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8/17/2019 004 R0 VRC Design Calculations for Pier Design P1
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1.0 DESIGN OF FIXED PIER
DESIGN DATA:
Formation Level = 472.669 m
Wearing Coat thickness = 0.065 m
Deck slab hickness = 0.24 m
De!th o" #ir$er = %.625 m
&o""it o" #ir$er = 470.7'9 m
(a)i. *t o" +earing ,e$estal = 0.4 m
+earing Level = 470.7'9 m
+earing = 0.%05 m
o! level o" ,ier ca! = 470.2'4 m
De!th o" ,ier ca! = %.6 m
+ot. Level o" ,ier ca! = 46-.6'4 m
Fon$ing level = 46% m
+ott Level o" !ier colmn = 462.65 m
hickness o" Fon$ation at the root = %.65 m
#ron$ Level = 464.5 m
ESTIMATION OF LOADS
1.0 Dead Loads
First Span-!.0" span
S.No. Load Des#ription Load $a%#&%ations 'a%&e ()N*
%Deck &lab/,recast ,anel %9--
2 (ain #ir$ers =444.9559.-% = %764
' Dia!hragms =0.4%.41%2''0.653242= %-6
Tota% '9'-
Center o" bearing "rom center o" !ier = 0.5
=25%20.242.49.-%/250.075'2.'2.49.-%=
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Se#ond Span -!.0" span
S.No. Load Des#ription Load $a%#&%ations 'a%&e ()N*
%Deck &lab/ ,recast ,anel %9--
2 (ain #ir$ers =444.9559.-% = %764
' Dia!hragms =0.4%.41%2''0.653242= %-6
Tota% '9'-
Center o" bearing "rom center o" !ier = 0.5
Tota% Dead Load on Pier
ertical eaction = '9'- k
ranverse moment = 0 km
Longit$inal (oment = 0 km
.0 S&peri"posed Dead Loads
First Span-!.0" span
S.No. Load Des#ription Load $a%#&%ations 'a%&e ()N*
% Wearing Coat =25%%0.06522 = '-62 Crash +arrier = 6.75252 = '%-
Tota% 704
Se#ond Span -!.0" span
S.No. Load Des#ription Load $a%#&%ations 'a%&e()N*
2 Wearing Coat =25%%0.06522 = '-6
4 Crash +arrier = 6.75252 = '%-
Tota% 704
=25%20.242.49.-%/250.075'2.'2.49.-%=
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Tota% SIDL on Pier
ertical eaction = 704 k
ranverse moment = 0 km
Longit$inal (oment = 0 km
+.0 Li,e Load
Trans,erse E##. D&e To 0R(1 Lane* $%-A(1 Lane*
2.79m %.-m
%.2m 0.%5m
7m
C# o" the 70 Loa$ "rom the oter e$ge= '.095 m
C# o" the Cl Loa$ "rom the e$ge o" the
'r$ Lane 17m "rom the oter e$ge3= -.- m
C8L o" the Deck "rom the e$ge o" the C8Wa= 6 m
*ence et ransverse ecc at the C8L o" the Deck= 0.-7%2 m
Trans,erse E##. D&e To $%-A(+ Lane*
0.%5m
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C# o" the ' L Cl Loa$ "rom the oter e$ge= 5.' m
C8L o" the Deck "rom the e$ge o" the C8Wa= 6 m
*ence et ransverse ecc at the C8L o" the Deck= 0.7 m
+.1 For Ma/ Rea#tion $ase
R1()N*
Class 12Lane3 42-.697
70 Wheele$ 1% Lane3 4%4.00
70 Wheele$ / % Lane Cl 674.00
' Lane Class 7-0.00
For 70 R Wheeled
ertical eaction = -4- k
Longit$inal (oment = %0.00 km
ransverse :cc= 2.905 m
ransverse (oment= 246' km
For 0 R ee%ed1 L $%-A
e$ction "actor as !er Clase 20- o" ;C
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Longit$inal (oment = 72.00 km
ransverse :cc= 0.7 m
ransverse (oment= --2 km
+. For Ma/ Lon2it&dina% Mo"ent $ase
R1()N*
Class 12Lane3 675.00
70 Wheele$ 1% Lane3 77%.00
70 Wheele$ / % Lane Cl %%56.00
' Lane Class %%56.00
For 0 R ee%ed
ertical eaction = 77% k
Longit$inal (oment = '-6 km
ransverse :cc= 2.905 m
ransverse (oment= 2240 km
For 0 R ee%ed1 Lane $%ass -A
e$ction "actor as !er Clase 20- o" ;C
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3.0 IND LOAD
*FL= 464.5 m
Formation Level = 472.669 m
*t 1*3= -.%69 m
s !er 4 o" ;C
elocit 1v3 = %%'.42 ?m!*
,ressre 1,3 = -2.76 ?g8m2
:)!ose$ Length= 25 m
:)!ose$ De!th= 2.9' m
ransverse Force on &!erstrctre = 59.47 ?
