kips
4.58 kips
58.88 kips
= 42.93 psi
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fc'Al/2 = 107.52 psi
O.K.!!!
BASE SHEAR:
58.875 * 1000
v-base = ------------------= 2943.8
20
Allow Base Shear = 1.33 * 3000
=
UPLIFT:
678.8 +
3990· Lbs /ft · .0. K. ! ! !
Provide #5 dowels@ 12 "o.c.
from Panel to Slab
o.o + 28.6
Lbs/ ft
! :
)
)
,· '
·---
-
T = C = -------------------------------= 39.30 kips
20 * 0.9
Net Uplift, T' =T 1/2 * 0.85*( WDL) = 25.00 Kips
1.4 * 25.00
Add'l Tension Steel=--------------------= 0.65 sq in
0.9 * 60
USE 2 -#6 E.F.
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
* *
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift Occurs
Net Uplift, T' = 25.oo kips
Counter Net Uplift Using The Following:
1.
2.
3.
4.
1/2 Weight of Adjacent Panel
Wl = O *0.1* 36.00
S.O.G.
W2 = 8 *.075* 8.00
Weight of footing
W3 = 8 *0.15*3.0*
Weight of Soil on Pad
W4 = 8 *0.1*1.5*
=
=
8 =
8 =
TOTAL RESISTING DEAD LOAD Wtl =
Uplift Force' '! T' = 25.00 kips
1.56 sq in
o kips
4.8 kips
28.8 kips
9.6 kips
43. 2· KIPS
Total Dead Load* .85 = 36.72 more thar;i uplift force O .. K.
• j"
·-
·-
-
~ AJIT RANDBAVA & ASSOCIATES
CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
M li :?2--tvT, pl.--=o. (f sar) >oV{-;:-?. :s t<
LL -.::. O ... / ~ 7>c7.----( :-/~7 t;i·
X fL-= 6 G.. j-le.
-Z:. TL -f Gfl_ ~/5~rr--r-3f3-..:::-/crl'i g, '0-
JOB# _____ _
DATE _____ _
DESIGN __ =-___,~-
SHEET # <7't_,J _.ef--3>
~ t-#lffe'ft , ~ ~ -;';I":> / .?ct-3 rtf: .c ;, ? 3x:-~ ~$~ rr F
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o/ :r¥·u ~
-
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********************************************************************r:*
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE E '
***********************************************************************
Uplift About Base Of Wall Panel Number = P-'3-S &cKr 4 It? Lt 2
Wall Height, H = 28.50 ft ( Finish Floor To Top of Wall )
Roof Height, H'= 28.50 ft ( Finish Floor To Ave. Ledger Ht.
Mezz Height, H' '= 12.50 ft ( Finish Floor To Mezz. Fin. Ht.
Base Height,H'' '= 2.00 ft ( Bottom of Panel To Floor Slab)
Wall Length, B = 29.00 ft fc' = 3 ksi
Wall Thk, t = 8.00 in fy = 60 ksi
Roof D.L. On Wall = 0.136 K/ft * 29 = 3.944 Kips
LOADS ON PANEL:
Roof Lateral, Vr = Per Seismic Cale = 79.00 kips
Mezz Lateral, Vm = Per Seismic Cale = 42.00 kips
Wt of Panel above Slab
Wp = 8 8 • 4 5 . 5 • 8 O = 82.65 kips
Wall Lateral, Vw = Wp *, 0.183 = 15.12 kips
Total Lateral, V = V roof+ V ~ezz + V wall = 136.12 kips
SHEAR STRENGTH:
1.4 * 136.12 * 1000
VU= ----------------------------------------= 68.45 psi
8 *
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
BASE SHEAR:
Allow
136.12 * 1000
29
Base Shear = 1.33 *
348.00
0.85 * 2 * fc'Al/2 = 93.11 psi
O.K.!!!
= 4694.0 Lbs/ ft
4500
= 5985 Lbs /ft O.K.!!! : :
Provide #5 dowels @ 8 II o.c.
from Panel to Slab
'i'
UPLIFT:
2251.5 + 525.0 + 215.5
)
)
-
-
£0~
T = C = -------------------------------= 114.64 kips
29 * 0.9
Net Uplift, T' =T 1/2 * 0.85*( WDL) = 75.37 Kips
1.4 * 75.37
Add'l Tension Steel=--------------------= 1.95 sq in
0.9 * 60
USE 6 -#6
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
* *
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift Occurs
Net Uplift, T' = 75.37 kips
Counter Net Uplift Using The Following:
1. 1/2 Weight of Adjacent Panel
Wl = 0 *0.1* 36.00 =
2. S.O.G.
W2 .= 12 *.075* 12.00 =
3. Weight of footing
W3 = 12 *0.15*3.0* 12 =
4. Weight of Soil On Pad
W4 = 12 *0.1*1. 5* 12 =
TOTAL RESISTING DEAD LOAD Wtl =
Uplift Force .T' = 75.37 kips
2.64 sq in
0 kips
10.8 kips
64.8 kips
21.6 kips
97. 2 KIPS
Total Dead,Load * .85 = 82.62 more than uplift force O.K.
·;-
I
··-
-
~ AJIT RANDBAVA & ASSOCIATES
CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
/'tA.¥2 · D L--c o , o r f ,c /~'>c?.--f
MGz2-. LL:,. o, i,o >c · l<t= >c"2..-,(
'::=; -z,g, 7 'IC
= (7-. ( ,c..
-~Jj: lP
~/, -s '\.O .
--
2°' TL -f 1£& :::-~ --f 1/lf.} =--336,7
I,~
s-w-H' JOB # _____ _
DATE _____ _
DESIGN _____ _
SHEET#, _____ _
5°t '-~";' "--"f = 3?-b ~;~,,.,,,., -2-J'3 g ~ ~ /, S Jyc'2-Pr<>: J?2Tfrf,-
W (A -:-/2,4:><"--;i.t338 =-;?" ~t P-~l-
'3-,ri,S ' / '-2-. . / /,C. f\4 ~ -3> ~ -~ . :: .r?,of' ?-
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-
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Sw-krl *******************************************************************~~** SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE .:f
*********************************************************************** Uplift About Base Of Wall Panel Number = P-4'.2:E A@ 4-,'s, 4-4-1 '-1-S-
Wall Height, H = 28.50 ft ( Finish Floor To
Roof Height, H'= 28.50 ft ( Finish Floor To
Mezz Height, H' '= 12.50 ft ( Finish Floor To
Base Height,H'''= 2.00 ft ( Bottom of Panel
Wall Length, B = 25.83 ft fc' =
Wall Thk, t = 8.00 in fy =
Roof D.L. On Wall = 0.136 K/ft * 25.83 =
LOADS ON PANEL :
Roof Lateral, Vr = Per Seismic Cale =
Mezz Lateral, Vm = Per Seismic Cale =
Wt of Panel above Slab
Wp
Wall Lateral, Vw
Total Lateral, V
SHEAR STRENGTH
1.4
=
=
=
78.78 5.17 =
Wp * 0.183 =
V roof + V mezz + V wall =
* 123. 4 7 -* 1000
Top of Wall )
Ave. Ledger Ht.
Mezz. Fin. Ht.
To Floor Slab)
4 ksi
60 ksi
3.51288 Kips
41.20 kips
68.80 kips
73.62 kips
13.47 kips
123.47 kips
VU= ----------------------------------------= 69.71 psi
8 * 309.96
Concrete-Shear strength, v c =
Shear Reinf Not Reg'd
0.85 * 2 * fc'Al/2 = 107.52 psi
O.K.!!!
BASE SHEAR:
123.47 * 1000
v-base = ------------------25.
Allow Base Shear = 1.33 *
= 5985
=
4500
Lbs /ft.
4780.2
O.K.!!! =·
Provide #5 dowels@ 8 11 o.c.
from Panel to Slab
UPLIFT:
1174.2 + 860.0 + 192.0
Lbs/ ft
)
)
-
e.
f'LJ-,f-~
T = C = -------------------------------= 95.76 kips
25. * 0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) = 60.79 Kips
1.4 * 60.79
Add'l Tension Steel=--------------------= 1.58 sq in
0.9 * 60
USE 3 -#6 E.F.
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
* *
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift Occurs
Net Uplift, T' = 60.79 kips
Counter Net Uplift Using The Following:
1. 1/2 Weight of Adjacent Panel
Wl = 0 *0.1* 36.00 =
2. S.O.G.
W2 = 12 *.075* 12.00 =
3. -Weight of footing
W3 = 12 *0.15*3.0* 12 =
4. Weight of Soil On Pad
W4 = 12 *0.1*1.5* 12 =
TOTAL RESISTING DEAD LOAD Wtl =
T' = 60.79 kips
2.64 sq in
o kips
10. 8 kips
64.8 kips
21.6 kips
97.2· KIPS
Uplift Force
Total Dead Load* .85 = 82.62 more tpan uplift force O.K.
·e
-
A1*J AJIT RANDBIVI & ASSOCIATES
CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
1ELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
0 ,O ,.., ;,c 8 X 1 '::-
: o.O ..:J--}C;f")t)Z1:::
:z:. r .,c:..r~ =-177 .Jj-f-7CI< 0 -= 2 7 s, 3 ,c.
§l(J-H
JOB #-----=--j--'---
DATE _____ _
OESIGN __ :-----
SHEET # _____ _
~ r c ~IZI" ,vj :--;l}i·; -:::. I i',9 S ?-fL °" la,.
w~:::1,4c-~/i>ttf.:: 2-~6 fe..-5r ·
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-
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********************************************************************,;t**
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE .>U ~c)
***********************************************************************
Uplift About Base Of Wall Panel Number = P-4:4-&-zfS. 47 f "t P--1 'fl
.Wall Height, H = 28.50 ft ( Finish Floor To
Roof Height, H'= 28.50 ft ( Finish Floor To
Mezz Height, H' '= 12.50 ft ( Finish Floor To
Base Height,H'' '= 2.00 ft ( Bottom of Panel
Wall Length, B = 20.50 ft fc' =
Wall Thk, t = 8.00 in fy =
Roof D.L. on Wall = 0.136 K/ft * 20.5 =
LOADS ON PANEL:
Roof Lateral, Vr = Per Seismic Cale =
Mezz Lateral, Vm = Per Seismic Cale =
Wt of Panel above Slab
Wp = 62.53 4.10 =
Wall Lateral, Vw = Wp * 0.183 =
Total Lateral, V = V roof + V mezz + V wall =
SHEAR STRENGTH:
1.4 * 93.69 * 1000
Top of Wall )
Ave. Ledger Ht.
Mezz. Fin. Ht.
To Floor Slab)
4 ksi
60 ksi
2.788 Kips
24.10 kips
58.90 kips
58.43 kips
10.69 kips
93.69 kips
VU= ----------------------------------------= 66.65 psi
8 * 246.00
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fc'~l/2 = 107.52 psi
O.K.!!!
BASE SHEAR:
93.691 * 1000
v-base = ------------------= 4570.3'
20.
Allow Base Shear = 1.33 * 4500
= : : 5985 Lbs /ft O.K.!!!
Provide #5 dowels:@ 8 11 o.c.
from Panel to Slab
·r
UPLIFT:
686.9 + 736.3 + 152.4
Lbs / ft
)
)
, I
T = C = -------------------------------=
~0 b/
85.39 kips
20. * 0.9
Net Uplift, T' =T 1/2 * 0.85*( WDL) = 57.63 Kips
1.4 * 57.63
Add'l Tension Steel=--------------------= 1.49 sq in
0.9 * 60
USE 3 -#6 E.F.
