HomeMy WebLinkAbout29229 CENTRAL AVE_ 06-00003473ity of L I
PERMIT
130 South Main Street
00003473 DATE: 8/15
JOB ADDRESS . . . . . 29229 CENTRAL AVE "B"
DESCRIPTION OF WORK . MISCELLANIOUS
OWNER CONTRACTOR
Cambern & Central Investor Inc
265 Santa Helenda #125
SOLANA BEACH, CA 92075
A.P.# . . . . . . 377 - 040 -027 2
OCCUPANCY . . . .
CONSTRUCTION
VALUATION 20,000
BUILDING PERMIT
QTY UNIT CHG
BASE FEE
18.00 X 12.5000 VALUATION
BUILD RETAIL, INC
122 -A EAST MAIN ST
JAMESTOWN NC 27282
LIC EXP 0 /00 /00
SQUARE FOOTAGE 0
GARAGE SQ FT 0
FIRE SPRNKLR
ZONE . . . . . . NA
ITEM CHARGE
63.00
225.00
Oper: COUNTER Type: DF Drawer: 1
Date: 9/15/06 15 Re[eipt no: 1072
2006 3473
BP BUILDING PERMIT 1 $514.00
Trarz number: 103637
CA CASH $520.00
Trans date: 8/15/05 Time: 16:02:13
FEE SUMMARY CHARGES PAID DUE
PERMIT FEES
BUILDING PERMIT 288.00 00 288.00
OTHER FEES
PLAN RETENTION FEE 6.00 00 6.00
SEISMIC OTHER 4.00 00 4.00
PLAT CHECK FEES 216.00 00 216.00
TOTAL 514.00 00 514.00
SPECIAL NOTES & CONDITIONS
racking for kirkland's
Oper: COUNTER Type: DF Drawer: 1
Date: 9/15/06 15 Re[eipt no: 1072
2006 3473
BP BUILDING PERMIT 1 $514.00
Trarz number: 103637
CA CASH $520.00
Trans date: 8/15/05 Time: 16:02:13
City of Lake Elsinore
Building Safety Division
Post in conspicuous place
on the job
You must furnish PERMIT NUMBER and the
JOB ADDRESS for each respective inspection:
Approved plans must be on job
at all times:
Please read and initial
1.1 am Licensed under the provisions of Business and professional Code Section 7000 et seq. and
my license is in full force.
2. I,as owner of the property,or my employees w /wages as their sole compensation will do the work
and the structure is not intended or offered for sale.
3. l,as owner of the property am exclusively contracting with licensed contractors to construct the
project.
4.1 have a certificate of consent to selfinsure or a certificate of workers Compensation Insurance
or a certified copy thereof
5. 1 shall not employ any person in any manner so as to become subject to Workers Compensation
Laws in the performance of the work for which this permit is issued.
Note: If you should become subject to Workers Compensation after making this certification,
you must forthwith comply with such provisions or this permit shall be deemed revoked. Code 4provals Date Ins or
ELO 1 Temporary Electric Service
PLO 1 Soil Pipe Underground
EL02 Electric Conduit underground
BPOI Footings
BP02 I Steel Reinforcement
BP03 Grout
BP04 Slab Grade
PLO 1 Underground Water Pipe
SSO 1 Rough Septic System
S W O 1 On Site Sewer
BPO5 Floor Joists
BP06 Floor Sheathing
BP07 Roof Framing
BP08 Roof Sheathing
BP09 Shear Wall & Pre -Lath
PL03 Rough Plumbing
EL03 Rough Electric Conduit
EL04 Rough Electric Wiring
EL05 Rough Electric / T -Bar
MEO1 Rough Mechanical
ME02 Ducts, ventilating
PL04 Rough Gas Pipe / Test
PL02 Roof Drains
BP I O Framing & Flashing
BP 12 Insulation
BP13 Drywall Nailing
BP 1 I Lathing & Siding
PL99 Final Plumbing
EL99 Final Electrical
ME99 Final Mechanical
BP99 IFial Building
Code Pool & Spa Approvals Date Inspector OTHER DIVISION RELEASES
Deputy Inspector Department Approval required prior to the
building being released by the CityP001PoolSteelRein / Forms
P001 Pool Plumbing/ Pressure Test
P003 Pre -Gunke Approval Date Inspector
EL06 lRough Pool Electric Planning
Sub List Approval Landscape
P004 Pool Fencing / Gates / Alarms Finance
P005 Pre- Plaster Approval Engineering
P009 Final Pool / Spa
ir=
APPLICATION FOR
BUILDING PERMIT
VALUATION CALCULATIONS
1st FLOOR SF
2nd FLOOR SF
3rd FLOOR SF
GARAGE SF
STORAGE SF
DECK & BALCONIES SF
OTHER: SF
j/
VALUATION: `-y ^- 0 T
R
FEES
BUILDING PERMIT 5 t M oo
PLAN CHECK
AP
PLAN REVIEW
SEISMIC
BUILDINGADDRESS
t /V l N -- G
PLAN RETENTION 7-W
0 1 certify that I gave read this application and state that the
above information is com, . I agree to comply with a# city
and county onfiri Ices and state laws relabg to buii mg
coast action. and try authorize representatives of this
city to enter upon the above - mentioned property for insp-
tion purposes-
Signature of Applicant or Agent Date
Agent for contractor D owner
Agents Name
Agents Address
Street City State Zip
City of Lake Elsinore
130 South Whin Street
APPLICAT ONNO
APPLICATION RECEIVED
DATE
AP BY
BUILDINGADDRESS
t /V l N -- G
TRKUT BLOCKIPAGE LOT/PARCEL
0 M r A.)Vr5
W
N
MAILING
ADDRESS
R
C
0
N
y at I am licensed under provisions of chapter commencing
with section 7000) of division 3 of the business and professions code,and my
license is in full force and effect.