(inimm "orce on &!erstrctre = %%0.'6 ?
ransverse Force on Live Loa$= 2-.5- ?
Tota% Trans,erse For#e 4 -'.76 ?
Win$ "orce is acting on &!erstrctre = 472.20 m
Win$ "orce is acting on Live loa$ at level = 47'.-7 m
Wi$th o" ,ier =
De!th o" ,ier Ca! =
ransverse @in$ on ,ier Ca! = 2
Level at the to! o" the !ier ca! = 470Win$ "orce is acting at level = 469
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!.0 LONGIT5DINAL FOR$ES
!.1 6EARING DEFORMATION FOR$ES :
Sear Ratin2 7or E%asto"eri# 6earin2s
For A8&t"ent
Averall brea$th 1long. Direction3
Averall length 1trans. Direction3
hickness o" each laer o" elastomer
n mber o" internal elastomer laer
hickness o" oter elastomer laer
hickness o" oter steel laer
&i$e elastomer cover
total elastomer thickness
Ater $imension 1overall thickness3
8 :"". @i$th o" brg.1e)cl$ing cover3
% :"". length o" brg.1e)cl$ing cover3
A :"".!lan area o" brg.1e)cl$ing cover3 4% ; 8
'r &hear rating o" elastomeric bearing 4GA
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*ence translation in long. Direction 1Lc3= 0.0
*ence *or. Force on one bearing = r ) Lc = 4
o. o" +earings on one s!erstrctre=
*o@ever on an !ier the bearing $e"ormation "orces on the o!!osite si$es @ill $ie ot.
*enceas !er Cl. 2%4.5.%.5 o" ;C
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D&e To Li,e Load o7 1 Lane o7 0 R ee%ed and 1 Lane o7 $%ass-A :
S&pport 'r(=N
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.0 Se%7 Ct. O7 S&8strt&re
&el" Wt o" ,ier Ca! = 509 ?
C.# o" ,ier ca! loa$ = 469.60 m
%.00
CA&& &:C :
'.00 m
PIER SE$TION
Level at the to! o" the !ier ca! 470.2' m
Level at the bottom o" the !ier 462.65 m
De!th o" ,ier Ca! %.6 m
*eight o" ,ier !.@ m
&el" Wt o" ,ier Colmn = '92.4 k
C.g o" Loa$ acting at level = 465.64 m
;nterme$iate level = 465.00
&el" Wt o" ,ier Colmn = 2'-.' ?
C.g o" Loa$ acting at level = 466.- m
.0 Seis"i# For#es
.1 Seis"i# For#es in %on2it&dina% dire#tion
D.L reaction acting on the ,ier = %'92' ?
&eismic Coe""icient= 0.0426
&eismic "orce $e to DL = 59' ?
&eismic "orce is acting at level = 470.74 m
his otal Force is $istribte$ bet@een ,iers an$ btments $e!en$ing !on the &ti""ness.
&el" Wt o" ,ier Ca! = 509 ?
C.# o" ,ier ca! loa$ = 469.60 m&eismic "orce $e to !ierca! DL = 2%.70 ?
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&el" Wt o" ,ier Colmn = '92 ?
C.# o" ,ier colmn loa$ = 465.64 m
&eismic "orce $e to !ier colmn %6.72 ?
;nterme$iate Level
&el" Wt o" ,ier Colmn = 2'- ?