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
* *
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift Occurs
Net Uplift, T' = 57.63 kips
Counter Net Uplift Using The Following:
1. 1/2 Weight of Adjacent Panel
Wl = 0 *0.1* 36.00 =
2. S.O.G.
W2 .= 10 *.075* 10.00 =
3. Weight of footing
W3 = 10 *0.15*3.0* 10 =
4. Weight of Soil On Pad
W4 = 10 *0.1*1.5* 10 =
2.64 sq in
o kips
7.5 kips
45 kips
15 kips
----------------------
TOTAL RESISTING DEAD LOAD Wtl = 67.5 KIPS
: : .
Uplift Force T' = 57.63 kips
Total Dead Load * .85 = 57.37 more than uplift force O.K.
I
' 'i'
-
e
~ AJIT RANDBAVA & ASSOCIATES
CONSULTING STRUCTURAL ENGINEERS INC
16700 VALLEY VIEW AVE SUI • TELEPHONE NO. (714) 5~·091~ !70, LA MIRADA, CALIFORNIA 90638 • r'AX (714) 522-1149
JOB# ______ _
DATE ______ _
DESIGN _____ _
SHEET#, _____ _
p..ocf--~L ::-o,o I 7yJ 8X' ~ 7 3,'3 l'--
L-L :.r1 .~ 2... ~ ~ )"!' ~ __ >-~ tL
: :
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LL = f) ... -(
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o, LC-.
9-'# & ,gQ/'7~ ;;·.· '<./,
f-# r ~~ Q• .0, I ,
-
-
-
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE >le./ --C_:3
***********************************************************************
Uplift About Base Of Wall Panel Number = ~ 4-b
Wall Height, H = o.oo ft ( Finish Floor To
Roof Height, H'= 0.00 ft ( Finish Floor To
Mezz Height, H' '= 12.50 ft ( Finish-Floor To
Base Height,H'' '= 2.00 ft ( Bottom of Panel
Wall Length, B = 21. 00 ft fc' =
Wall Thk, t = 8.00 in fy =
Roof D.L. On Wall = 0.522 K/ft * 21 =
LOADS ON PANEL . . ----------------Roof Lateral, Vr = Per Seismic Cale =
Mezz Lateral, Vm = Per Seismic Cale =
Wt of Panel above Slab
Wp = · 4. 20 4.20 =
Wall Lateral, Vw = Wp * 0.183 =
Total Lateral, V = V roof + V mezz + V wall =
SHEAR STRENGTH:
1.4 * 61.80 * 1000
Top of Wall )
Ave. Ledger Ht.
Mezz. Fin. Ht.
To Floor Slab)
4 ksi
60 ksi
10.962 Kips
0.00 kips
61.80 kips
o.oo kips o.oo kips
61.80 kips
VU= ----------------------------------------= 42.92 psi
8 * 252.00
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fc'Al/2 = 107.52 psi
O.K.!!!
BASE SHEAR:
61.8 * 1000
v-base = ------------------
21
Allow Base Shear = 1.33 *
= 3990
=
3000
Lbs /ft
2942.9
, : ,o. K. ! ! !
Provide #5 dowels@ 12 "o.c.
from Panel to Slab
. r
UPLIFT:
o.o + 772.5 + 0.0
Lbs / ft
)
)
-
-
~W -C(f
T = C = -------------------------------= 40.87 kips
21 * 0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) = 34.43 Kips
1.4 * 34.43
Add'l Tension Steel=--------------------= 0.89 sq in
0.9 * 60
USE 2 -#6 E.F.
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
*
*
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift Occurs
Net Uplift, T' = 34.43 kips
Counter Net Uplift Using The Following:
1.
2.
3.
4.
1/2 Weight of Adjacent Panel
Wl = 0 *0.1* 36.00
S.O.G.
W2 .= 8 *.075* 8.00
Weight of footing
W3 = 8 *0.15*3.0*
Weight of Soil On Pad
W4 = 8 *0.1*1.5*
=
=
8 =
8 =
TOTAL RESISTING DEAD LOAD Wtl =
T' = 34.43 kips
1.76 sq in
o kips
4.8 kips
28.8 kips
9.6 kips
43.2. KIPS
Uplift Force
Total Dead Load* .85 = 36.72 more than uplift force O.K.
·r
-
-
4w -£ r
***********************************************************************
SHEAR WALL ANALYSIS FOR IN-PLANE LOADS ALONG LINE
*********************************************************************** Uplift About Base Of Wall Panel Number = P-46
Wall Height, H = 0.00 ft ( Finish Floor To Top of Wall )
Roof Height, H'= 0.00 ft ( Finish Floor To Ave. Ledger Ht.
Mezz Height, H' '= 12.50 ft ( Finish Floor To Mezz. Fin. Ht. )
Base Height,H'' '= 2.00 ft ( Bottom of Panel To Floor Slab)
Wall Length, B = 20.00 ft fc' = 4 ksi
Wall Thk, t = 8.00 in fy = 60 ksi
Roof D.L. 9n Wall = 0.522 K/ft * 20 = 10.44 Kips.
LOADS ON PANEL:
Roof Lateral, Vr = Per Seismic Cale = 0.00 kips
Mezz Lateral, Vm = Per Seismic Cale = 56.10 kips
Wt of Panel above Slab
Wp = . 4 • 0 0 4 • 0 0 = 0.00 kips
Wall Lateral, Vw = Wp * 0.183 = 0.00 kips
Total Lateral, v.= V roof+ V mezz + V wall = 56.10 kips
SHEAR STRENGTH:
1.4 * 56.10 * 1000
VU= ----------------------------------------= 40.91 psi
8 * 240.00
Concrete Shear Strength, v c =
Shear Reinf Not Req'd
0.85 * 2 * fc'Al/2 = 107.52 psi
O.K.!!!
BASE SHEAR:
56.1 * 1000
v-base = ------------------= 2805.0
20
Allow Base Shear = 1.33 * 3000
Lbs /f,t ! =
UPLIFT:
0.0 +
3990 O.K.!!!
Provide #5 dowels@ 12 "o.c.
from Panel to Slab
701.3 + 0.0
Lbs/ ft
)
-
-
: :
·r
~0:.1 ~be
T = C = -------------------------------= 38.96 kips
20 * 0.9
Net Uplift, T' =T -1/2 * 0.85*( WDL) = 32.82 Kips
1.4 * 32.82
Add'l Tension steel=--------------------= 0.85 sq in
0.9 * 60
USE 2 -#6 E.F.
Anchor Panel Bottom Ends Using Tie-downs
Asp=
CHECK JOINT OVERTURNING:-
* *
At Interior Joints The Uplifts Are Balanced
At Exterior Joints, Net Uplift occurs
Net Uplift, T' = 32.82 kips
Counter Net Uplift Using The Foliowing:
1.
2.
3.
4.
1/2 Weight of Adjacent Panel
Wl = 0 *0.1* 36.00
s.o.G.
W2 -= 8 *.075* 8.00
Weight of footing
W3 = 8 *0.15*3.0*
Weight of Soil On Pad
W4 = 8 *0.1*1.5*
=
=
8 =
8 =
TOTAL RESISTING DEAD LOAD Wtl =
T' = 32.82 kips
1.76 sq in
0 kips
4.8 kips
28.8 kips
9.6 kips
43.2 KIPS
Uplift Force
Total Dead Load* .85 36.72, more than uplift force O.K.
. r ..
-
-~
/4r5)/41 AJIT RANDBAVA & ASSOCIATES
ff7J~7.J CONSULTING STRUCTURAL ENGINEERS INC.
16700 VALLEY VIEW AVE., SUITE 270, LA MIRADA, CALIFORNIA 90638
TELEPHONE NO. (714) 522-0911 • FAX (714) 522-1149
;!,--( / ' ) 'f biU w7 .:: o. /~~ -:;:-~c/2 ._f"f7
.por,~IA.f{:-= o,lf-~~5
: :
JOB# _____ _
DATE ______ _
DESIGN _____ _
SHEET # ~ {.J =-6 7
• l
, .-....._aeotechnics
Incorporated
..
----
February 19, 1997
Hamann Construction
475 West Bradley Avenue
El Cajon, California 92020
Attention: Mr. Paul Giese
RECENED
. FEB 1 9 1997
ENGINEERING
DEPARTMENT
Principals:
Anthony F. Belfast
Michael P. lmbriglio
W. Lee Vanderhurst
Project No. 0273-004-01
Document No. 7-0113
SUBJECT: INTERIM REPORT OF SITE PREPARATION AND COMPACTION RESULTS
Carlsbad Research Center, Lot 108
The Iris Group Building
Carlsbad, California
References: "Report of Geotechnical Investigation, Carlsbad Research Center, Lot 108, The Iris
Group Building, Carlsbad, California", by Geotechnics Incorporated, Project No.
0273-004-00, August 2, 1996.
Gentlemen:
In accordance with your request, we are providing an overview of site preparation and compaction
test ·results for the subject site between February 3 and 19, 1997. Site preparation to date has
consisted of the removal of deleterious materials and the scarification and compaction of the
surficial foot of exposed subgrade. Minor cut and fill grading was conducted to create a level
building pad area. Maximum cuts in the eastern portion of the pad were on the order of 1 ½ feet,
whereas maximum fills in the western portion of the building pad area were approximately 3 feet.
In our opinion, site preparation and compaction to date has been performed in general
accordance with the intent of the project geotechnical recommendations, and with the
requirements of the City of Carlsbad. Compaction tests to date indicate that structural fills have
been placed at a relative density of at least 90 percent of the maximum as determined by ASTM
D1557.
The conclusions contained herein are based on our observations and testing performed between
February 3 and 19, 1997. No representations are made as to the quality and extent of materials
not observed. A compaction report providing greater detail on our testing and observations
9951 Business Park Ave., Ste. B • San Diego California • 92131
Phone (619) 536-1000 • Fax (619) 536-8311
Hamann Construction
February 19, 1997
Project No. 0273-004-01
Document No. 7-0113
Page 2
services will be mailed to you when our services are completed. Please call at your convenience
if you should have any questions or comments.
We appreciate this opportunity to be of continued service. Please call at your convenience if you
should have any questions or comments.
GEOTECHNICS INCORPORATED
~:},~
Anthony F. Belfast, P.E. 40333
Principal
AFB/maf
Distribution: (4) Addressee
(1) Hamann Construction (FAX: 440-8914)
Geotechnics Incorporated
I }::''.':;· J! ft'( :J :: ... , .. : :· :: i '' } • ,\t l 1' : '
t ,,. l, ,'
...
FEBRUARY 18, 1997
CITY ·OF CARLSBA0
ENGINEERING DEPARTMENT
2075 ·LAS PALMAS DRIVE
CARLSBAD, CA 92009
SPEAR & ASSOCIATES, INC.
CIVIL ENGINEERING & LAND SURVEYING
1115 E. Pennsylvania Avenue
Escondido, CA 92025
(619) 737-7272
Fax(619)737-7274
RE: ROUGH PAD GRADING CERTIFICATION FOR LOT 108, CT 85-24,
MAP N.O • 1 2 81 5
J. r~:·:~ \ f "{ r; r~·-~·-·,: 1 ~ ·
I HEREBY CERTIFY .. THA:T .. 'THE ROUGH BUILDING PAP AS SHOWN ON THE
GRADING PLAN fOR ,.S~ID_ LOT 108 (DRAWING NO. 350-SA) IS · WITHIN
0. 1 FEET OF THE~.-l.DESIGN 1GRADE, I.E. 265. 2.
. . ~ ...
·,_ ,.. :· R ,' \'
,.: .. ,._ ',--.;
·~~ /
L.S. 6404
-· .=..geotechnics
Incorporated ---
January 13, 1997
Hamann Construction
475 West Bradley Avenue
El Cajon, California 92020
Attention: Mr. Paul Giese-
SUBJECT: FOUNDATION PLAN REVIEW
Carlsbad Research Center, Lot 108
The Iris Group Building
Carlsbad, California
Principals:
Anthony F. Belfast
Michael P. Imbriglio
W. Lee Vanderhurst
Project No. 0273-004-00
Document No. 6-0829
Reference: Geotechnics Inc. (1996). "Report of Geotechnical Investigation, Carlsbad
Research Center, Lot 108, The Iris Group Building, Carlsbad, California", Project
No. 0273-004-00, Document No. 6-0449, dated August 2.