LICENSE # CITY BUSINESS /3 / AND CLASS TAX # 1 IQ
T
R L f 1 j
A
C
MAILING
ADDRESS
T
O
CITY
t $
TATE2IPfi- PH02 —_
R C 0 NT RACT S N
A
NAME LICENSE #
R
C
MAILING
ADDRESS
H CITY STATE/ZIP PHONE
0 NEW OCC GRP. ! CONST.
DIVISION: TYPE: 0 ADDITION
0 ALTERATION NUMBER OF NUMBER OF
STORIES: BEDROOMS: 0 OTHER
0 SINGLE FAMILY ZONE:
0 APARTMENTS
0 CONDOMINIUMS HAZARD YES
AREA ? NO0TOWNHOMES
0 COMMERCIAL SPRINKLERS YES
REQUIRED ? NO0INDUSTRIAL
0 REPAIR PROPOSED USE OF BLDG:
PRESENT USE OF BLDG: 0 DEMOLISH
JOB DESCRIPTION S I Q
Al 5TOCx2nnIA
08/09/2006 10:45 9729802914 R12A PAGE 02
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APPROVED
STRUCTURAL EIV61NEFERS, RC
i__ _•:::ate:
I7y'
July 10, 2006
Mr. Doug Cox
B1uArc Design
33 Music Square West
Nash -61le, Tennessee 37203
RE: Kirkland's / Lake Elsinore, California / Storage Rack Anchorage
EAMC Project No. 06231
Dear Doug:
CELEBRATING
s YEARS
Attached are calculations for anchorage of the storage racks in the back room at the referenced
facility as shown on your drawings. The storage racks in question are steel racks. The shelves
are typically 10' high with a maximum of five 2' -6" deep shelves and leg spacing is 8'
maximum. My analysis is based on a load of 20 pounds per square foot of shelf space.
My analysis shows that 5/8" Simpson Set high- strength epoxy anchors with 3 -3/4" embedment
are able to resist the overturning forces. One bolt is expected to be placed in each leg. As stated,
the legs are a maximum of 8' apart along the length of the shelf and 2%' apart on the depth of the
shelf. Where shelving units are placed back to back, they should be bolted together and will
perform as a unit. The concrete slab is assumed to have a minimum 28 -day strength of 2000
p.s.i.
This is based on seismic acceleration factors from the 1997 Uniform Building Code and a soil
profile of Type D. Please note that this letter addresses strictly the anchorage of the storage
racks to the slab on grade.
Please call if you have any questions or if I can be of additional assistance.
Sincerely,
EM uctural Enzineers, P.C.
Daniel Borsos,
Principal
DKB /pjs
Attachments
CITY OF LAKE ELSINORE
OVED
PROJECT: A
STRUCTURAL ENGINEERS, P.C. BY:
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SHEET.
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STRUCTURAL ENGINEERS, P.C. 1BY. /J I UXTE: —77-------ISHEET:
9;
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90
all
MW "0
Tentan Loads for Threaded R_ od Anthem ® •
In Worml-Walght Contmte
Tendo Load *See page
Rad W Ewa" Catkal Critical Ilawd on SUM SIftwIM 5 for an
toplanatlonDepto, UP AM
C33TLj,
A123 GR 074MF9M-6 aft) ConcreteIDie. L4. Ov- Dili-
NO of the lead
om) Is- 11"E") 04"40) 23M) table Icons
Ullim-CILA $14 a Sts. on. Afivw. Aftw. Allow. Ate.. IV kftw-
I w. (ky) MS. Phi tbs- ON) Illis Owl Ms. (11:91) Va. (12) W. OX) Its. "I
1,9812 US 475 1,9M 475131427
178 (2.21 ) M44) (67) () M) rLi I
3/3 3112 5 114 14 1 i@,2W 119---v 2= I 10'M 97 2,570 2,105 4,535 3,630
1/2 19-5) (99) (133) (3%) (OS) (M) 1 (45.71 (OA) (11-4) (9.4) (20.2) (16.1)
4-112 6 314 16 11,513 .54 2,655 1 10.613 2,655
1 14 1 A) .81 _7 (11.8) JU In (L OL A4_&
2 V 3 SM 8 1/2 7.216 1.1133 1.805 --J7.f15 1.
1!ems tk!L _fJ16 D J 5_L, ISO] W1 6.