C.# o" ,ier colmn loa$ = 466.-2 m
&eismic "orce $e to !ier colmn %0 ?
. Seis"i# For#es in tras,erse dire#tion
D.L reaction acting on the ,ier = 464% ?
&eismic Coe""icient= 0.%20
&eismic "orce $e to DL = 557 ?
&eismic "orce is acting at level = 47%.70 m
&el" Wt o" ,ier Ca! = 509 ?
C.# o" ,ier ca! loa$ = 469.60 m
&eismic "orce $e to !ierca! DL = 6% ?
&el" Wt o" ,ier Colmn = '92 ?C.# o" ,ier ca! loa$ = 465.64 m
&eismic "orce $e to !ier colmn 47 ?
;nterme$iate Level
&el" Wt o" ,ier Colmn = 2'- ?
C.# o" ,ier colmn loa$ = 466.-2 m
&eismic "orce $e to !ier colmn 29 ?
&eismic "orce $e to Live loa$ = 76 ?
cting at level = 47'.-69 m
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@.0 S&""ar o7 7or#es on Fi/ed Pier at 6earin2 Le,e%
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% (a)imm eaction
'.%.% 70 @heele$ 1% vehi.3 -4-
'.%.2 70 / Class %1% vehi.3 %%-'
'.%.' ' lanes o" Class %260
'.2 (a)i.Long. (oment
'.2.% 70 @heele$ 1% vehi.3 77%
'.2.2 70 / Class %1% vehi.3 %040
'.2.' ' lanes o" Class %040
4.0 Win$ loa$
4.% Win$ loa$ on &!erstrctre 0
4.2 Win$ loa$ on Live loa$ 0
5.0 +raking Force
5.% 70 @heele$ 1% vehi.3 0
5.2 70 / Class %1% vehi.3 0
5.' ' lanes o" Class 0
5.4 +earing De"ormation 0
6.0 &eismic loa$
6.% &eismic loa$ in Long. Direction
6.%.% Dea$ Loa$ "rom &!erstrctre 0
6.2 &eismic loa$ in rans. Dir.
6.2.% Dea$ Loa$ "rom &!erstrctre 0
6.2.2 Live loa$ 0
ori. For#e (
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10.0 S&""ar o7 7or#es on Fi/ed Pier at 6ot o7 Pier #o%&"n
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% (a)imm eaction
'.%.% 70 @heele$ 1% vehi.3 -4-
'.%.2 70 / Class %1% vehi.3 %%-'
'.%.' ' lanes o" Class %260
'.2 (a)i.Long. (oment
'.2.% 70 @heele$ 1% vehi.3 77%
'.2.2 70 / Class %1% vehi.3 %040
'.2.' ' lanes o" Class %040
4.0 Win$ loa$
4.% Win$ loa$ on &!erstrctre 0
4.2 Win$ loa$ on Live loa$ 0
4.' Win$ loa$ on ,ier Ca! 0
5.0 +raking Force
5.% 70 @heele$ 1% vehi.3 0
5.2 70 / Class %1% vehi.3 0
5.' ' lanes o" Class 0
5.4 +earing De"ormation 0
6.0 &eismic loa$
6.% &eismic loa$ in Long. Direction
6.%.% From &!erstrctre 0
6.%.2 From ,ier Ca! 0
6.%.' From ,ier Colm. 0
ori. For#e (
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6.2 &eismic loa$ in rans. Dir.
6.2.% Dea$ Loa$ "rom &!erstrctre 0
6.2.2 Live loa$ 0
6.2.' From ,ier Ca! 06.2.4 From ,ier Colm. 0
9.0 &el" Wt o" ,ier Ca! 509
%0.0 &el" Wt o" ,ier Col '92
Load $o"8ination 1: DL SIDL LL(0R Ma/i. P* Lon2. ater $&rrent 6&oan# at 6otto"
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% 70 @heele$ 1% vehi.3 -4-
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
Tota% 9+@1
Load $o"8ination : DL SIDL LL (0R $% A Ma/i. P* Lon2. ater $&rrent 6&oan# at 6
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% 70 / Class %1% vehi.3 %%-'
4.0 Longit$inal Force
4.% +.F 170/ Class 3 04.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
Tota% 9!