Gentlemen:
Plan Sheet S-1, SD-1 and SD-2, Plans for The Iris Group, Carlsbad, CA,
September 24, 1996, by Kenneth D. Smith AIA.
This letter confirms that we have reviewed the geotechnical aspects of the foundation plans for
the proposed Iris Group facilities located in Lot 108 of the Carlsbad Research Center in Carlsbad,
California. In general, the plans conform to the recommendations of the referenced soil report,
subject to the following discussion.
It is our understanding that you have decided that moderate settlement is tolerable, and have
chosen to use shallow foundations in compacted fill to support the proposed structure as
discussed in Section 7.6.3 of the referenced report. Consequently, the minimum foundation depth
recommended is 24 inches. The referenced plans show 18 inch deep footings throughout the
site. However, we understand that the plans will be modified to incorporated the 24 inch
embedment. In addition, the warehouse slab is shown as 5½ inches in thickness rather than
the 6 inch slab recommended in Section 7.7 of the referenced report, however, 4,000 psi concrete
is specified. We concur with the reduction in slab thickness to 5½ inches.
9951 Business Park Ave., Ste. B • San Diego California • 92131
Phone (619) 536-1000 • Fax (619) 536-8311
,.
..:
Hamann Construction
January 13, 1997
Project No. 0273-004-00
Document No. 6-0829
Page 2
We further understand that the 'visqueen' moisture barrier will be eliminated in the warehouse
area because no floor coverings are planned and because of the intended usage. Our
investigation did not reveal geotechnical conditions which would preclude this, provided some
vapor transmission is allowable.
We appreciate this opportunity to be of continued service. Please feel free to contact the office
with any questions or comments.
GEOTECHNICS IN CORPORA TED
c::2« J-~
Anthony F. Belfast, P.E. 40333
Principal Engineer
AFB/maf
Distribution: (4) Addressee
(1) Kenneth D. Smith Architects, Attention: Mr. Ron Ellickson (FAX: 442-2699)
Geotechnics fucorpomted
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~eotechnics
IU&J&a4ik't» I n C 9 r p O r a t e d
August 2, 1996 ""·
Hamann Construction
475 West Bradley Avenue
El Cajon, California 92020
Principals:
Anthony F. Belfast
Michael P. Imbriglio
W. Lee Vanderhurst
Project No. 0273-004-00
Doc. #6-0449
1 Attention: Mr. Paul Giese
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SUBJECT: REPORT OF GEOTEOHNICAL INVESTIGATION
Carlsbad Research Center, Lot 108
The Iris <;;roup Building
Carlsbad, California ·-
Gentlemen:
The following report presents the findings, conclusions, and recommendations of our geotechnical
investigation of the subject site. It is our understanding that the development is to consist of the
construction of a single commercial structure with surrounding parking. In general, our findings
indicate that the subject site is underlain by Santiago Peak Volcanics and fill materials that are
considered suitable to support the proposed structure, providing that the recommended site
preparation is performed. There were no unusual or special conditions apparent in our
investigation which would preclude the construction as planned.
1.0 PURPOSE AND SCOPE OF WORK
The purpose of our investigation was to evaluate the existing geotechnical conditions at the site
as they relate to the proposed improvements, and to make recommendations regarding site
preparation and grading, design of the proposed foundations, retaining walls, and slabs, and the
construction of pavements. The recommendations contained herein are based on a surface
reconnaissance, subsurface exploration, laboratory testing, and professional experience in the
general site area. Design values may include presumptive parameters based on professional
judgement. Our scope of work was'limited to:
1.1 Review of a_vailable literatwe related to general geologic conditions.
9951 Business Park.Ave., Ste. B • San Diego California_• 92131
Phone (619) 536-100~ • Fax·(619) 536-8311
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2.0
1.2 A visual reconnaissance and subsurface exploration of the sfte consisting of the
drilling of four borings with a truck mounted eight inch hollow stem flight auger. Bulk,
disturbed, and relatively undisturbed samples were collected for laboratory testing.
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1.3 Laboratory testing of selected samples collected during the subsurface exploration.
Testing was intended to assist in characterizing soil properties and assessing pertinent
engineering properties.
1.4 Development of recommendations for site preparation, earthwork construction,
foundation design, on-grade slabs, earth retaining structures, and pavements.
1.5 Assessment of general seismic conditions and geologic hazards affecting the area,
and their likely impact on the project.
1.6 Preparation of this report.
SITE DESCRIPTION
The site consists of a roughly rectangular lot, which averages approximately 500 feet in width and
750 feet in length. The site is located southwest of Faraday Avenue in the Carlsbad Research
Center in Carlsbad, California as shown in the Site Location Map, Figure 1. Elevations of the
existing building pad are between approximately 258 and 268 feet above sec! level. The site is
border_ed on the northwest by Lot 107 of the Carlsbad Research Center, which is essentially at
the same grade as the subject site. An approximately 15 foot high, descending 2: 1
(horizontal:vertical) slope. separates the site from Lot 106 to the southeast. An approximately 35
foot high 2:1 slope descends to Faraday Avenue northeast of the site. The southern portion of
the lot contains an approximately 80 foot high 2½:1 fill slope which descends to a landscaped
detention basin. The southwestern portion of this slope is a variable cut slope which exposes the
Santiago Peak Volcanics which underlie the entire site at depth.
Surface runoff is directed by sheet flow to the east at a 1 ½ percent gradient. Minor erosion of
the building pad area is evident near the desilting basin in the eastern corner of the building pad.
Vegetation on site consists of scattered light weeds in the building pad area, chaparral irr' the
natural slope area, and partially landscaped fill slopes. Th~ property is currently vacant. The
approximate layout of the site is shown in the Site Plan, Figure 2 .
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ADAPTED FROM THE 1995
THOMAS BROTHERS GUIDE
Project No. 0273-004-00
Document No". 6-0449
FIGURE 1
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Project No. 0273-004-00
Document No. 6-0449
FIGURE 2
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3.0 PROPOSED DEVELOPMENT
We understand that the proposed construction will include an office building in the western area
of the lot with parking to the east. The existing dirt access road along the eastern edge of the
lot will be paved with concrete to provide access for the development. The building is anticipated
to consist of a two story, 75,000 square foot concrete tilt-up structure. The preliminary site plan
indicates that only minor grading is planned, consisting of cuts and fills of less than three feet.
The proposed site layout is shown in the Site Plan, Figure 2.
4.0 GEOLOGY AND SUBSURFACE CONDITIONS
The Carlsbad Research Center is located within the coastal plain section of the Peninsular Range
Geomorphic Province, and consists of Mesozoic metavolcanic rock, with overlying Cenozoic
sedimentary sandstone and claystone. Our subsurface investigation indicates that the subject
site is underlain primarily by Santiago Peak Volcanics and compacted fill. The approximate
locations of the borings made for our investigation are shown in Figure 2. Logs of the
explorations are given in Appendix B. A description of the specific units encountered during our
investigation follows.
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4.1 Santiago Peak Volcanics
The Santiago Peak Volcanics were observed in exposures on the cut slope in the
southeastern portion of the lot, as well as in borings 1 and 3. The volcanic rock is
believed to underlie the entire site at depth. Santiago Peak Volcanics, as observed on
site, typically consist of a mildly metamorphosed, metavolcanic rock. The material
exposed in the cut slope was highly jointed, with clay filled joints. This material is dry to
moist, very dense, and has a low to medium plasticity when weathered to a soil.
4.2 Fill
Fill was encountered during our subsurface exploration in all of the borings to the
maximum explored depth of 11 feet. The fill was derived from the Santiago Formation,
the Santiago Peak Volcanics, and alluvium. Fill materials will vary considerably based on
their source. The predominant fill observed in our subsurface investigation consisted of
a clayey sand with. gravel sized rock fragments (SC). The _sand was generally fine to,
medium grained, and had a medium plasticity. The fill was generally red brown in color, --
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moist, and medium dense to dense. The fill contained considerable amounts of hard,
angular, metavolcanic rocks of up to 3 inches or more in diameter, which were clearly
derived from the Santiago Peak Volcanics. In addition, the fill contained few fragments
of fat claystone (CH) up to ½ inch in diameter.
Prior to mass grading of the site, the building area of the lot was underlain primarily by
Santiago Peak Volcanic rock. Grading operations consisted of excavating and blasting
the rock material from the high knoll shown on the site plan, and placing it as a
compacted fill in the lower areas of the site. The cut/fill transition in the building pad area
created by these operations was removed by over-excavating and blasting the
metavolcanic rock to a depth of five feet below the final pad elevations. A maximum of
approximately 45 feet of fill was placed on the lot during the grading operations. Prior to
placing fill, a subdrain was constructed in the invert of the canyon that traversed the site.
The referenced as-graded geotechnical report was used to present the topography shown
in the Site Plan. The site plan shows the approximate existing graded topography along
with the approximate pre-graded natural topography. The depth of fill at any location on
site can be approximated by subtracting the natural elevation from the existing elevation.
Note that the site plan also indicates the location of the transition from shallow to deep fill,
where shallow fill would be that created by over-excavating the volcanic rock five feet
below finish grade.
4.3 Groundwater
No seepage or groundwater was observed in our investigation. Changes in rainfall or site
drainage could produce seepage or locally perched groundwater conditions within the soil
or rock underlying the site. It should be recognized that excessive irrigation on the project
site could also cause perched groundwater conditions to develop at some future date.
This typically occurs at underlying contacts with less permeable materials, such as the
interface that exists between the fill and the underlying volcanic rock. Since the prediction
of the location of such conditions is not possible, they are typically mitigated if and when
they occur.
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5.0 GEOLOGIC HAZARDS AND SEISMICITY
5.1 Geologic Hazards
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Page 5
The immediate subject site is not located within an area previously known for geologic
hazards, nor was evidence of past soil failures or faulting noted in our investigation.
5.2 Seismicity and Faulting
The subject site is located approximately 5.0 miles northeast of the projected offshore
trace of the Rose Canyon fault zone. This fault zone is classified as active, and capable
of generating a magnitude 6.4 earthquake (maximum probable event). The estimated
peak site ground acceleration for such an event is 0.42g. Design of structures should
comply with the requirements of the governing jurisdictions, building codes and standard
practices of the Association of Structural Engineers of California. Ground-breaking due
to active faulting is considered to have a low potential, due to the distance from known,
active fault traces.
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6.0 CONCLUSIONS
Project No. 0273-004-00
,.Doc. #6~Q449
Page 6
No geotechnical conditions were apparent during the investigation which would preclude
construction of the proposed structures as planned. However, some geotechnical constraints
exist which require special design consideration in order to decrease the likelihood of distress to
the proposed structures.
The on-site soils include both medium dense fill, and very dense metavolcanic rock. The
preliminary grading plans indicate that the existing fill cap will be cut approximately three
feet in the western corner of the proposed building pad area. This will result in footings
which rest directly on volcanic rock at that location. However, the southeastern portion
of the building will be underlain by more than 25 feet of fill. Transitions from rock to fill
below foundations and slabs are not recommended due to the different settlement
characteristics of the materials, and the resulting potential for differential movements. It
the resulting settlement is unacceptable, we recommend that either the volcanic rock
beneath the building area be excavated and replaced as a compacted fill, or that
foundations be deepened throughout the entire structure in order to bear directly on
volcanic rock. Overexcavation of the bedrock will likely encounter non-rippable material
that will require special excavation techniques or blasting.