4 tit 1 3A 17 V.711111 in r4.425 11111,41111 M 4,019 3.75e A,m SIM
M7) 1 8--- jisi 0971 n618 1 (311 0.51 (16.7) (35.9) (28,6) 162) i.-ORL _,1L.L ... -
9 1 ra2411-1056 ME CM CM
5 J t2o1 . 5 Ej - igs) _wu
r-2 V 339 10 6,780 815 FM
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3314 5 5A 15 t ! 4,190 I !L.115 I
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12D (1911 (50B) (11118) (&0) W) ,
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07,16) 81 1) 552)
33,482 I- 8aso
2381 (35% 1 (9M) (14&§)__ (5 3) 37.1
3.= 51.118 1312 15 456 2121 8-M 15,45B
I
37.1)
SIM
111 1141 is US r 45
I
I 111 -.1 1 Ii 21P291 . - tii;k1- IWI - . - - - - - -
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is 112 as
IW; = 13431 i8t ay 145 9t _
11I.M I
111 1141 is US r 45 47 634 58S 11 1118 47,534 11.218
j2Uj t0j il_1 3j L211 S., 12.7'. 5 jil-gi 53.0)
I- FS 7/11 t 13A5 4 15 1/2 19,121 1-M-9 4,78D j 19,120 4,790
198) (148) i (394) 85.1 5 .3 i .11 21.3)
513A5 I 3A 23 1A 8,W5 9,M
nal I M (M) M.0) 41.11
71B 7 3A 11 M 31 t 41J61 2,149 122941 54,M 1,01 13,729 11,500 24,795 16,6110
652) (2951 MPMEY 218.7) 9.61 P.7) _S44.11 nK 61.0) 512) 1102) 75-0)
IL6 15 5A 41 SA 14,450 1 15,195
1060) 64.4) 67.6)
13 IM 19 5A 52 112 1 65,679 506 1fifflO 65,6nI333) (!p - L 296.6) pu 74211_
410 8 a% 1-1 1 M.171 1
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112 to 43 17,M` 18.430
15 zt 12 ft 82 all 6.416.41 ft- - in 12,411M
Mi I _1t_R4 z 4 16 -11 W 9bi I -
I'm35,55855A157/16 22 121 35'M 2, ) aAV1
143) 1 (2141 f5M 1590 10 6 ragi P69.5) - 1 39,91
3 7115 iz am 133 3A 14,115 14,115
2141 M41 (OM Gul 628)
1 114
3A k 11 1A 16 7A 45 i1 77,04 7,124 19,50 77,110 28,490 50,620 34,425119,250
31-8) M (42% (11431 1 342 2 a (U7V M711 95.Z)_ 104-5) 225.2) 153.1)
24.W15221224-CO
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18 W4 28 1/3 122,681 18,940 30,670 1230,67035,F7511W61MM9051545-n 41171 (136A) 1 11545,711 136A)
i.Mxnbb toad mmtbe the hssudftbwAorsudituqd 5. Refs Io tr,Servlca Turpwtufe Sen0ft den for 7. Anclors are rmt permi0ed to resat tenslon
2 The dnuble IWds Illsiad under Bawd* band are based an a Wbm" load sUbrtmt for =PMM tomes In overhead a t2n6 ftwWWJons urdess
s*ty factor of 4.0. CArdus are Peru to be used wilth ftr&-resh&ve mW consIdersdon ts gIven to fire -oposure
film bads may be irsa»ed bysmPercel Ilorstvad-tem coosbuotion, pruedIed the anchors rests wind or selsmic Inads and aWdated ternparabim conditions.