Load $o"8ination +: DL SIDL LL (+ $%ass A Ma/i. P* Lon2. ater $&rrent 6&oan# at 6o
ori. For#e (
ori. For#e (
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Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% ' lanes o" Class %260
4.0 Longit$inal Force
4.% +.F 1' Class 3 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
Tota% 90+
Load $o"8ination 3: DL SIDL LL(0R "a/i. ML* Lon2. ater $&rrent 6&oan# at Pier #
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
ori. For#e (
ori. For#e (
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'.% 70 @heele$ 1% vehi.3 77%
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 07.0 &bstrctre @t. 902
Tota% 9+13
Load $o"8ination !: DL SIDL LL (0R $% A Ma/i. ML* Lon2. ater $&rrent 6&oan# at
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% 70 / Class %1% vehi.3 %040
4.0 Longit$inal Force
4.% +.F 170/ Class 3 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
Tota% 9!+
Load $o"8ination 9: DL SIDL LL (+ $%ass A Ma/i. M%* Lon2. ater $&rrent 6&oan# at P
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% ' lanes o" Class %040
4.0 Longit$inal Force
4.% +.F 1' Class 3 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
Tota% 9!+
ori. For#e (
ori. For#e (
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Load $o"8ination : DL SIDL LL(0R "a/i. ML* ind Lon2. ater $&rrent 6&oan# at
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% 70 @heele$ 1% vehi.3 77%
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902-.0 Win$ 0
Tota% 9+13
Load $o"8ination : DL SIDL LL(0R "a/i. ML* Lon2 Seis"i#Lon2. For#es ater $&rrent
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$ 1503
'.% 70 @heele$ 1% vehi.3 '-6
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
-.0 Longit$inal &eismic 0
Tota% !@
ori. For#e (
ori. For#e (
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Load $o"8ination @: DL SIDL LL(0R "a/i. ML* Trans, Seis"i# Lon2. ater $&rrent 6&
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$ 1503
'.% 70 @heele$ 1% vehi.3 '-6
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
-.0 ransv. &eismic 0
Tota% !@
11.0 S&""ar o7 7or#es on Pier at Inter. Le,e% o7 Fi/ed Pier #o%&"n
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% (a)imm eaction
'.%.% 70 @heele$ 1% vehi.3 -4-
'.%.2 70 / Class %1% vehi.3 %%-'
'.%.' ' lanes o" Class %260
ori. For#e (
ori. For#e (
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'.2 (a)i.Long. (oment
'.2.% 70 @heele$ 1% vehi.3 77%
'.2.2 70 / Class %1% vehi.3 %040
'.2.' ' lanes o" Class %040
4.0 Win$ loa$
4.% Win$ loa$ on &!erstrctre 0
4.2 Win$ loa$ on Live loa$ 0
4.' Win$ loa$ on ,ier Ca! 0
5.0 +raking Force
5.% 70 @heele$ 1% vehi.3 0
5.2 70 / Class %1% vehi.3 0
5.' ' lanes o" Class 0
5.4 +earing De"ormation 0
6.0 &eismic loa$
6.% &eismic loa$ in Long. Direction
6.%.% From &!erstrctre 0
6.%.2 From ,ier Ca! 0
6.%.' From ,ier Colm. 0
6.2 &eismic loa$ in rans. Dir.