• Our analysis indicates that the existing site slopes are stable with regard to deep-seated
failure. However, surface water flow and/or seepage can result in surficial slope failures
and erosion. In addition, all man-made slopes will weather and creep over time as a
result of wetting and drying, biologic forces and gravity. While it is not possible to
completely eliminate these effects, recommendations are provided in the following sections
which should help to reduce the potential for such behavior.
• Laboratory testing indicates that the on-site fill soils have a low expansion potential.
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7.0 RECOMMENDATIONS
Project No. 0273-004-00
Doc. #6-0449
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The primary geotechnical constraint associated with the planned building location is the differential
settlement that is likely to occur between the portion of the building over hard rock and the portion
over fill soil. We estimate that long-term settlement of the fill will be about ¾-inch. The
settlement would be greatest at the southern-most portion of the building (as shown on Figure 1)
and decrease to zero at the transition line indicated on the plan, for a differential of ¾-inch in
about 80 feet. The project architect and structural engineer should review this settlement to
determine if this is excessive. If this is not acceptable, the following options should be
considered.
• A common remedial measure to lessen the effects of differential settlement across cut-fill
transitions is to over-excavate the bedrock portion to decrease the fill variability beneath
the structure. However, because most of the planned structure is underlain by bedrock,
and because the material consists of non-rippable volcanic rock, this does not appear to
be economical. We are therefore not providing details for this recommendation .
• The southern-most portion of the structure could be founded on deep foundations
extending to bedrock. The entire structure would then be supported on rock, and
differential settlement should be negligible.
• It may be possible to build some flexibility into the structure, so that movement at the
transition line would be tolerated. This should be evaluated on by the project architect
and structural engineer.
• It may be possible to relocate the structure so that it overlies the portion of the site
underlain be shallow bedrock.
The remainder of this report presents recommendations in detail. These recommendations are
based on empirical and analytical methods typical of the standard of practice in southern
California. If these recommendations appear not to cover any specific feature of the project,
please contact our office for additions or revisions to the recommendations .
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7 .1 Plan Review
We recommend that foundation and grading plans be reviewed by Geotechnics
Incorporated prior to plan finalization.
7.2 Site Preparation
Clearing of the existing site should include the removal of any pipes, vegetation, or
general debris. Any deleterious material, including construction debris, rocks over 6
inches in greatest dimension, or soil containing vegetation should not be used in site fills,
and should be disposed of off-site. As a minimum, the soil within the upper 12 inches of
building and improvement areas should be scarified, brought to about optimum moisture,
and compacted to at least 90 percent of the maximum density in accordance with the
recommendations given in Section 7.4.
7.2.1 Debris Basin: A temporary debris basin was installed during rough grading
of the subject site in the eastern corner of the building pad. Soft sediments have
accumulated within the basin since initial construction. All soft sediments within
the basin should be removed to a depth where competent fill material is
encountered. The entire excavation should then be brought up to finish surface
grade with compacted fill as discussed in Section 7.4. In the event that the
existing storm drain pipes within the debris basin are to be abandoned, they
should be removed and their excavations backfilled with compacted fill in
accordance with Section 7.4.
7.2.2 Parking and Drives: The soil within the upper one foot of pavement
subgrade should be compacted to at least 95 percent relative compaction based
on ASTM D1557.
7.3 Excavation and Grading Observation
Foundation excavations and site grading excavations should be observed by Geotechnics
Incorporated. During grading, Geotechnics Incorporated should provide observatiorr'and
testing service.:' continuously. Such observations are considered essential to identify fi~ld
conditions that differ from those anticip~ted by the pr:eliminary investigation, to adjust,
designs to actual field coriditions, and to. determine that the grading is accomplished in
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general accordance with the recommendations of this report. Recommendations
presented in this -report are contingent upon Geotechnics Incorporated performing such
services. Our personnel should perform sufficient testing of fill during grading to support
our professional opinion as to compliance with compaction recommendations.
7.4 Fill Compaction
All new fill and backfill to be placed in association with site development should be accom-
plished at slightly over optimum moisture conditions and using equipment that is capable
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of producing a uniformly compacted product. The minimum relative compaction
recommended for fill is 90 percent of maximum density based on ASTM D1557, except
as modified in previous paragraphs. Sufficient observation and testing should be
performed by Geotechnics Incorporated so that an opinion can be rendered as to the
compaction achieved.
Imported fill sources, if needed, should be observed prior to hauling onto the site to
determine the suitability for use. Representative samples of imported materials and on
site soils should be tested by the geotechnical consultant in order to evaluate their
appropriate engineering properties for the planned use.
During grading operations, soil types other than those analyzed in the geotechnical reports
may be encountered by the contractor. The geotechnical consultant should be notified
to evaluate the suitability of these soils for use as fill and as finish grade soils.
7.5 Surface Drainage
Foundation and slab performance depends greatly on how well the runoff waters drain
from the site. This is true both during construction and over the entire life of the structure.
The ground surface around structures should be graded so that water flows rapidly away
from the structures without ponding. The surface gradient needed to achieve this depends
on the prevailing landscape. In general, we recommend that pavement and lawn areas
within five feet of buildings slope away at gradients of at least two percent. Densely
vegetated areas should have minimum gradients of at least five percent away ":from
buildings in the first five feet. Densely. vegetated areas are considered those in which the
planting type and spacing is such that the flow of water is impeded.
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Planters shoukf be buflt so that water from them-will not seep into the foundation, slab,
or pavement areas. Roof drainage should be channeled by pipe to storm drains, or
discharge at least 5 feet from building lines. Site irrigation should be limited to the
minimum necessary to sustain landscaping plants. Should excessive irrigation, surface
water intrusion, water line breaks, or unusually high rainfall occur, saturated zones or
"perched" groundwater may develop in the underlying soils.
7.6 Foundation Recommendations
These recommendations are considered generally consistent with methods typically used
in southern California. Other alternatives may be available. The foundation
recommendations herein should not be considered to preclude more restrictive criteria of
governing agencies or by the structural engineer. The design of the foundation system
should be performed by the project structural engineer, incorporating the geotechnical
parameters described in the following sections.
The following design parameters assume that the foundations will bear on bedrock,
including conventional footings deepened as necessary, or o.n drilled piers.
7 .6.1 Deep Foundations on Rock (Drilled Piers):
Allowable End Bearing:
Minimum Dimensions:
Minimum Embedment:
Reinforcement:
Pier Clean-out:
Pier Observation:
10,000 psf for piers founded greater than 5 feet
below lowest adjacent soil grade. Allow a one-third
increase for short-term wind or seismic loads.
30 inches in diameter
1 foot into volcanic rock.
As designed by structural engineer.
Unless provisions are made to hand-clean
excavations, all pier excavations should be cleaned
of all loose soil with suitable boring tools. '
The drilling of all piers should be continuously
observed by Geotechnics Incorporated to determine, -
that bearing conditions are as anticfpatea and that
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pier excavations are made · in accordance ,with
project specifications.
7 .6.2 Shallow Foundations on bedrock:
Allowable Soil Bearing:
Minimum Footing Width:
Minimum Footing Depth:
Minimum Reinforcement:
6,000 psf (allow a one-third increase for short-term
wind or seismic loads).
12 inches.
18 inches below lowest adjacent soil grade.
Two no. 4 bars at both top and bottom in continuous
footings.
If the project architect and structural engineer determine that the previously discussed
estimated settlements are tolerable, then footings may bear on the existing fills. The
following design parameters should be used.
7.6.3 Shallow Foundations on Fill:
Allowable Soil Bearing:
Minimum Footing Width:
Minimum Footing Depth:
Minimum Reinforcement:
2,500 psf (allow a one-third increase for short-te·rm
wind or seismic loads).
12 inches.
24 inches below lowest adjacent soil grade.
Two no. 5 bars at both top and bottom in continuous
footings.
7.6.4 Lateral Loads: Lateral loads against structures may be resisted by friction
between the bottoms of the footings and/or piers and the supporting soil. A
coefficient of friction of 0.20 is recommended. Alternatively, a passive pressure
of 250 pcf is recommended for the foundations embedded into compacted fill. If
friction and passive pressure are combined, the passive pressure value should be
reduced by one-third.
7.6.5 Settlement: If the structure is constructed with drilled pier or deepened,
continuous foundations embedded into the Santiago Votcanic rock, then the total
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and di"lf~r.entia!_ settlements resulting f~om the bearing loads recomn:iended __ are
expected to be negligible. If the structure is founded on conventional shallow
foundations spanning the existing transition, it may experience differential
settlement on the order of ¾-inch from the indicated transition line to the southern-
most building line.
7.6.6 Slope Setback: The foundations for the proposed structures should be
setback from the slope a minimum horizontal distance of 8 feet. The setback
should be measured horizontally from the outside bottom edge of the footing to the
slope face. The horizontal setback can be reduced by deepening the foundation
in order to achieve the required setback distance projected from the footing bottom
to the face of the slope. It should be recognized that the outer few feet of all
slopes are susceptible to gradual down-slope movements due to slope creep. This
will affect hardscape such as concrete slabs. We recommend that settlement
sensitive hardscape not be constructed within five feet of the top of slopes.
7. 7 On-Grade Slabs
Building slabs should be supported by compacted fill prepared as recommended under
Section 7.2. Slabs should be designed for the anticipated loading. If an elastic design
is used, a modulus of subgrade reaction of 200 kips/ft3 should be suitable. As a minimum,
slabs should be at least 6 inches in thickness and be reinforced with at least #3 bars on
18 inch centers, each way.
7. 7 .1 Moisture Protection for Slabs: Concrete slabs constructed on soil ultimately
cause the moisture content to rise in the underlying soil. This results from
continued capillary rise and the termination of normal evapotranspiration. Because
normal concrete is permeable, the moisture will eventually penetrate the slab
unless some protection is provided. To decrease the likelihood of problems
related to damp slabs, suitable moisture protection measures should be used
where moisture sensitive floor coverings or other factors warrant. A commonly
used moisture protection consists of about four inches of clean sand covered by
'visqueen' plastic sheeting. In addition, two inches of sand are placed over:the
plastic to decrease concrete curing problems associated with placing concrete
directly on an impermeable membrane. However, it has been our experience that ,
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such systems will transmit from approximately 6 to 12 pounds of moisture per
1000 s_q_u~re f~_et per day. This may -~e excessive for some applications.
If more protection is needed, we recommend that the slab be underlain by at least
6-inches of minus 3/4-inch crushed rock, with no plastic membrane. In addition,
it is recommended that a low water-cement ratio (0.5 maximum) be used for
concrete, and that the slab be moist-cured for at least five days in accordance with
methods recommended by the American Concrete Institute. On-site quality control
should be used to confirm the design conditions.
7.7.2 Exterior Slabs
Exterior slabs and sidewalks should be at least 5 inches thick and should be
reinforced with at least #3 rebars on 24 inch centers, each way (or alternatively 6"
x 6"-W2.9 x W2.9 WWF). Crack control joints should be placed on at least 10 foot
centers, each way. Differential movement between buildings and exterior slabs,
or between sidewalks and curbs may be decreased by dowelling the slab into the
foundation or curb.
7.8 Expansive Soils
The soils observed during our investigation consisted primarily of low plasticity clayey
sands (SC) with gravel. Laboratory testing of representative samples indicates that the
site soils have a very low to low expansion potential, based on Uniform Building Code
criteria. Figure C-3 in the appendix summarizes the expansion test results.
7 .9 Reactive Soils
Because of the likelihood that the sulfate. content of the on-site soil or groundwater is
sufficient to react adversely with normal cement, we recommend that Type II cement be
used in all concrete which will be in contact with soil. Figure C-3 summarizes the
laboratory test results for soil reactivity.
