1
1 / / 11116 6 334400996655884488..xxllss//SSuummmmaarryy
SUMMARY OF STRUCTURAL CALCULATION OF PROTECTOR BOX SUMMARY OF STRUCTURAL CALCULATION OF PROTECTOR BOX
1 D
1 Deessiiggn n DDiimmeennssiioonns s aannd d BBaar r AArrrraannggeemmeennttss CCaasss s I I RRooaad d !!BBMM11""""##
B1.1 x H1.0 B1.1 x H1.0 C Clleeaarrwwiiddtthh mm 11..1100 C Clleeaarrhheeiigghhtt mm 11..0000 H Heeiigghhttooffffiilllleett mm 00..1155 T
Thhiicckknneessss SSiidde e wwaallll ccmm 2200..00 T
Tooppssllaabb ccmm 2200..00 B
Boottttoommssllaabb ccmm 2200..00
Co
Coeer of rr of reineinfoforcercemement bant barr !b!betwetweeeen con concrncrete sete s"r"rfacface and ce and cenenter oter of reif reinfonforcercemement bant bar#r# S
Siidde e wwaallll $$""ttssiiddee ccmm 55..00 %%nnssiiddee ccmm 55..00 T
Toop p ssllaabb &&ppppeerr ccmm 55..00 '
'oowweerr ccmm 55..00 B
Boottttoom m ssllaabb ''oowweerr ccmm 55..00 &
&ppppeerr ccmm 55..00
B
Baar r aarrrraannggeemmeenntt !!ddiia a ( ( ssppaacciinng g ppeer r ""nniit t lleennggtth h oof f 11..0 0 mm##
S
Siidde e wwaallll ''oowweer r oo""ttssiiddee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm *
*iiddddlle e iinnssiiddee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm &
&ppppeer r oo""ttssiiddee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm
T
Toop p ssllaabb &&ppppeer r eeddggee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm '
'oowweer r mmiiddddllee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm
B
Boottttoom m ssllaabb ''oowweer r eeddggee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm &
&ppppeer r mmiiddddllee TTeennssiille e bbaarr mmmm )
)iissttrriibb""ttiioon n bbaarr mmmm
+
+iilllleett &&ppppeer r eeddggee ++iilllleet t bbaarr mmmm '
'oowweer r eeddggee ++iilllleet t bbaarr mmmm
$
$ DesigDesign n ParamParameterseters
&
&nniitt,,eeiigghhtt --eeiinnffoorrcceeddCCoonnccrreettee 22.. B
Baacckkffiillllssooiill !!wweett## 11..// !!ss""bbmmeerrggeedd## 11..00
'
'iiee''ooaadd CCllaassssooffrrooaadd CCllaassss%% !!BB**110000## T
Trr""cck k llooaad d aat t rreeaar r wwhheeeell 1100..00 ttf f %%mmppaacct t ccooeeffffiicciieenntt !!ffoor r CCllaasss s % % tto o %% rrooaadd## CCii 00..33
0.0 0.0
eeddeessttrriiaan n llooaadd !!ffoor r CCllaasss s rrooaaddss## 00
C
Coonnccrreettee ))eessiiggnnSSttrreennggtthh 114455 !!114455## 66lllloowwaabblle e CCoommpprreessssiie e SSttrreessss 7700
6
6lllloowwaabblle e SShheeaarriinng g SSttrreessss 55..55
--eeiinnffoorrcceemmeennt t BBaarr 66lllloowwaabblle e TTeennssiille e SSttrreessss 11880000 !!&&228 8 ddeeffoorrmmeed d bbaarr## 9iieelld9 diinng g ooiinnt t oof f --eeiinnffoorrcceemmeennt t BBaarr 3388000000
9
9oo""nngg::ss**oodd""ll""ss--aattiioo nn 22
C
Cooeeffffiicciieennt t oof f ssttaattiic c eeaarrtth h pprreessss""rree aa 00..55 T;pe of box c"lert
T;pe of box c"lert