6.2.% Dea$ Loa$ "rom &!erstrctre 0
6.2.2 Live loa$ 0
6.2.' From ,ier Ca! 0
6.2.4 From ,ier Colm. 0
9.0 &el" Wt o" ,ier Ca! 509
%0.0 &el" Wt o" ,ier Col 2'-
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Load $o"8ination 1: DL SIDL LL(0R "a/i. ML* Lon2. ater $&rrent 6&oan# at Inter"
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% 70 @heele$ 1% vehi.3 77%
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 74-
Tota% 9190
Load $o"8ination : DL SIDL LL(0R "a/i. ML* Lon2 Seis"i#Lon2. For#es ater $&rrent
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$ 1503
'.% 70 @heele$ 1% vehi.3 '-6
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 74-
-.0 Longit$inal &eismic 0
Tota% !3
ori. For#e (
ori. For#e (
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Load $o"8ination +: DL SIDL LL(0R "a/i. ML* Trans, Seis"i# Lon2. ater $&rrent 6&
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$ 1503
'.% 70 @heele$ 1% vehi.3 '-6
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 74-
-.0 ransv. &eismic 0
Tota% !3
1.0 S&""ar o7 7or#es on Pier and Fo&ndation at Fo&ndin2 Le,e%
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% (a)imm eaction
'.%.% 70 @heele$ 1% vehi.3 -4-
'.%.2 70 / Class %1% vehi.3 %%-'
'.%.' ' lanes o" Class %260
'.2 (a)i.Long. (oment
'.2.% 70 @heele$ 1% vehi.3 77%
'.2.2 70 / Class %1% vehi.3 %040
'.2.' ' lanes o" Class %040
4.0 Win$ loa$
4.% Win$ loa$ on &!erstrctre 0
4.2 Win$ loa$ on Live loa$ 0
ori. For#e (
ori. For#e (
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4.' Win$ loa$ on ,ier Ca! 0
5.0 +raking Force
5.% 70 @heele$ 1% vehi.3 0
5.2 70 / Class %1% vehi.3 0
5.' ' lanes o" Class 0
5.4 +earing De"ormation 0
6.0 &eismic loa$
6.% &eismic loa$ in Long. Direction
6.%.% From &!erstrctre 0
6.%.2 From ,ier Ca! 0
6.%.' From ,ier Colm. 0
6.2 &eismic loa$ in rans. Dir.
6.2.% Dea$ Loa$ "rom &!erstrctre 0
6.2.2 Live loa$ 0
6.2.' From ,ier Ca! 0
6.2.4 From ,ier Colm. 0
9.0 &el" Wt o" ,ier Ca! 509
%0.0 &el" Wt o" ,ier Col '92
Load $o"8ination 1: DL SIDL LL(0R "a/i. ML* Lon2.For#es ater $&rrent 6&oan# at
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$
'.% 70 @heele$ 1% vehi.3 77%
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
Tota% 9+13
Load $o"8ination : DL SIDL LL(0R "a/i. ML* Lon2. Seis"i#Lon2. For#es ater $&rren
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
ori. For#e (
ori. For#e (
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%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$ 1503
'.% 70 @heele$ 1% vehi.3 '-6
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 0
7.0 &bstrctre @t. 902
-.0 Longit$inal &eismic 0
Tota% !@
Load $o"8ination +: DL SIDL LL(0R "a/i. ML* Trans, Seis"i# Lon2. ater $&rrent 6&
Sno. Des#ription o7 Loads< For#es 'erti#a% Load (P*
()N* ()N*
%.0 Dea$ Loa$ "rom &!erstrctre '9'-
2.0 &!erim!ose$ Dea$ Loa$ 704
'.0 Live loa$ 1503
ori. For#e (
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'.% 70 @heele$ 1% vehi.3 '-6