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7 .10 Earth Retaining Structures
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Page 14
Backfilling retaining walls with expansive soil can increase lateral pressures well beyond
normal active or at-rest pressures. We recommend that retaining walls be backfilled with
soil having and expansive index of 20 or less. The backfill area should include the zone
defined by a 1: 1 sloping plane, back from the base of the wall. Cantilever retaining walls
should be designed for an active earth pressure approximated by an equivalent fluid
pressure of 35 lbs/ft3• The active pressure should be used for walls free to yield at the top
at least 0.2 percent of the wall height. For walls restrained so that such movement is not
permitted, an equivalent fluid pressure of 55 los/ft3 should be used, based on at-rest soil
conditions with level backfill. The above pressures do not consider any surcharge loads
or hydrostatic pressures. If these are applicable, they will increase the lateral pressures
on the wall and we should be contacted for additional recommendations. Walls should
contain an adequate subdrain to eliminate any hydrostatic forces. Typical wall drain
detains are given in Figure 3.
Retaining wall backfill should be compacted to at least 90 percent relative compaction,
based on ASTM D1557. Backfill should not be placed until walls have achieved adequate
structural strength. Heavy compaction equipment which could cause distress to walls
should not be used.
7 .11 Pavements
Two traffic types are assumed: areas of light traffic and passenger car parking (Traffic
Index = 4.5), and access drives and truck routes (Traffic Index = 6.0). The project civil
engineer should review these values to determine if they are appropriate. Laboratory R-
Value tests conducted on a representative sample of the on-site soils indicated that an R-
Value of 10 should be used for pavement design. Based on the assumed Traffic Index,
and the R-Value determined in the laboratory, the following pavement sections are
recommended in accordance with the CAL TRANS design method.
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PANEL DRAIN:
MIRADRAIN 6000,
MIRADRAIN 6200,
TENSAR DC1100,
JDRAIN 100, OR
APPROVED SIMILAR.
CONSTRUCTION SLOPE
MINUS 3/4-INCH CRUSHED ROCK
ENVELOPED IN FILTER FABRIC
(MIFAFI 140N, SUPAC 4NP, OR
APPROVED SIMILAR)
1 CUBIC FOOT PER LINEAR FOOT
4-INCH DIAM. ADS OR PVC
PERFORATED PIPE
NOTES
DAMP-PROOFING OR WATER-PROOFI. JG
AS REQUIRED
COMPACTED
.BACKFILL
., ·.-.... /
/
/
// l1
/ 1
., /\ . TO AVOID UNDERMINING FOOTING, ~ DRAIN EXCAVATION SHOULD NOT
EXTEND BELOW THIS PLANE
1) Subdrain perforated pipe should have a fall of at least 1.5%. Perforated pipe should outlet to a
solid pipe carrying the drainage to a free gravity outfall. Slope of outlet pipe should be at least 1 %.
2) Panel drain should be glued or nailed to the wall and spliced in accordance with the manufacturers
recommendations. Fabric side of panel should face the backfill soil.
3) Drain installation should be observed by the geotechnical consultant prior to backfilling .
Geotechnics
Inc o_rp orated_
::.
. -
RETAINING WALL DRAIN
The Iris_ Group, CRC Lot 108
Hamann Construction
Project No. 0273:..004-00
Document No. 6-0449
FIGURE3
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Hamann Construction
August 2, 1996
TRAFFIC INDEX
4.5
6.0
DESIGN SECTION
ASPHALT CONCRETE
3 inches
4 inches
Project No. 0273-004-00
Doc. #6-0449
Page 15
AGGREGATE BASE
.. . .
7 inches
10 inches
Concentrated truck traffic areas, such as trash truck aprons, should consist of six inches
of portland cement concrete over native subgrade. Concrete should be reinforced with
at least number 4 bars on 24-inch centers, each way. As an alternative to asphalt
concrete, portland cement concrete may also be used for the driveways and parking
areas. Concrete drives and parking areas should consist of 6 inches of Portland cement
concrete over native subgrade. Reinforcement and control joints will reduce cracking and
movement potential. As a minimal recommendation, concrete drives and parking areas
should be reinforced with at least #3 rebars on 24 inch centers, each way (or alternatively
6" x 6"-W2.9 x W2.9 WWF). Crack control joints should be placed on at least 10 foot
centers, each way.
The upper 12 inches of fhe pavement subgrade should be scarified, brought to about
optimum moisture content, and compacted to at least 95% of maximum dry density as
determined by ASTM D1557. Aggregate base should conform to Standard Specifications
for Public Works Construction, crushed aggregate base, crushed miscelraneous base, or
processed miscellaneous base.
8.0 LIMITATIONS OF INVESTIGATION
This investigation was performed using the degree of care and skill ordinarily exercised, under
similar circumstances, by reputable geotechnical consultants practicing in this or similar localities.
No other warranty, expressed or implied, is made as to the conclusions and professional opinions
included in this report. The samples taken and used for testing and the observations made are
believed representative of the project site; however, soil and geologic conditions can vary
significantly between borings. As in most projects, conditions revealed by excavation may b.e at
variance with preliminary findings. If this occurs, the changed conditions must be evaluated by
the geotechnical consultant and additional recommendations made, if warranted.
Geotechnics Jncol])Orated·
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Hamann Construction
August 2, 1996
Project No. 0273-004-00
Doc. #6-0449
Page 16
This report is issued with the understanding that it is the responsibility of the owner, or of his
representative, to ensure that the information and recommendations contained herein are brought
to the attention of the necessary design consultants for the project and incorporated into the
plans, and the necessary steps are taken to see that the contractors carry out such recommenda---. . . .,
tions in the field.
The findings of this report are valid as of the present date. However, changes in the condition
of a property can occur with the passage of time, whether due to natural processes or the work
of man on this or adjacent properties. In addition, changes in applicable or appropriate standards
of practice may occur from legislation or the broadening of knowledge. Accordingly, the findings
of this report may be invalidated wholly or partially by changes outside our control. Therefore,
this report is subject to review and should not be relied upon after a period of three years.
***
GEOTECHNICS INCORPORATED
Anthony F. Belfast, P.E. 40333
Principal Engineer
Geotechnics Inco1pOrated
Matthew A. Fagan
Staff Engineer
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APPENDIX A
REFERENCES
American Society for Testing and Materials (1992). Annual Book of ASTM Standards, Section
4, Construction, Volume 04.08 Soil and Rock; Dimension Stone; Geosynthetics, ASTM,
Philadelphia, PA, 1296 p.
Anderson, J. G. , Rockwell, T. K., Agnew, D. C. (1989). Past and Possible Future Earthquakes
of Significance to the San Diego Region, Earthquake Spectra, Vol. 5, No. 2. pp 299-335.
~ .... . . -.. ' ..
Bowles, J. E. (1982). Foundation Analysis and Design, 3rd ed.: New York, McGraw Hill, 816 p.
California Division of Mines and Geology (1975). Recommended Guidelines for Determining the
Maximum Credible and the Maximum Probable Earthquakes, California Division of Mines
and Geology Notes, Number 43.
California Division of Mines and Geology (1982). Recent Slope Failures, Ancient Landslides, and
Related Geology of the North-Central Coastal Area, San Diego County, California,
California Division of Mines and Geology, Open File Report 82-12 LA.
International Conference of Building Officials (1991 ). Uniform Building Code (with California
Amendments) Title 23.
Geotechnics Incorporated (1994). As-Graded Geotechnical Report, Unit 5, Carlsbad Research
Center,Carfsbad, California, Project No. 0017-001-01, April 29, 1994.
Geotechnics Incorporated (1996). Proposal For Geotechnical Services, Geotechnical
Investigation for Commercial Construction, Carlsbad Research Center, Lot 108, Carlsbad,
California, Proposal No. 6-127, June 26,.1996.
Jennings, C, W. (1975). Fault Map of California, California Division of Mines and Geology,
California, Geologic Data Map Series.
Kennedy, M. P., and Peterson, G. L. (1975). Geology of San Diego Metropolitan Area, California:
California Division of Mines and Geology Bulletin 200; 56 p.
San Diego Geotechnical Consultants, Inc. (1984). As Graded Geotechnical Report, Carlsbad
Research Center, Phase II and Ill, Carlsbad Tract No. 81-10, Carlsbad California, Job No.
SD1162-10, September 10, 1984.
San Diego Geotechnical Consultants, Inc. (1988). Preliminary Geotechnical Investigation,
Carlsbad Research Center, Phase V, Carlsbad California, Job No. 05-2863-035-00-00,
February 22, 1988.
Trieman, J. A. (1984). The Rose Canyon Fault Zone --A Review and Analysis, California Division
of Mines and Geology unpublished report, 106 p. ·
Wesnousky, S. G. (1986). Earthquakes, Quaternary-Faults, and Seismic Hazard in California:,
Journal of Geophysical Research, v. 91, no. B12, p. 12587-12631.
Geotechnics inco:rporated
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APPENDIX B
FIELD EXPLORATION
Field exploration consisted of a visual reconnaissance of the site, and the drilling of four
exploratory borings with a truck-mounted, hollow stem, continuous flight drill rig on July 16, 1996.
The borings were 8 inches in diameter, and were drilled to a maximum depth of 11 feet. The
approximate locations of the borings are shown on Figure 2. Logs describing the subsurface
conditions encountered are presented on the following Figures 8-1 through 8-4.
Disturbed samples were collected using a Standard Penetration Test (SPT) sampler (2-inch
outside diameter). SPT samples were sealed in plastic bags, labeled, and returned to the
laboratory for testing. Relatively undisturbed samples were collected using a 3-inch outside
diameter, ring lined sampler (modified California sampler). Ring samples were sealed in plastic
bags, placed in rigid plastic containers, labeled, and returned to the laboratory for testing. The
drive weight for both the SPT and the ring samples was a 140-pound hammer with a free fall of
30 inches. For each sample, we recorded the number of blows needed to drive the sampler 6,
12, and 18 inches. The nomber of blows needed to drive the final 12 inches is shown on the
attached logs under "blows per ft." Bulk samples are indicated on the boring logs with shading,
whereas SPT samples are indicated with vertical lines, and ring samples with horizontal lines.
Boring locations were established in the field by pacing and by estimation using the plans
provided. The locations shown should not be considered more accurate than is implied by the
method of measurement used. The lines designating the interface between soil units on the test
pit logs are determined by interpolation and are therefore approximations. The transition between
the materials may be abrupt or gradual. Further, soil conditions at locations between the borings
may be substantially different from those at the specific locations explored. It should be
recognized that the passage of time can result in changes in the soil conditions reported in our
logs.
Geotechnics Inco:rporated
· 1 ?,
7
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7-.
J
Logged by MAF
Method of Drilling:
~ i-= LL.
ti: w !::.. w a.
i= II) ::: a. 0 w 0 -I al
2
50
3 (6")
4
w w u:--I -I a. a. u
~ ~ e:..
c{ c{ ~ II) II) w ~ iii > -I z i:2 ::> w al 0 0
~ w 0:: ~~-
II)
0 ::1:
LOG OF EXPLORATION BORING NO. 1
Date:
8 Inch Hollow Stem Flight Auger Elevation:
DESCRIPTION
FILL: Matrix consists of a clayey sand (SC), fine to medium grained,
low plasticity, red brown, dry to moist, dense to very dense.
Contains approximately 40% rock fragments to 6 inches in diameter.
Rock is angular, mildly metamorphosed. -.. . . . . . .
.............................................................................................................................................................................................................
Clayey sand with gravel and cobble to 6 inches (SC), low plasticity, ·5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
42
86
red brown, dry to moist, dense to very dense.
SANTIAGO PEAK VOLCANICS (Jsp): Mildly metamorphosed rock,
white and red brown, medium plasticity, very hard.
Moderately weathered.
· Total Depth = 11 Feet
No Groundwater
No Caving
Backfilled 7/16/96
PROJECT NO. 0273-004-00-GEOTECHNICS INCORPORATED
7/16/95
267
LAB TESTS
Gradation
pH & Resistivity
Sulfate Content
Expansion
FIGURE: 8-1.