12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 12@150 γ γ cc tf<mtf<m33 γ γ ss tf<mtf<m33 γ γ ss:: tf<mtf<m33 !)=.0m# !)=.0m# !)>.0m# !)>.0m# tf<m tf<m22 σ σckck kgf<cmkgf<cm22 σ σcaca kgf<cmkgf<cm22 ττaa kgf<cmkgf<cm22 σ σsasa kgf<cmkgf<cm22 σ σs;s; kgf<cmkgf<cm22
2
S
STTRRUUCCTTUURRAAL L CCAALLCCUULLAATTIIOON N OOF F PPRROOTTEECCTTOOR R BBOOXX TT%%&&ee' ' BB11((11""m m ) ) **11((""""mm Soi Co+er De&t,'
Soi Co+er De&t,' 1
1 DimeDimensionnsions and Parames and Parametersters
Basic Parameters Basic Parameters
aa@@ CCooeeffffiicciieennt ot of sf sttaattiic ec eaarrtth ph prreessss""rree &nit weight of water !t<m3# &nit weight of water !t<m3# &nit weight of soil
&nit weight of soil !dr;# !t<m3#!dr;# !t<m3# &nit weight of soil !sat"rated# !t<m3# &nit weight of soil !sat"rated# !t<m3# &nit weight of reinforced concrete !t<m3# &nit weight of reinforced concrete !t<m3# Concrete )esign Strength
Concrete )esign Strength 6llowable Stress of Concrete 6llowable Stress of Concrete
6llowable Stress of -einforcement Bar 6llowable Stress of -einforcement Bar 6llowable Stress of Shearing
6llowable Stress of Shearing !Concrete#!Concrete# 9ielding oint of -einforcement Bar 9ielding oint of -einforcement Bar n
n@@ 99oo""nngg::s s **oodd""ll""s s --aattiioo +
+aa@@ SSaaffeett; ; ffaaccttoor r aaggaaiinnsst t ""pplliifftt Basic Dimensions
Basic Dimensions H
H@@ %%nntteerrnnaal l HHeeiigghht t oof f BBoox x CC""lleerrtt B
B@@ %%nntteerrnnaal l ,,iiddtth h oof f BBoox x CC""lleerrtt H
Hff@@ ++iilllleet t HHeeiigghhtt
tt11@@ TThhiicckknneesss s oof f SSiidde e ,,aallll tt22@@ TThhiicckknneesss s oof f TToop p SSllaabb
tt33@@ TThhiicckknneesss s oof %f %nneerrt t !!BBoottttoom m SSllaabb## B
BTT@@ AArroosss s ,,iiddtth h oof f BBoox x CC""lleerrtt H
HTT@@ AArroosss s HHeeiigghht t oof f BBoox x CC""lleerrtt )
)@@ CCooeerriinng g ))eepptthh A
Awwdd@@ &&nnddeerrggrroo""nnd d ,,aatteer r ))eepptthh ffoor r CCaasse e 118 8 22 h
hiiww@@ %%nntteerrnnaal l ,,aatteer r ))eepptthh ffoor r CCaasse e 118 8 22 for Case 38 for Case 38 Coer of -(bar
Coer of -(bar Basic Conditions Basic Conditions Top
Top Slab Slab d2d2 0.050.05 mm CCllaassssiiffiiccaattiioon n oof f ''iie e llooaad d bb; ; ttrr""cckk CCllaassss Side ,
Side ,all all d1d1 0.050.05 mm TT**@@ TTrr""cck k llooaad d oof f **iiddddlle e TTiirree Bottom
Bottom Slab Slab d3d3 0.050.05 mm %%ii@@
aamm@@ AArroo""nnd cd coonnttaacct lt leennggtth oh of *f *iiddddlle e TTiirree bm@
bm@ Aro"nd contact wAro"nd contact width of *iddle Tidth of *iddle Tireire
TT--@@ TTrr""cck k llooaad d oof f --eeaar r TTiirree
aarr@@ AArroo""nnd d ccoonnttaacct t lleennggtth h oof f --eeaar r TTiirree br@
br@ Aro"nd contact wAro"nd contact width of -ear idth of -ear TireTire
TT++@@ TTrr""cck k llooaad d oof f ++rroonnt t wwhheeeell
aaff@@ AArroo""nnd d ccoonnttaacct t lleennggtth h oof f ++rroonnt t TTiirree bf@