4.0 Longit$inal Force
4.% +.F 1703 0
4.2 De"ormation o" +earings 07.0 &bstrctre @t. 902
-.0 ransv. &eismic 0
Tota% !@
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COMBINATION OF LOADS
Summary of Forces at the Bottom of the Pier Column
Description
651 152 251
686 161 105
693 147 90
644 191 228
671 212 92
671 193 74
644 191 370
604 256 114
604 150 772
Summary of forces at the level of the Intermeiate Level of the Pier Column
Description
628 147 228
589 185 114
589 112 597
Summary of forces at the Founin! level
Description
6314 2172 2240
5928 3007 1120
5928 1728 8799
"erticalLoa #P$
T
Lon!ituinalMoment#M
L$
Tm
TransverseMoment#M
T$
TmDL + SIDL + LL(70R Maxi. P) + Long. + Wate!"ent + #"o$an%$
DL + SIDL + LL (70R + !& ' Maxi. P) + Long. +Wate !"ent + #"o$an%$
DL + SIDL + LL (3 !&a ' Maxi. P) + Long. +Wate !"ent + #"o$an%$
DL + SIDL + LL(70R axi. ML) + Long. +Wate !"ent + #"o$an%$
DL + SIDL + LL (70R + !& ' Maxi. ML) + Long.+ Wate !"ent + #"o$an%$
DL + SIDL + LL (3 !&a ' Maxi. M&) + Long. +
Wate !"ent + #"o$an%$DL + SIDL + LL(70R axi. ML) +Win*+ Long.+ Wate !"ent + #"o$an%$DL + SIDL + LL(70R axi. ML) +LongSeii%+Long. o%e + Wate !"ent +#"o$an%$
DL + SIDL + LL(70R axi. ML) +,an-Seii%+ Long. + Wate !"ent + #"o$an%$
"erticalLoa #P$
T
Lon!ituinalMoment#M
L$
T%m
TransverseMoment#M
T$
T%m
DL + SIDL + LL(70R axi. ML) + Long. +Wate !"ent + #"o$an%$DL + SIDL + LL(70R axi. ML) +LongSeii%+Long. o%e + Wate !"ent +#"o$an%$
DL + SIDL + LL(70R axi. ML) +,an-Seii%+ Long. + Wate !"ent + #"o$an%$
"erticalLoa #P$
&N
Lon!ituinalMoment#M
L$
&Nm
TransverseMoment#M
T$
&Nm
DL + SIDL + LL(70R axi. ML) + Long. +Wate !"ent + #"o$an%$DL + SIDL + LL(70R axi. ML) +LongSeii%+Long. o%e + Wate !"ent +#"o$an%$
DL + SIDL + LL(70R axi. ML) +,an-Seii%+ Long. + Wate !"ent + #"o$an%$
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CALC0LATION OF S1ISMIC CO1FFICI1NT%LON2IT0DINAL3ori4ontal Seismic Forces5
/one o /one a%to
oionta& Seii% !oe%ient II 0.10
III 0.16
I 0.24
0.36
I Iotan%e a%to
I 1.5
/ /one a%to a gi-en in ta&e 5 (Intei Se%i%ation)
/one o III
/ 0.16
R Reone e*"%tion a%to
R 2.5
,
oionta& o%e in e:"ie* to e a&ie* at t;e %ente o a o t;e "et"%t"e o one
;oionta& *e *6/)7
Moment of inertia in longitudinal direction
M.I o t;e e%tion ao"t it !.> 0.216
>a*e o %on%ete ,7 ga*e
?o"ng@ o*"&" o e&ati%it$ o %on%ete A 29580
eig;t o ie ao-e t;e o"n*ation +67/)
,+7)-7 B=
),/(' B=
Dea* Loa* o S"et"%t"e (DL + SIDL) 13923 B ,ota& &oa* D 13923 B
,ie eio* , 1.126 e%
0.888
0.0426
o %a&%"&ation "oeC eii% %oe%ient ;a een taen 0.043
e:
';x (Dea* Loa* + 'oiate Li-e Loa*)
';
';
4
4
4
=2
Stine o ie in tan-ee *ie%tion (3AI , = L3)
Stine o ie in &ongit"*ina& *ie%tion (3AIL = L3)
Sa=g
';
(
Z
2
) (
Sa
g
)( R I )
2. 0 √ D
1000 F
I
R g
S Z a
2
2. 0 √ D
1000 F
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CALC0LATION OF S1ISMIC CO1FFICI1NT%LON2IT0DINAL3ori4ontal Seismic Forces5
/one o /one a%to
oionta& Seii% !oe%ient II 0.10