. .-... -~-
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Logged by MAF
Method of Drilling:
i=-i-= w w u:-u. ..J ..J (.) ';I!. w 0:: a. D. w ~ ~ e:. LU
LU " !:!:. D. ct ct r: i= i!: ~-
V). V) w ~ en Cl)
D. > ..J z 5 LU ~ ::> w ::l: C Ill C Ill C
2
48
3
4
5
71 119 11
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
LOG OF EXPLORATION BORING NO. 2 .
Date: 7 /16/95
8 Inch Hollow Stem Flight Auger Elevation:
DESCRIPTION
FILL: Matrix consists of a clayey sand (SC), fine to medium grained,
low plasticity, brown, moist, dense to very dense.
Contains approximately 20% rock to 4 inches in diameter.
Rock is angular, mildly metamorphosed.
Refusal at 8 Feet
No Groundwater
No Caving
Backfilled 7/16/96
263
LAB TESTS
Unit Weight
Moisture
PROJECT NO. 0273-004-00 -GEOTECHN.ICS INCORPORATED FIGURE: B-2
;1
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LOG OF EXPLORATION BORING NO. 3
Logged by MAF Date: 7 /16/95
Method of Drilling: 8 Inch Hollow Stem Flight Auger Elevation:
i=-i-= LL. w 0:: w w -!:!:. 0..
~ en 3: 0.. 0 w 0 -' IXl
2
51
3 ......... .........
4
5
51
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
w w -' -' 0.. 0.. :'ii; :'ii; ct ct en en w :J > 0:: ::> IXl 0
U::-
t) e:.
~ en z w 0
'#-
w 0:: ~ en 0 ::E
DESCRIPTION
FILL: Matrix consists of a clayey sand (SC), fine to medium grained,
low plasticity, yellow brown, dry to moist, dense to very dense.
Contains considerable cobble size rock fragments to 5 inch diameter.
......... ......... . ........................................................................................................................................................... .
Silty sand (SM) with considerable gravel and cobble, fine to medium
grained, lew plasticity, red brown, very dense.
SANTIAGO PEAK VOLCANICS (Jsp}: Mildly metamorphosed rock,
white and red brown, medium plasticity, very hard.
Moderately weathered.
Refusal @ 9 Feet
No Groundwater
No Caving
Backfilled 7 /16/96
PROJECT Np. 0273-004-00 _GEOTECHNICS INCORPORATED
.:.
263
LAB TESTS
Expansion
Direct Shear
FIGURE: B-3.
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Logged by MAF
Method of Drilling:
i=-..,: UJ w u::-LL -' -' UJ 0:: a. a.. 0
UJ :::: :::: e::. !:!:. w a. <( <( ~ i= ~ 1/) 1/)
UJ ~ en a. > -' z w 0 i:2 ::> w -' C Ol C Ill C
2
42
3
4
5
43
6
7
~
w 0:: ::> t-en 0 ::::
.LOG OF EXPLORATION BORING NO. 4
Date:
8 Inch Hollow Stem Flight Auger Elevation:
DESCRIPTION
FILL: , Mf!~rix consists of a clayey sand (SC), fine to medium grained,
low plasticity, light brown, dry to moist, dense to very dense.
Mottled with green, red, yellow, and white claystone fragments.
Contains considerable cobble size rock fragments to 4 inch diameter.
7/16/95
261
LAB TESTS
R-Value
Gradation
Hydrometer
· Atterberg Limits
8 ......... ......... ...... ...... ......... ......... . ........................................................................................................................................................... .
Sandy clay (CL), medium plasticity, olive brown, moist, very hard.
Contains some gravel size, angular, metamorphic rock fragements. 9
10
74
11
12
13
14
15
16
17
18
19
20
PROJECT NO. 0273-004-00
Total Depth = 11 Feet
No Groundwater
No Caving
Backfilled 7/16/96
GEOTECHNICS INCORPORATED FIGURE: 8-4 '-
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APPENDIX C
LABORATORY TESTING
Selected representative samples of soils encountered were tested using test methods of the
American Society for Testing and Materials, or other generally accepted standards. A brief
description of the tests performed follows:
Classification: Soils were classified visually according to the Unified Soil Classification System.
Visual classification was supplemented by laboratory testing of selected samples and clas-
sification in accordance with ASTM D2487. The soil classifications are shown on the Boring
Logs.
Particle Size Analysis: Particle size analyses were performed in accordance with ASTM D422.
The grain size distribution was used to determine presumptive strength parameters used to
develop foundation design criteria. The results are given in Figures C-1 and C-2.
In-Situ Moisture/Density: The in-place moisture content and dry unit weight of selected samples
were determined using relatively undisturbed samples from the liner rings of the 2½ inch diameter
Modified California samples. The dry unit weight and moisture content are shown on the Boring
Logs.
Atterberg Limits: ASTM D4318-84 was used to determine the liquid limit, plastic limit, and
plasticity index of a selected fine-grained sample. The results are summarized in Figure C-2.
Expansion Index: The expansion potential of selected soils was characterized by using the test
method ASTM D 4829: Figure C-3 provides the results of the tests.
Sulfate Content To assess their potential for reactivity with concrete, a representative sample
was tested for content of water-soluble sulfate minerals using CAL TRANS method 417 (Part I).
The results are given in Figure C-3.
pH and Resistivity: To assess their potential for reactivity with metal pipe, a representative
sample was tested for pH and resistivity, using CAL TRANS method 643. The results are given
in Figure C-3.
Direct Shear Test The shear strength of the soil was assessed through a direct shear test on
a remolded sample performed in accordance with ASTM D3080. The results are summarized in
Figure C-4. .,
R-Value: _ An R-Value _test was performed on representative pavement area materials in
accordanc~ with ASTM D 2844-89. The results are given in the text,
Geotcchnics Jncorpomtecl
L-., .__j -----~ L_ ' ( !J: • .---J -
U.S. Standard Sieve Sizes ,, 100 -----m-.._
1-1/"" ,/8" # #16 # H
90 "' 'ia
80 ~ .
"m .... '§, 70
··a:;
1',.._ I .
I'--m.
~ 60 .c
' I'-
l"-m:
~ Cl)
.5 50 LL
~
la_ -' .... C ~ 40
~ Cl)
'"r-------... I"-..
0.
30 7 ~
.......... ......._
20 ----.........
""
10
:
0
100 10 1 0.1 Grain Size in Millimeters 0.01 0.001
C,OARSE I FINE COARSE I MEDIUM I FINE SILT AND
GRAVEL SAND CLAY
SAMPLE UNIFIED SOIL CLASSIFICATION: SC ATTERBERG LIMITS
EXPLORATION NUMBER: B1 LIQUID LIMIT:
SAMPLE LOCATION: 1' -4' DESCRIPTION: CLAYEY SAND WITH GRAVEL PLASTIC LIMIT:
PLASTICITY INDEX:
.-Geotechnics SOIL CLASSIFICATION Project No. 0273-004-00
Incorporated The Iris Group, CRC Lot 108 Document No. 6-0449
Hamann Construction FIGURE C-1
..
'L-... I.........J .__ @'.:_ __ _
U.S. Standard Sieve Sizes
·100 1-11, v,-, ... v,v rr"T -· rr O V rrvv rrvv JTl<..IV IT"-VV ,... ... --' ... I -
90
=-'r--r-.."'
..... ,
80 ll ~
''-....... ...
.i: 70 Cl
l• I 'ci)
~60
"--'
mi,
r-...... ~
.c
'-Cl) ,; 50 ~ ... C ''
Cl) 40 ~ Cl)
Q. I 30
'
20
10
·o
100 I 10 1 G . s· . M'II' 0.1 ram tze in 1 1meters
COARSE I FINE COARSE I MEDIUM I FINE
GRAVEL SAND
SAMPLE UNIFIED SOIL CLASSIFICATION: CL
EXPLORATION NUMBER: B4
SAMPLE LOCATION: 2' -3½' DESCRIPTION: SANDY LEAN CLAY
.. Geotechnics SOIL CLASSIFICATION ·
Incorporated The Iris Group, CRC Lot 108
Hamann Construction
___,
I I ,._., VI 11 .... ~ ..... I
~ :
~
l>ll1--,
'
0.01
SILT AND
CLAY
·-__.) t l ~
'-l'!il .
I......_ r-..._
~ :--....
~':--.... ...
0.0.01
ATTERBERG LIMITS
LIQUID LIMIT:· 43
PLASTIC LIMIT: 19
PLASTICITY INDEX: 24
Project No. 0273-004-00
Document No. 6-0449
FIGURE C-2
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pH & RESISTIVITY TEST RESULTS
(ASTM D 2844)
I -SAMPLE I pH I RESISTIVITY [OHM-CM] !
B1 @ 1' -4' I 6.5 I 1300 I
• • ' 1\1
SULFATE TEST. RESULTS
(CALTRANS 417)
SAMPLE I SULFATE CONTENT I
B1 @ 1' -4' 400 -800 P.P.M.
EXPANSION TEST RESULTS
(ASTM D 4829)
I SAMPLE I EXPANSION INDEX I
B1@1'-4' 0
B3@ 1' -3' 23
UBC TABLE NO. 29-C, CLASSIFICATION OF EXPANSIVE SOIL
EXPANSION INDEX
0-20
21-50
51-90
91-130
Above 130
n~ Geotechnics
Incor:Rorated
;:.
POTENTIAL EXPANSION
Very low
Low
Medium
High
Very hiQh
Laboratory Test Results
The Iris Group, CRC Lot 108
Hamann Construction
Project No. 0273-004-00
Document No. 6-0449--Figure C-3
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--
...... LL en a. .... en en w 0:: I-en
0::
<( w :c en
.. ..
--·
~
------· ----------
3000
, ....... ~--.. --·-----i--••••• ---· -····1·· I 2500 •••• • a I l!!!I !I I 1E1 @ ml 13 IEl !a !I !El IEJ 1!1 lm Im Ir! IEI el IEI ffil ml ml 13 ~ E;][E)
2000 w;I I~-. -·
1500 ----ra ~=·--··---··---· --------·-----------·-.. -.. ·-.. ·-.
13·· • 1000 -IE!. ••••• II II a1111.m.Ra.RB.lll.ll.ll.a.1.II.II HI ID •• ll!I 11!1 I II II ll 11111111---
13
500 --·-·
--•• 0 ••.• ' ·-----
0.0 2.0 4.0 6.0 8.0 10.0 12.0 14.0 16.0 18.0
STRAIN[%]
. . , ..
---------------····--·· -----· . -. --------.. -.. -. ------. ---...
4000 ·--------·--------.. ___ .. -·---------· -----· -----· ---------------
3500 -..
+ PEAK SHEAR: l ..
ffiULTIMATE SHEAR:
3000 . __ E]
...... LL en 2500 a. .......
en :,)
en w 0:: 2000 -I-en
0:: <( w 1500 :c l en
1000 . ~
500
0
0 500 1000 1500 2000 2500 3000 3500 4000
NORMAL STRESS [PSF]
PEAK ULTIMATE
FRICTION ANGLE: 32 DEGREES 33 DEGREES I COHESION: 680 PSF 590 PSF
'
DRY DENSITY: 110.3 PCF SAMPLE: B3@1'-3'
MOISTURE CONTENT: 15.6 % Consolidated, Drained -
DIRECT SH~AR TEST RESULTS -Project No. 0278-001-01 Geotecnnics
Incorpora_ted The Iris Group, CRC Lo.t 108 -Document No. 6-0462
Hamann Construction FIGURE C-4 -
:.