buff do to vlod of seM* tames wham purriffied by coda. only For use In fIreieskM construdlon, ft wdm can also 8. Allovuble load bued on bond streng!] may
4. PAv lb doudle load e*istntvi factors tar qsdv and edge be wmP13d tD be used to rzsfd Wntly Wads, pmvIded speclal be Irderpolated for concrete
dlsbace on pMm 47 & 49_ awsIderdon h2s been CIVED to fire VP=n COMINOM. gbeigd bdww2DW psi ==PsL
PROJECT: T JOB NO: I-STRUOURAL ENGINEERS, PC Br q DATE: -V7 - SHEET- -,7171"- 1 •4
IV
Z-;-
JOB #:06 -1280
161 ATLANTIC STREET • POMONA • CA 91768 • TEL: (909)869 -0989 a FAX: (909)869 -0981
MATERIAL HANDLING ENGINEERING
EST. 1985
STORAGE RACKS STEEL SHELVING SEISMIC ANALYSIS ALASKA INDIANA OHIO
DRIVE -IN RACKS MOVABLE SHELVING STRUCTURAL DESIGN ARIZONA KANSAS OKLAHOMA
CANTILEVER RACKS STOWAGE TANKS CITY APPROVALS CALIFORNIA MICHIGAN OREGON
MEZZANINES MODULAR OFFICES STATE APPROVALS COLORADO MINNESOTA PENNSYLVANIA
CONVEYORS GONDOLAS PRODUCT TESTING CONNECTICUT MISSOURI TEXAS
CAROUSELS BOOKSTACKS FIELD INSPECTION GEORGIA MONTANA UTAH
PUSHBACK RACKS FLOW RACKS SPECIAL FABRICATION IDAHO NEVADA VIRGINIA
WICK BUILDINGS FOOT94GS PERMITTING SERVICES ILLINOIS NEW MEXICO WASHINGTON
WISCONSIN
JOB #:06 -1280
161 ATLANTIC STREET • POMONA • CA 91768 • TEL: (909)869 -0989 a FAX: (909)869 -0981
rwoSEIZMIC
Oft I dC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 • FAX: (909) 869 -0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 2 OF 15
CALCULATED BY M.T. DATE 8/15/06
DESCRIPTION PAGE
TITLE PAGE 1
TABLE OF CONTENTS 2
PROJECT SCOPE & SUMMARY 3
GENERAL CONFIGURATION 4
SUMMARY 5
LOADS & DISTRIBUTION 6
LONGITUDINAL/TRANSVERSE ANALYSIS 7
COLUMN ANALYSIS 8 to 9
BRACE ANALYSIS 10 to 12
OVERTURNING ANALYSIS 13
SLAB & SOIL ANALYSIS 14 to 15
ro*
SEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 • FAX: (909) 869 -0981
161 ATLANTIC AVENUE • POMONA, CA 91768
Project Scope:
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 3 OF 15
CALCULATED BY M.T. DATE 8/15/06
The purpose of this analysis is to show that the following Light Duty Storaqe Racks complies with Chapter 22
Division X of the 2001 California Building Code.
The racks are prefabricated and are to be field installed only, without any type of field welding.
Parameters:
The Light Duty Rack Fixtures will be analyzed as a steel storage rack utilizing the formula:
V= 2.5 xCaxIx(wLL/n +wDL) /(Rx 1.4)
Where:
Ca = 0.572
Na = 1.3
I = 1.0
Rlong = 5.6
Rtrans = 4.4
W = wLL/1.0 + wDL
Steel - Astm A570, Grade 36, Fy = 36,000 psi
Bolts - Astm A307 unless noted otherwise
Rivets - Astm A502 -2, Grade 55, Fy = 55,000 psi
Anchors - 3/8 "0 x 2-1/2" Minimum Embedment Wedge type Anchors
Shetves - Particle Board or Ptywood
Slab - S° x 2,500 psi
Sod - 500 psf
Minimum Allowed
Minimum Allowed
SEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869-0989 • FAX (909) 869 -0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT -
FOR
SHEET NO.
CALCULATED BY
KIRKLANDS
ROBERT QUINTANA ARCHITECTS
4 OF 15
M.T. DATE 8/15/06
General Configurations:
1) POST
2) FAT PLATE
3) ANCHOR
4 & 5) SHELF SUPPORT
5
1113
1A
4B
G2 3
28
2 3 5
I I
I i
NOTE: THIS IS THE TRIBUTARY SYSTEM BEING ANALYZED.
rOOSEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869.0989 • FAX: (909) 869 -0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 5 OF 15
CALCULATED BY M.T. DATE 8/15/06
Weight per Shelf = 5.0 pcf
r-
U. 26'
r--- ---- - -- -ten
ni
nini
28'
28'
i w
ni
28 1/2'
7
ni
Note: Attach unit posts with 1/4"0 x 2" Minimum Embedment ITW Rmaset Redhead Trubolt Wedge type anchor as
shown or attach system to furring strips in tow locations at every post as shown. Two furring strips are req'd.
dose to the top and
Column Sh-eff-Ku-pnort ---11 Panel Brace
Angle Post = 0.37 Stress = 1.11 Stress = 0.14
Tee Post = 0.37 ok ok
oki
Rivet Connec—t—*T-777-11 i
Stress = 0.17 Stress = 0.24 Stress = 0.09
ok ok Stress = 0.03
1) Anchor req'd per plate
SEIZMIC
C-
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 • FAX: (909) 869 -0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 6 OF 15
CALCULATED BY M.T. DATE 8/15/06
Rack Analysis will be based on Chapter X, Division 22 of the 2001 CBC.
V= 2.5xCaxIx(wLL/n +wDL) /(Rx 1.4)
Note: 1.4 is a working stress reduction per section 1612.3.2 of the 2001 CBC.
Ca = 0.572
Na = 1.3
1= 1
Rlong = 5.6
Rtrans = 4.4
Moment Beams = 3
wLL = 5.00 pcf
wDL = Z.SU pct < == Maximum unit weight will not exceed 100 lb
Volumne = 56.00 tt ^3
Total LL = 280 lb
Total OL = 140 lb
Seismic Shear.