III 0.16
I 0.24
0.36
I Iotan%e a%to
I 1.5
/ /one a%to a gi-en in ta&e 5 (Intei Se%i%ation)
/one o III
/ 0.16
R Reone e*"%tion a%to
R 2.5
,
oionta& o%e in e:"ie* to e a&ie* at t;e %ente o a o t;e "et"%t"e o one
;oionta& *e *6/)7
Moment of inertia in longitudinal direction
M.I o t;e e%tion ao"t it !.> 0.216
>a*e o %on%ete ,7 ga*e
?o"ng@ o*"&" o e&ati%it$ o %on%ete A 29580
eig;t o ie ao-e t;e o"n*ation +6+,)
,7,(/, B=
)*,// B=
Dea* Loa* o S"et"%t"e (DL + SIDL) 13923 BLi-e Loa* o S"et"%t"e 0 B (Ene &ane o 70R F;ee&
,ota& &oa* D 13923 B
,ie eio* , 1.160 e%
0.862
0.0414
o %a&%"&ation "oeC eii% %oe%ient ;a een taen 0.0414
e:
';x (Dea* Loa* + 'oiate Li-e Loa*)
';
';
4
4
4
=2
Stine o ie in tan-ee *ie%tion (3AI , = L3)
Stine o ie in &ongit"*ina& *ie%tion (3AIL = L3)
Sa=g
';
(
Z
2
) (
Sa
g
)( R I )
2. 0 √ D
1000 F
(
Z
2
) (
Sa
g
)( R I )
2. 0 √ D
1000 F
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CALC0LATION OF S1ISMIC CO1FFICI1NT%LON2IT0DINAL3ori4ontal Seismic Forces5
/one o /one a%to
oionta& Seii% !oe%ient II 0.10
III 0.16
I 0.24
0.36
I Iotan%e a%to
I 1.5
/ /one a%to a gi-en in ta&e 5 (Intei Se%i%ation)
/one o III
/ 0.16
R Reone e*"%tion a%to
R 2.5
,
oionta& o%e in e:"ie* to e a&ie* at t;e %ente o a o t;e "et"%t"e o one
;oionta& *e *6/)7
Moment of inertia in longitudinal direction
M.I o t;e e%tion ao"t it !.> 0.216
>a*e o %on%ete ,7 ga*e
?o"ng@ o*"&" o e&ati%it$ o %on%ete A 29580
eig;t o ie ao-e t;e o"n*ation +6+,)
,7,(/, B=
)*,// B=
Dea* Loa* o S"et"%t"e (DL + SIDL) 13923 BLi-e Loa* o S"et"%t"e 0 B (Ene &ane o 70R F;ee&
,ota& &oa* D 13923 B
,ie eio* , 1.160 e%
0.862
0.0414
o %a&%"&ation "oeC eii% %oe%ient ;a een taen 0.0414
e:
';x (Dea* Loa* + 'oiate Li-e Loa*)
';
';
4
4
4
=2
Stine o ie in tan-ee *ie%tion (3AI , = L3)
Stine o ie in &ongit"*ina& *ie%tion (3AIL = L3)
Sa=g
';
(
Z
2
) (
Sa
g
)( R I )
2. 0 √ D
1000 F
(
Z
2
) (
Sa
g
)( R I )
2. 0 √ D
1000 F
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L amboll Conslting :ngineers Limite$
CALC0LATION OF S1ISMIC CO1FFICI1NT%T8ANS"18S13ori4ontal Seismic Forces5
/one o /one a%to
oionta& Seii% !oe%ient II 0.10
III 0.16
I 0.24
0.36
I Iotan%e a%to
I 1.5
/ /one a%to a gi-en in ta&e 5 (Intei Se%i%ation)
/one o III
/ 0.16
R Reone e*"%tion a%to
R 2.5
,
oionta& o%e in e:"ie* to e a&ie* at t;e %ente o a o t;e "et"%t"e o one
;oionta& *e *6/)7
Moment of inertia in longitudinal direction
M.I o t;e e%tion ao"t it !.> 0.2158
>a*e o %on%ete ,7 ga*e
?o"ng@ o*"&" o e&ati%it$ o %on%ete A 29580
eig;t o ie ao-e t;e o"n*ation +67/)
,+7)-7 B=
),/(' B=
Dea* Loa* o S"et"%t"e (DL + SIDL) 4641 B
Li-e Loa* o S"et"%t"e 386 B ,ota& &oa* D 5027 B
,ie eio* , 0.231 e%
2.500
0.1200
o %a&%"&ation "oeC eii% %oe%ient ;a een tae 0.1200
e:
';x (Dea* Loa* + 'oiate Li-e Loa*)
';
';
4
4
4
=2
Stine o ie in tan-ee *ie%tion (3AI , = L3)
Stine o ie in &ongit"*ina& *ie%tion (3AIL = L3)
Sa=g
';
(Z 2 ) (Sa
g )( R
I )
2. 0 √ D
1000 F
(Z 2 ) (Sa
g )( R
I )
2. 0 √ D
1000 F