...
fEf..E~-.21~ 1~~Z l•. 3..: ,;l.1PM 0}HAMANN CONSTRUCTIONVlf I'm\ NU, q~ouol:'/q N0.129 1 P. 5/5
NON-RESIDENTIAL CERTJFICAT:E: Non-R"1dential L-and Owner, pl~ tead th1s
cption carefully and tie sure ~ lhroLJGhly \lrlderttand fl,~ options before signing. The option you c:hoose ~,
affect ycuri,aymentof the Cleveloped Special T~ an~d on your prcperty. This cption 19 available only at
tne time rA1he first bullc:li,g ptlrTrit isst.Bnce. ,roperty D!NflJr sig11ature is raqulred before a building pcrmft will
be i-.ied, Yoot signature i5 c:onflrming 1he ~c:y Of 111 ~el and ownership infgfmalfan shown,
~N~~er.t;bowv-a J ' f'?l·.1/({1;7 elephone
~{e?Pf UJ?-Ja 12P<Af:£T.RliJJ .l~JC ·etr\l.~y
Adclms ProJegt Ad~rfl3$
~~ . ~ . 'l~&da ~gr .... ; .. §ba.,..d ______ ~ ..... ~-------ZJ92=P .... ~-j-e
~ra... l],c ... 3J .. · ... ·
Assassor"s Patee( Number, or APN and Lot Number if 1101: yet subdMded.
c..& 9 ,-'t,eY. ~
BQilding Permit Number .
Ascitad by~~ NS-15$ Mliada,ted by the City Council of the Cit1 of Carlsflad, canfoma. 111e City
Is autnorized. 1c levyaspedal ~ ln CommW'litY l"adlitie$ district No. 1. AH nan-res,idemial pmperty, IJJ)On "the
liau:an~ of the first bl.if ding permit,, shall have 'the opff011 ta (1) pay the SPECIAL O~l-OPMENTTAX ONE-
"nME or (2) a!l!1Jme1hc.ANNUAI. 'SP!C1AL TAX ... DE.Vet.OPEC PROPERTY for a pllriod nat to l}(Ceed lwttnty-
'five (25) years. Pl6*Se lndi~to your ch0ice by li,Nl'aU'1,Q tne appropriate linlil below:
OPTION (1): l elect10 pay1be SPECIAL OEveLOPMl!!NTTAX,~Ne:.onM~now. u o on~me paymli'nt
Amowct qt' Ona-Tim; Special iax: s l 3 1 l ,-, 1 • Owner's lritiala ___ ,.... · '
OPTION (Z): t elect to p11y the SJ:IICIAL. OEVELOPMSNT TAX ANNUALL V far a period not tc exceed
twenty-five~) yems. Ma'llimum AnnuBI Special jtl)C $. 1,$11 l':f • .,., • Owner
lnHiints .:s.t;&-. • . .
I DO HEREaY CSRTIFY UNOER P~NALTY Of PER.,J~R"( THATTI-il:. UNOERSlGNEC IS 1'HE PROPERTY
OWNER OF THE SUl!JECT PROPEF(N ANO THAT I ONOERST.ANI:> ANO WILL COMPLY WITH '0-IE
PftQVISIQNS AS STATED AE\OVE:. .
* ~~\ f\oFRII\A~
Print Name
The City of Calfsbacl has n0t indepeodently wrilied ~& InfQrmation ::mown abi:Ne~ i'herefcre. we aCQept no
resp;insibl1ity • to the aCC\lraey or completeness cf ttilsi lnform&nion. ·
NON-RESIDENTIAL CERTIFICATE
1)'.2-2·:.-07POI:-: 07 ;;C\/D
CITY OF CARLSBAD -COMMUNITY FACILITIES DISTRICT NO. 1
SPECIAL TAX CALCULATION WORKSHEET
FOR THE DEVELOPMENT OF NON-RESIDENTIAL PROPERTY
,.,. PLEASE PRINT •• ONE PER EACH BUILDING PERMIT
BUILDING INITIALS: +.J
PLANNING INITIALS:-~!l~t;:::76f-=2--13°.:..?,6
ENGINEERING INITIALS: __________________ _
FINANCE INITIALS: __________________ _
CRAFT: _________________ _ FINAL: __________________ _
REQUIRED INFORMATION:
BUILDING:
A) PLAN CHECK NUMBER ANO/OR BUILDING PERMIT NUMBER:
8) PROPERTY OWNER(S) AS LISTED ON TITL.E:
CJ ASSESSOR'S PARCEL NUMBER (SJ OR APN ANO LOT NO'S FROM RECORDED FINAL MAP: 2-I2.-1-.so-s3
0) DESCRIPTION OF ..:..ORK: 7 7, ("2.--'e,
PLANNING: s--7--9/ E) CATE OF INITIAL PARTICIPATION IN CFO:
F) GENERAL PLAN OESIGNATION(S): (BOXES PROVIDE FO.R THREE DIFFERENT uses, EXPAND AS REQUIRED.)
IF 1) P.L IF2) t3)
: . G) NET DEVELOPABLE AC.REAGE THAT WILL REMAIN BY GENERAL PLAN use AFTER THE STRUCTURE(S) IS BUILT:
I G1) r) AdG2) Ad G3)
HJ TYPE OF LANO use CREATED BY THE ISSUANCE OF THE BUILDING PERMIT: (FROM SPECIAL TAX TABLE)
IH1) (~ /!Ui)ttt1-~ COMIM <4U'IAL-'&I)! z,8.S PA»~~
ENGINEERING:
I) SQUARE FEET OF BUILDING PER use INDICATED IN (H) ABOVE:
1
11
) 77) 'l'l SQF~
I2
)
J) IMPROVEMENT AREA (CHECK ONE): _ /
WITHIN THE BTO -IMPROVEMENT AREA I (V)
I H3)
113)
SQF,!
OUTSIDE THE BTO -IMPROVEMENT AREA II ( )
PARCEL/ 0 (CIRCLE ONE) -+Q-~-OF ~:e:s:t.-AA'JitP _f;r_~-;:l:_°':J.__ IN THE CITY OF CARLSBAD, COUNTY OF SAN DIEGO, STATE OF
I<) LEGAL OE~PTION: (REQUIRl:jO ONLY WHEN G ABOVE IS ZERO(O).)
CALIFORN A,.FILEO IN THE OFFICE OF THE SAN DIEGO COUNTY RECORDER ON _____ l.1£1-f-______ L!> __ , ___ \_j'_"[J. ___ .
(IF THE ABOVE IS NOT ADEQUATE A FULL LEGAL DESCRIPTION MUST BE ATTACHED.)
!BUILDING: FINANCIAL PORTION TO BE FILLED OUT BY MIKE PET-ERSON OR FAX TO BARBARA HALE 298-3783
FINANCE:
L) SPECIAL DEVELOPMENT TAX -ONE-TIME, RATE PER SQUARE FOOT:(FROM SPECIAL TAX TABLE.)
I ~1, ,~2) ,~3)
M) SPECIAL TAX -ONE-TIME (Ix L):
It> It~> IM3)
.$
OBLIGATION FOR UPCOMING YEAR: IF THE PARCEL IS ISSUED A BUILDING PERMIT BETWEEN MARCH 2ND ANO JUNE 30TH, AN
OBLIGATION FOR THE UPCOMING YEAR IS CREATED ANO WILL BE LEVIED IN THE FOLLOWING FISCAL YEAR .
. :,: · ... :·,. TOTAL PAYOFF OPTION· t:: '· ... ·,.:,::.,'·llsuM oF (Ml ABOVE. THE SPECIAL TAX LIEN ON THIS PROPERTY, WHEN cHosING
OPTION 1, WILL BE RELEASED WHEN ALL OUTSTANDING OBLIGATIONS HAVE BEEN PAID IN FULL. IF THERE IS A OBLIGATION FOR THE
UPCOMING YEAR, UNDEVELOPED SPECIAL TAX WILL BE LEVIED IN THE UPCOMING FISCAL YEAR, AFTER PAYMENT OF WHICH THE LIEN
WILL BE RELEASED. IF THERE IS ONLY THE CURRENT YEAR'S OBLIGATION OUTSTANDING, THE LIEN IS RELEASED WHEN BOTH
INSTALLMENTS HAVE BEEN PAID. IIOPTION 1: $
DISTRIBUTION OF PAYOFF: ACCOUNT NO. 430-810-1340-8032
· '·:·-., .. .,.,.., .. ,,., .. pAss·,THRU'OPTION'·.2:·'.-:,·,:·:>:,f.:\.:/llsuM oF (Ml ABOVE TIMES 13.81 %. THE AMOUNT SHOWN Is THE MAXIMUM ANNUAL
SPECIAL TAX LEVIED FOR A PERICO OF TWENTY-FIVE (2!5) YEARS. IF THERE IS AN OBLIGATION FOR THE UNPCOMING YEAR, THE
AC
SQ Fl
I
UPCOMING YEAR'S TAXES WILL REFLECT THE OBLIGATION OF UNDEVELOPED LANO TAX. THE TWENTY-FIVE YEAR ANNUAL SPECIAL TAX
WOULD BEGIN IN THE FOLLOWING FISCAL YEAR.
DISTRIBUTION:
A COPY OF: FINAL CALCULATION SHEET, BUILDING PERMIT, ANO SIGNED CERTIFICATE
A COPY OF: FINAL CALCULATION SHEET, BUILDING PERMIT, ANO SIGNED CERTIFICATE
A COPY OF: FINA~ CALCULATION SHEET, ANO SIGNED CERTIFICATE
ALL ORleGINALS
FEBRUARY 10, 1994
IIOPTION 2: $
CFO NO. 1 INCOMING BOX
FINANCE (HELGA)
PROPERTY OWNER
BUILDING PERMIT FILE
VALID UNTIL ___________ _
I
1.11 1 1 vr vnru • .:ionu 1.1v1 u 1 uc r Mi\ l\V, 4JOU0-:14 r, UC::
CERTIFICATE OF COMPLIANCE
CITY OF CARLSBA!J Plan Check No. ?0 -?_o!.{ (
COMMUNITY DEVELOPMENT
2075 LAS PALMAS DR., CARLSBAD, CA 92009
(619) 438-1161
This form shall be used to determine the amount of school fees for a project and to verify that thP. project
applicant has complied with the school fee requirements. No building permits for the projects shall be
issued until the certification is signed by the appropriate school district and returned to the City of
Carlsbad Building Department.
SCHOOL DISTRICT: + Carlsbad Unified
801 Pine Avenue
San Marcos Unified
1290 West San Marcos Blvd.
Carlsbad CA 92009 (434-0661) San Marcos CA 92024 (744-4776)
Encinitas Union San Oieguito Union High School
-710 Encinitas Boulevard
Encinitas CA 92024 (753-6491)
101 South Rancho Santa fe Rd.
Encinitas CA 92924 (944-4300)
Project Applicant: _~_\_r\_1'-'\._4_"""'_"' __________ APN: "2.(2 .. -!~ -~.S -~
Project Address: \, (; l ~ f ~ t.Ao.4r-y Ave_
RESIDENTIAL: SQ. FT. of living area _____ number of dwelling units ______ _
SQ. FT. of covered area SQ. FT. of garage area ______ _
COMMERCIAUINDUST,R11L: S~ Jl1 {2..8
Prepared by --1fv\1--.,_..~_,.a..=,___---1~i----=---=------Date <-(2,2..( t)
f[E CERTIFICATION
(To be completed by the School District)
__ Applicant has complied with fee requirement under Government Code 53080
Project is subject to an existing fee agreement --"' --Project is exempt from Government Code 53080
Final Map approval and construction· started before Sepcember 1, 1986.
--{other school fees paid)
Other ----
Residential Fee Levied: $ ______ b:3:-P.d on _______ sQ. tt'.@ ______ _
Comm/lndust Fee _!.-evied: $ 2~, tL/-<t. Yo based on 11} 1 ~zr sq. ft. @ 3 t> ;& .l..if_ V ~),{)A. . 4 · J. H. Blair ___,=----_.__ __
~ ,~~ Assistant Supl _ / /c:;i
· Business Services :J1 :>w f' I 7
istrict Official Title Date
I .