Vlong = 2.5 x 0.572 x 1 x [280 lb + 140 lb] / (5.6 x 1.4)
77 lb
Vtrans = 2.5 x 0.572 x 1 x [280 lb + 140 lb] / (4.4 x 1.4)
98 lb
Longitudinal:
Level Volume wx hx wx hx Fi
Movt
1 9.50 ftA3 71 lb 0.750 in 53 in-lb 0.225 lb
0 in -lb
2 18.8 ft ^3 141 lb 29.25 in 4,132 in-lb 17.42 lb
649 in -lb
3 18.7 ft ^3 140 lb 57.25 in 8,015 in-lb 33.80 lb
2,463 in -lb
4 9.33 ft ^3 70 Ib 85.25 in 5,968 in-lb 25.16 lb
2,730 in -lb
5 0.00 ft ^3 0 lb 0.00 in 0 in-lb 0.000 lb
0 in -lb
423 LB TOTAL = 18 168 in-lb 1 77 lb
5 842 in -Ib
Transverse:
Level Volume wx hx wx hx Fi Movt
1 9.50 ftA3 71 lb 0.750 in 53 in-lb 0.287 lb 0 in -lb
2 18.8 ft ^3 141 lb 29.25 in 4,132 in-lb 22.17 lb 649 in -lb
3 18.7 tt ^3 140 lb 57.25 in 8,015 in-lb 43.01 lb 2,463 in -lb
4 9.33 ft ^3 70 lb 85.25 in 5,968 in4b 32.03 lb 2,730 in -lb
5 0.00 ft ^3 0 lb 0.00 in 0 in-!b 0.000 lb 0 in -lb
423 LB TOTAL = 18 168 in-lb 98 lb 5 842 in -Ib
rOOSOEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 - FAX: (909) 869-0981
161 ATLANTIC AVENUE - POMONA, CA 91768
Longitudinal Column Forces:
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 7 OF 15
CALCULATED BY
Mbase = 0 IN-LB <_= Based Assumed to be pinned
M.T. DATE 8/15/06
Level Pcol- static Pcol- seismic PcoI -total Mcol Mconn- seismic Mconn -total
1 211 lb 0 lb 211 lb 29 in-lb 286 m- in-lb
2 176 lb 01b 176 lb 544 in -lb 478 in4 526 in -lb
3 105 lb 0 lb 105 lb 413 in -lb 294 in -lb 342 in -lb
4 35 lb 0 !b 35 lb 176 in-lb 88 in -lb 135 in4b
5 0 lb 0 lb 0 lb 0 in -lb 0 in-lb 47 in -lb
6 O lb 0 lb 0 lb 0 in -lb 0 in -lb 0 in -lb
7 0 lb 0 lb 0 lb 0 in -lb 0 in -lb 0 in -lb
8 0 lb 0 lb 0 lb 0 in -lb 0 in -lb 0 in -lb
9 0 lb 0 lb 0 lb 0 in -lb 0 in -lb 0 in -lb
10 0 lb 0 lb 0 lb 0 in -lb 0 in -!b 0 in -lb
11 0 lb 0 lb 0 Ib 0 in-lb 0 in -lb 0 in -lb
12 U lb U lb U lb 0 in-lb U in-lb U in -lb
13 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
Transverse Loads:
Level Pool- static Pcol- seismic Pco! -total Mcol Mconn- seismic Mconn -total
1 211 lb 243 lb 455 lb 29 in-lb 286 m-
2 176 lb 243 lb 419 lb 544 in-lb 478 in -lb VALUE!
3 105 lb 216 lb 321 lb 413 in -lb 294 in -lb VALUE!
4 35 Ib 114 lb 149 lb 176 in-lb 88 in -lb VALUE!
5 0 lb 0 lb 0 lb 0 in-lb 0 in -lb VALUE!
6 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
7 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
8 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
9 0 lb 0 lb 0 lb 0 in -lb 0 in-lb 0 in -lb
10 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
i 1 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
12 0 lb, 0 lb 0 lb 0 in -lb 0 in -lb 0 in -lb
13 0 lb 0 lb 0 lb 0 in-lb 0 in -lb 0 in -lb
SEIZMIC
oftINC,
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 • FAX: (909) 869-0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 8 OF 15
CALCULATED BY M.T. DATE 8/15/06
Anatyzed per A1SI. Section properties are based on net effective sections.
4
M= 544
IM"
77
KxLx/rx = 1.7 *12 IN/0.5342 IN
38.2
KyLy /ry = 1.7 *12 IN/0.363 IN
56.2 < = == (KVr)max
ro= (rxA2 + ryA2 + xoA2)A0.5
0.917 IN
1- (xo /ro)A2 (EQ. C4.2 -3)
0.496
Fe IS TAKEN AS THE SMALLER OF Fel AND Fe2:
Fel = nA2E/(KL/r)maxA2
92.2 KSI
OeX= nAZU(K"rx)AZ
199.6 KSI
01= 1 /AroAZL6J+(TrAZLLw) /(KtLt)A'L)
154.33 KSI
FeZ= SEQIIUN PKUPLKIIkS
101.5 KSI A= 2.000 IN
Fe= 92.2 KSI B= 1.375 IN
Fy /2= 18.0 KSI C= 0.375 IN
SINCE, Fe > Fy /2 t = 0.048 IN
THEN, Fn= Fy(l - Fy /4Fe) Aeff = 0.306 INA 2
32.5 KSI Ix = 0.087 INA4
Pn= Aeff*Fn Sx = 0.0871NA3
9,941 LB rx = 0.534 IN
Oc= 1.92 ly = 0.040 INA4
Sy = 0.043 INA3
Pa= Pn/nc ry = 0.363 IN
5,177 LB J = 0.000 INA4
P/Pa= 0.08 < 0.15 Cw = 0.053 INA6
THUS, CHECK: P/Pa + Mx/Max < 1.33 xo = 0.651 IN
Kx = 1.7
Pno= Ae*Fy Lx = 12.00 IN
11,016 LB Ky = 1.70
Pao-- Pnolflc Ly = 12.00 IN
5,738 LB Kt = 1.7
Me= tb'ro-Aen-laey'cyYw•a Lt = 1 Z.UU IN
33 IN-K Fy= 36 KSI
My= Sx=Fy G= 11,300
3,144 IN-LB E= 29,500 KSI
Mc-- My(1- My /(4Me)] Cmx= 1.0
3,070 IN-LB Cb= 1.0
Max =Maxo= Mc/Of Of= 1.67
1,8391N -LB
MX= (1 /(1- ((2c=P /Pcr) j }A-1
0.99
THUS,
419 LB/S177 LB) + (544 IN- LB/1839 IN-LB) = 0.37 1.33, OK
rwooSEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL (909) 869 -0989 - FAX: (909) 869-0981
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PROJECT
FOR
SHEET NO.
CALCULATED BY
KIRKLANDS
ROBERT QUINTANA ARCHITECTS
9 OF 15
M.T. DATE 8/15/06
Analyzed per AISL Section properties are based on net effective sections.
M= 272 IN-LB
KxLx/rx = 1.7*12 IN/0.361 IN
56.5 < = == (KVr)max
KyLy /ry = 1.7 *12 IN/0.4034 IN
50.6
ro= (rxA2 + ryA2 + xoA2)A0.5
0.818 IN
1 -(xo /ro)A2 (EQ. C4.2 -3)
0.438
Fe IS TAKEN AS THE SMALLER OF Fel AND Fe2:
Fel= nA2E/(KL/r)maxA2
91.2 KSI
Oex= nA1t/(Kxtx/rx)A2
91.2 KSI
Cn= 1 /AroALLGJ +(nAZEC.W) /(KtLt)AL)
106.20 KSI
I-e1= lIiccl-ttaex+(n)- ttoex+o )"e- t '#- O-aex-cn11 ^u.:)l SEC IION PROPER IIES
56.0 KSI A= 1.078 IN
Fe= 56.0 KSI B= 1.375 IN
Fy /2= 18.0 KSI C= 0.375 IN
SINCE, Fe > Fy /2 t = 0.048 IN
THEN, Fn= Fy(1- Fy /4Fe) Aeff = 0.221 INA2
30.2 KSI Ix = 0.029 INA4
Pn= Aeff*Fn Sx = 0.040 INA3
6,663 LB rx = 0.361 IN
0c= 1.92 ly = 0.036 INA4
Sy = 0.041 INA3
Pa= Pn/Oc ry = 0.403 IN
3,470 LB J = 0.000 INA4
P/Pa= 0.06 < 0.15 Cw = 0.020 INA6
THUS, CHECK: P/Pa + Mx/Max _< 1.33 xo = 0.61 IN
Kx = -1.7
Pno= Ae*Fy Lx = 12.00 IN
7,939 LB Ky = 1.70
Pao= Pno /Oc Ly = 12.00 IN
4,13S LB Kt = 1.7
Nth t.o-ro-Aerr-taey-axl "v3 Lt = 12.U0 IN
20 IN-K Fy= 36 KSI
My= Sy*Fy G= 11,300
1,468 IN-LB E= 29,500 KSI
Mc-- My[l- My /(4Me)] Cmx= 1.0
1,441 IN-LB Cb= 1.0
Max=Maxo= Mc/Of Of= 1.67
863 IN-LB
Inc= {1 /(1- (OC*P /Pcr)))A -1
0.98
THUS,
210 LB/3470 LB) + (272 IN- LB/863 IN-LB) = 0.37 1.33, OK
SEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869-0989 • FAX: (909) 869-0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET N0. 10 OF
CALCULATED BY M.T.
15
DATE 8/15/06
Since the frame is assumed to resist the seismic loads as a moment resisting frame, the capacity of the rivet beam
connection shaft be determined and justified.
Mconn= Mseismic + Mstatic
526 [NAB
ICAPACITYOFSTUDINSHEAR
1 1/2°
Vallow= 0.4 * Fy * AREA * 1.33
l ,440 LB J
Vallow= 0.22* Fu * AREA * 1.33
1,440 LB
BEARING CAPACITY OF STUDS
brg.allow= stud 0 x tmin x Fu x 1.33
46
1,625-LB 080
Mallow= Vallow * d 197 09011
2,160 IN-LB > Mconn OK 1,
0= 0.250 IN
tmin= 0.075 IN
AREA= 0.0491NA2
Fy= 55,000 PSI
Fu- METAL= 65,000 PSI
Fu- RIVET= 100,000 PSI
SEIZM I CC
oft INC.