}~ ~-.-J .. ,~·
I...
i ' r
I
---
01/28/98 16:26
Page 1 of 1
B U I L D I N G P E R M I T PCR No: PCR97033
Project No: A9601626
Development No:
Job Address: 1675 FARADAY AV
Permit ·Type: PLAN CHECK REVISION
Parcel .No: 212-130-33-00
Valuation: 0
Occupancy Group:
Suite:
Lot#: 108
Reference#:
Correfr~ OC;9Pai1
Stia-t'Ws:
Description: IRIS
: ORIG
GROUP TRUSS DRAWINGS
CB962041
Applied:
Apr/Issue:
Entered By:
619-440-7424
FINAL APPROVAL
INSP. ____ DATE __ _
CLEARANCE _____ _
CITY OF CARLSBAD
2075 Las Palmas Dr., Carlsbad, CA 92009 (619) 438-1161
NEW
ISSL4IDDOO
06/23/97
01/28/98
JM
,,~RMIT APPLICATION
FOR OFFICE USE ONLY 0--7:-)
PLAN CHECK No.Zc/(7 /073
CITY OF CARLSBAD BUILDING DEPARTMENT
2075 Las Palmas Dr., Carlsbad CA 92009
(760) 438-1161
EST. VAL. _________ _
Plan Ck. Deposit ________ _
Validated By __________ _
Date _____________ _
1 •. ,PRoji:cr iNF.ORMAtioN -
Address (inc)ude Bldg/Suite #)
Legal Description Lot No. Subdivision Name/Number Unit No. Phase No. Total # of units
Assessor's Parcel #
State License # _________ _
Existing Use
I
-6 .. :· WORKE,RS' .COMPENSATiON T", ··-_ .:,-''. -:· _-._ .. _ .. :-·~·:·_:::-;:,,T_:_-;."":':.":'~-·:·.:~ .::·;··
Wor~ers' Compensation Declaration: I _hereby affirm under penalty of perjury one ·of the following declarations:
Proposed Use
~ ,:· $ • ' ,"',· ,::,-..
0 I have and will maintain a certificate of consent to self-insure for workers' compensation as provided by Section 3700 of the Labor Code, for the performance
of the work for which this permit is issued.
0 I have and will maintain workers' compensation, as required by Section 3700 of the Labor Code, for the performance of the work for which this permit is
issued. My worker's compensation insurance carrier and policy number are:
Insurance Company_____________________ Policy No.____________ Expiration Date _______ _
(THIS SECTION NEED NOT BE COMPLETED IF THE PERMIT IS FOR ONE HUNDRED DOLLARS ($100) OR LESS)
0 CERTIFICATE OF EXEMPTION: I certify that in the performance of the work for which this permit is issued, I shall not employ any person in any manner so as
to become subject to the Workers' Compensation Laws of California.
WARNING: Failure to secure workers' compensation coverage Is unlawful, and shall subject an employer to criminal penalties end civil fines up to one hundred
thousand dollars ($100,000), In addition to the cost of compensation, damages es pr~vided for In Section 3706 of the Labor code, Interest end attorney's fees.
SIGNATURE ______________________________ DATE _________ _
·1. -· owNeR-suitDER:1:>ecLAitATioN··:.:: :::;:: :~--;,,_.,.· ,: ·,· -:-:·, ,; ·.•• "':······, .·:· "· '·:""' ., ·.;,·:·,,,.:;i·/··~:rfs-·?r~~·--:::,:--:~·y,r=.;.,,J"'~-: _-:-:-::::::-:::·= .. ·
I hereby affirm that I am exempt from the Contractor's License Law for the (ollowing reason:
0 I, as owner of the property or my employees with wages as their sole compensation, will do the work and the structure is not intended or offered for sale
(Sec. 7044, Business and Professions Code: The Contractor's License Law does not apply·to an owner of property who builds or improves thereon, and who does
such work himself or through his own employees, provided that-such improvements are not intended or offered for sale. If, however, the building or improvement is
sold within one year of completion, the owner-builder will have the burden of proving that he did not build or improve for the purpose of sale).
0 I, as owner of the property, am exclusively contracting with licensed contractors to construct the project (Sec, 7044, Business and Professions Code: The
Contractor's License Law does not apply to an owner of property who builds or improves thereon, and contracts for such projects with contractorlsl licensed
pursuant to tha Contractor's License Law).
0 I am exempt under Section ______ Business and Professions Code for this reason:
1, I personally plan·to provide the major labor and materials for construction of the proposed property improvement. 0 YES ONO
·2. I (have / have not) signed an application for a building permit for the proposed work.
3. I have contracted with the following person (firm) to provide the proposed construction (include name I address / phone number I contractors license number):
4. I plan to provide portions of the work, but I have hired the following person to coordinate, supervise and provide the major work (include name / address / phone number/ contractors license number): ____________ · __________________________________ _
5. I will provide some of the work, but I have contracted (hired) the following persons to provide the work indicated (include name / address / phone number / type of work): ________________________________________________________ _
PROPERTY OWNER SIGNATURE______________________ DATE _________ _
icoMP.LEtEii:lis:sE6tii:JN'Fb1%:r{oN;;i'tsl6ENfiAi/ililitbiNO·PEiiMIT~'.QNLf;:liJTI':;=:',;j~~J1i';11.~f'tf~~1.1t1t~?:Jf~,1::,u:er1,~rn.t,?7ft.-_-:;t~!'.?'"~~r.YJ;;/.:;
Is the applicant or future building occupant required to submit a business plan, acutely hazardous materials registration form or risk management and prevention
program under Sections 25505, 25533 or 25534 of the Presley-Tanner Hazardous Substance Account Act? 0 YES O NO
Is the applicant or future. building occupant required to obtain a permit from the air pollution control district or air quality management district? 0 YES O NO
Is the facility to be constructed within 1,000 feet of the outer boundary of a school site? 0 YES O NO
IF ANY OF THE ANSWERS ARE YES, A FINAL CERTIFICATE OF OCCUPANCY MAY NOT BE ISSUED UNLESS THE APPLICANT HAS MET OR IS MEETING THE
. REQUIRl:MENTS OF THE OFFICE OF EMERGENCY SERVICES AND THE AIR POLLUTION CONTROL DISTRICT.
faf~-~: ¢ot¥~'ffii1eyfQ.ffllNl:iiN~GE;4cV,:;;~r7;~W.s.~~!:.,~:;.;,:t]~'.".-~::~.'f.",:';'¥/'.?!'::~;".:':~(:,'.':'.<:tifi::,r~T_:::y:,:;':;'.;_';,0'.'I'S"i! F'"?'.;":~·:~:-,_,·::.~: ·. _ ,::' /~J:;_ .. , .. ,';}~', \'t·', ·. :
I hereby affirm that there is a COl')Struction lending agency for the performance of the work for which this permit is issued (Sec. 3097(1) Civil Code).
LENDER'S NAME _____________ _ LENDER'S ADDRESS _______________________ _
I certify that I have read the application and state that the above Information is correct and that the information on the plans Is accurate. I· agree to comply with all
City ordinances and State laws relating to building construction. I hereby authorize representatives of the Cltt of Carlsbad to enter upon the above mentioned
property for inspection purposes, I ALSO AGREE TO SAVE, INDEMNIFY AND KEEP HARMLESS THE CITY OF CARLSBAD AGAINST ALL LIABILITIES,
JUDGMENTS, COSTS AND EXPENSES WHICH YIN ANY WAY ACCRUE AGAINST SAID CITY IN CONSEQUENCE OF THE GRANTING OF THIS PERMIT.
OSHA: An OSHA permit is required for ex i ns over 5•0• deep and demolition or construction of structures over 3 stories in height.
EXPIRATION: Every permit issued bvAh"''R<il!-'ing Official under the provisions of this Code shall expire by limitation and become null and void if the building or
work authorized by such permit is need within 365 days from the date of such permit or if the building or work authorized by such permit is suspended
or abandoned at any time after t ;.commenced for a period of 180 days (Section 106.4.4 Uniform Buildin
0
gACToEdel. k I
0
/ fAtqn
APPLICANT'S SIGNATURE LfoJ ~/"/ b,,L-
,,..,u,Tt:, C:tlo vc1 Inv.,. Annlir~n• PINY• l=im~n('P
\
EsGil Corporation
Professiona[ Pfati !l{.eview 'E.ngineers
DATE: June 28, 1997
JURISDICTION: Carlsbad
PLAN CHECK NO.: 96-2041 Rev. No. 1
PROJECT ADDRESS: 1675 Faraday Avenue
PROJECT NAME: The Iris Group
SET:I
0 APPLICANT
~
~EVIEWER
0 FILE
• The plans transmitted herewith have been corrected where necessary and substantially comply
with the jurisdiction's building codes.
D The plans transmitted herewith will substantially comply with the jurisdiction's building codes
when minor deficiencies identified below are resolved and checked by building department
staff.
D The plans transmitted herewith have significant deficiencies identified on the enclosed check list
and should be corrected and resubmitted for a complete recheck.
D The check list transmitted herewith is for your information. The plans are being held at Esgil
Corporation until corrected plans are submitted for recheck.
D The applicant's copy of the check list is enclosed for the jurisdiction to forward to the applicant
contact person.
D The applicant's copy of the check list has been sent to:
• Esgil Corporation staff did not advise the applicant that the plan check has been completed.
D Esgil Corporation staff did advise the applicant that the plan check has been completed.
Person contacted: Telephone#:
Date contacted: (by: )
Mail Telephone Fax In Person
• REMARKS: TRUSS REVISIONS.
By: 1 Abe Doliente
Esgil Corporation
D GA D CM D EJ D PC
Enclosures:
6/24/97
Fax#:
trnsmtl.dot
9320 Chesapeake Drive, Suite 208 + San Diego, California 92123 + (619) 560-1468 + Fax (619) 560-1576
Carlsbad 96-2041 Rev. No. 1
June 28, 1997
VALUATION AND PLAN CHECK FEE
JURISDICTION: Carlsbad
PREPARED BY: Abe Doliente
PLAN CHECK NO.: 96-2041 Rev. No. 1
DATE: June 28, 1997
BUILDING ADDRESS: 1675 Faraday Avenue
BUILDING OCCUPANCY: B/F-l/S-1 TYPE OF CONSTRUCTION:
UILDING PORTION BUILDING AREA VALUATION VALUE
(ft. 2) MULTIPLIER
TRUSS REVISION TO THE ORIGINAL SET OF PLANS.
Air Conditioning
Fire Sprinklers
TOTAL VALUE
D 1991 USC Building Permit Fee D Bldg. Permit Fee by ordinance:$
• 1991 USC Plan Check Fee D Plan Check Fee by ordinance: $ 435.75
Type of Review: • Complete Review D Structural Only • Hourly
D Repetitive Fee Applicable D Other:
Esgil Plan Review Fee: $ 348.60
Comments: 4 hours @ 87 .15 X 1.25 = $ 435. 75
($)
Sheet 1 of 1
macvalue.doc 5196
PLANNING/ENGINEERING APPROVALS
pe,e
PERMIT NUMBER -ea-q 7~ CJ3 >
RESIDENTIAL
RESIDENTIAL ADDITION MINOR
{ < $10,000.00)
OTHER JT¼ > S fu:N( ~ 10J
PLANNER//~
ENGINE;n;-m~;;J
C:\WP51 \FILES\BLDG.FRM
TENANT IMPROVEMENT
PLAZA CAMINO REAL
VILLAGE FAIRE
COMPLETE OFFICE BUILDING
DATEW1/cr2
Rev 11 /15/90