MATERIAL HANDLING ENGINEERING
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PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 11 OF is
CALCULATED BY M.T. DATE 8/15/06
The shelf support shall be analyzed to determine the adequacy of the components to carry the given static and - seismic
loads. Assume Partially Fixed support end conditions.
End Fmity = 25 %
0 = 0.25
For a simply supported beam, the maximum moment at the center is given by wLA2 /8. An assumption of partial fixity
will decrease this moment by the following method:
RAcenter = Mcenter(simple ends) - 0 x Mcenter(fixed ends)
wLA2 /8 - (0.25 x wLA2/12)
wLA2 /8 - wLA2 /48
0.104 x wLA2
Reduction
COEFF 9 = 0.104/0.125
0.832
I HUS,
Mcenter = B x (wLA2 /8)
0.832 x (wLA /8)
Mends = ID x Mmax(tixed ends)
wLA2 /12) x 0.25
0.0208 x wLA2
Shelf Load (DL+LL) = 141 LB
Fb= 0.6xFy
0.6 x 36000 PSI
21,600 PSI
Mmax = 0.104 x wLA2
141.25 LB x 0.33 x 48 x 0.832 / 8
235IN -LB
fb = WS
2351N- LB/0.0231NA3
10,219 PSI
fb/Fb- static = 0.47 < 1.0 Shelf Support Ok
i' .. _ 1 .
Mmax = 0.0208 x wLA2 + Mseismic
141.25 LB x 0.5 x 48 x 0.25 112 + 478 IN-LB
549 IN-LB
fb = WS
5491N- 1-8/0.0231NA3
23,874 PSI
fb /Fb- seismic = 1.11 < 1.33 shelf Support Ok
If SUDpO
Sx= 0.023 inA3
L= 48.00 in
d= 24.00 in
Fy = 36,000 psi
Transverse per beam = 0.17
Longitudinal per beam = 0.33
SEIZMIC
C-
MATERIAL HANDLING ENGINEERING
TEL: (909) 869-0989 - FAX: (909) 869 -0981
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PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET N0. 12 OF 15
CALCULATED BY M.T. DATE 8/15/06
Braces will be provided @ certain bays to provide lateral stability along the transverse direction. The sole
purpose of these braces is to absorb all lateral forces and stabilize the system. Bracing capacity is completely
governed by either the tension capacity of the braces or the shear capacity of the connection bolts.
The brace is composed of 249a. Panels spot welded every 18" on centers. The panels will be treated as 1 112" x
24ga. Strips
Vhorizontal = 98 LB
Vdiagonal = Veff x (Ldiag/Lhoriz)
98 LB x 30 IN / 24 IN
122 LB < = == Seismic Load in Tension
Tension Capacity of the Strap:
or
Tallow = 0.6 x Fy x Area -gross x 1.33
0.6 x 36UU0 F' I x 0.036 IN ^L x 1.33
1,037 LB > Vdiagonal, ok
Tallow = 0.5 x Fu x Area -net x 1.33
0.5 x 58000 PSI x 0.033 INA2 x 1.33
1,276 LB > Vdiagonal, ok
Shear Capacity of Welds.
Vweld = 0.3 x Fu -weld x Weld Area
0.3 x 70000 PSI x 0.031 INA2 x 1.33
875 LB
Longitudinal Knee brace
1 1/2 x 24ga.
Area -gross = 0.036 INA2
Area -net = 0.033 INA2
Lhoriz =D = 24.00 IN
Lvert=h = 18.00 IN
Ldiag = 30.00 IN
Fy = 36,000 PSI
Fu -metal = 58,000 PSI
Fu -weld = 70,000 PSI
Length weld = 0.250 IN
Thickness = 0.125 IN
Weld Area = 0.0313 INA2
SEIZMIC
INC.
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161 ATLANTIC AVENUE - POMONA, CA 91768
Floor Anchored:
Movt = 5,842 IN-LB
Mst = (140 LB + 280 LB) x 24 IN / 2
5,0401N -LB
Puplift = (Movt x 1.15 - 0.9 x Mst) / d
6718 - 45361 1N-LB / 241N
91 LB
Vc01= 49 LB
Interaction Equation:
PROJECT KIRKLANDS
FOR ROBERT" QUINTANA ARCHITECTS
SHEET N0. 13 OF 15
CALCULATED BY M.T. DATE 8/15/06
lmm3xoIli;l
Allowable Tension x 1.33 = 353 LB
Allowable Shear x 1.33 = 560 LB
of Anchors per Base beam = 2
91 LB/ 707 LB]A(1) + [49 LB/ 1120 LB]A(1) _
Wall Anchored 84 °:
Tallow= 100 L13
0.17
Movt= 5,8421N-1B
Mal= (140 LB + 280 LB) x 24 IN / 2
5,0401N -LS
Mst2 = Tallow * Ht
7,200 IN-LB
Puplift= [Mont - (Mstl+Mst2)j/d
5841.55495304114 IN-LB - (5040 IN-LB + 7200 IN- 1B)]/24 IN
267 LB
NO UPLIFT
Wail Anchored 10S °:
Tallow= 100 LB
Movt= 7,997 IN-LB < == Movt for 84 x (105/84) x 1.15
Mst 1= 5,040 W-L.B
Mst2 = Tallow = Ht
7,200 IN-LB
Puplift= [Movt - (Mstl +Mst2)] /d
L7997.3668999968 IN-LB - (5040 IN-1-13 + 7200 IN-LB) J/24 IN
177 LB
NO UPLIFT
Floor Ancors are not required for Wall attached fixtures
1.0 Therefore Ok
d = 24.0 IN
Ht = /2.0 IN
unit width = 4.00 FT
unit height= 6.00 FT
d = -24.0 IN
Ht = 72.0 IN
unit width = 4.UU F I
unit height= 6.00 FT
rOOSEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 - FAX: (909) 869 -0981
161 ATLANTIC AVENUE - POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA ARCHITECTS
SHEET NO. 14 OF 15
CALCULATED BY M.T. DATE 8/15/06
PER SECTION 2.3 OF ANSVASCE 7 -95
Load combination per ANSVASCE 7 -9S Resultant Load combination
1 1.413 1.413
2 1.21) + 1.61- +0.5(Lr or S) 1.21) + 1.61-
3 1.2D + 1.6(Lr or S) + (f1 L or 0.8W) 1.21) + 1.01-
4 1.213 + 1.3W +f1L +0.S(LrorS) 1.21) + 1.01-
5 1.21) + 1.0E + (f1 L + f2S) 1.213 + 1.0E + 1.01-
6 0.91) + (1.OE or 1.3W) 0.91) +1.OE
DL- total /cal = 70 LB
LL- total/col = 140 LB
E =341 LB
Load combination 1
Pmax = 1.4D
1.4x 10W
98 LB
Load combination 2
Pmax = 1.213 + 1.61-
1.2x70 LB +1.6x140 LB
322 LB
Load combination 3 & 4
Pmax = 1.213 + 1.01-
1.2x70 LB +1.0x140 LB
224 LB
Load combination 5
Pmax = 1.213 + 1.0E + 1.01L
1.2x70 LB +1.0x341 LB +1.0x140 LB
565 LB
Load combination 6
Pmax = 0.913 + 1.0E
0.9x70 LB +1.0x341 LB
404 LB
Load combination per ACI
Pmax = 1.413 + 1.71-
1.4x70 LB +1.7x140 LB
336 LB
SEIZMIC
INC.
MATERIAL HANDLING ENGINEERING
TEL: (909) 869 -0989 • FAX: (909) 869.0981
161 ATLANTIC AVENUE • POMONA, CA 91768
PROJECT KIRKLANDS
FOR ROBERT QUINTANA A
SHEET N0: i 5s OF 15 ,
CALCULATED BY M.T. - DATE W15/06- __..
The slab will be checked for puncture and bearing stress. If no puncture occurs, the slab is assumed to distribute
the load over a larger area of the slab. I -Iv
Pmax = 565 LB
A) PUNCTURE
Fpunct = 2.66 x (F'cAO.5)
2.66 x (2500 PSI)A0.5
133 PSI
Apunct = [(Weff. +t/2) +(Deff. +t/2)1 x 2 x t
2 IN + 5 IN/2) + (0.375 IN + 5 IN /2)] x 2 x 5 IN
74 INA2
fv /Fv = P /[(Apunct)(Fpunct)]
565 LB /[74 INA2 x 133 PSI.x 0.651
OBn = 0.85 x 0 x fc x Al
1,U36 Lb
Pu / 06n = 565 LB / 1036 LB
C) SLAB TENSION
Adeck = P /[1.0 x fsoil]
565 LB /[1.0 x 500 PSF /(1441NA2/FTA2)]
163 INA2
L = AdeckA0.5
162.65INA2)A0.5
12.8 IN
8 = [(Weff.)(Deff.)1A0.5 + t
2 IN x 0.375 IN]A0.5 + 5
5.9 W
b = (L -B) /2
12.75 IN - 5.87 IN) 12
3.4 IN
0.09 < 1.0 OK
0.55 < 1.0 OK
Base Plate:
Weff. = 2.00 in
Deff. = 0.38 in
Al = 0.75 inA2
Concrete:
t = 5.00 in
f'c = 2,500 psi
Mconc = (w)(bA2) /2 = [(1.0)(fsa1)(bA2)] /[144 (INA2/FTA2) x 2]
1.0 x 500 PSI x (3.44 IN)A2]/[144 (INA2/FTA2) x 2] of
21 IN4-8
Sconc = 1 IN x (tA2) /6 tsoil = 500 psf
1 IN x (51N)A2/6
4.17 INA3
Fconc = 5 x 0 x fcAO.5 0= 0.65
5 x 0.65 x (2500 PSI)A0.5
162.5 PSI
fb/Fb = Mc:onc/[(Sconc)(Fconc)]
20.59 W- LB/[(4.17 INA3)(162.5 PSI)] 10.03 < 1.0 OK