bf@ Aro"nd contact wAro"nd contact width of +ront Tidth of +ront Tireire
pp@@ eeddeessttrriiaan n llooaadd
Dimension o- -rame Dimension o- -rame
H
H00@@ HHeeiigghht t oof f ffrraammee tt22<<2 2 H H tt B
B00@@ ,,iiddtthhooffffrraammee BBtt11 )
)11@@ CCooeerriinng g ddeepptth h aat t mmiiddddlle e oof f ttoop p ssllaabb ) ) tt22<<22 γ γ w@w@ γ γ d@d@ γ γ s@s@ γ γ c@c@ σ σck@ck@ σ σcaca σ σsa@sa@ ττa@a@ σ σs;@s;@ %mpact coefficient !) %mpact coefficient !)≧≧.0m@08 )=[email protected]#.0m@08 )=[email protected]# B0 B0 H0 H0 t2 t2 H H t3 t3 tt11 BB tt11 )1 )1 H H BT BT B B t1 t1 t1t1 t3 t3 HT HT Hf Hf Hf Hf t2 t2 ) ) Awd Awd
<117 !1#30?75//.xls8'oad
Load distri./tion o- tr/0 tire
!1# *iddle tire:s acting point@ center of the top slab a# distrib"ted load of middle tire
tm@ distrib"ted load of middle tire 2T*!1%i#<!am:bm:# 1.547 am:@ length of distrib"ted load 2)1.45bm 5.250
bm:@ width of distrib"ted load 2)am 3.200
b# distrib"ted load of rear tire
tr@ distrib"ted load of rear tire not reach to top slab 0.0000 ar:@ length of distrib"ted load 2)1.45br 5.250
br:@ width of distrib"ted load 2)ar 3.200
c# distrib"ted load of front tire
tf@ distrib"ted load of front tire not reach to top slab 0.0000 af:@ length of distrib"ted load 2)1.45bf 5.250
bf:@ width of distrib"ted load 2)af 3.200
!2# *iddle tire:s acting point@ on the side wall a# distrib"ted load of middle tire
tm@ distrib"ted load of middle tire 2T*!1%i#<!am:bm:# 1.547 am:@ length of distrib"ted load 2)1.45bm 5.250
bm:@ width of distrib"ted load 2)am 3.200
b# distrib"ted load of rear tire
tr@ distrib"ted load of rear tire not reach to top slab 0.0000 ar:@ length of distrib"ted load 2)1.45br 5.250
br:@ width of distrib"ted load 2)ar 3.200
c# distrib"ted load of front tire
tf@ distrib"ted load of front tire not reach to top slab 0.0000 af:@ length of distrib"ted load 2)1.45bf 5.250
bf:@ width of distrib"ted load 2)af 3.200
!3# -ear tire:s acting point@ on the side wall a# distrib"ted load of rear tire
tr@ distrib"ted load of rear tire 2T-!1%i#<!ar:br:# 1.547 ar:@ length of distrib"ted load 2)1.45br 5.250
br:@ width of distrib"ted load 2)ar 3.200
b# distrib"ted load of middle tire
tm@ distrib"ted load of middle tire not reach to top slab 0.0000 am:@ length of distrib"ted load 2)1.45bm 5.250
bm:@ width of distrib"ted load 2)am 3.200
c# distrib"ted load of front tire
tf@ distrib"ted load of front tire not reach to top slab 0.0000 af:@ length of distrib"ted load 2)1.45bf 5.250
bf:@ width of distrib"ted load 2)af 3.200
!# Combination of load distrib"tion of track tire
Case.'1@ t1 1.547 tf<m28 B 1.300 m Combination for Case.'2 t2 0.0000 tf<m28 B 0.000 m
Case.'2@ t1 1.547 tf<m28 B 1.300 m )istrib"ted load total
t2 0.0000 tf<m28 B 0.000 m Select the combination case of for Case.'28 which is the largest load %n case of coering depth !)# is oer 3.0m8 "niform load of 1.0 tf<m2 is applied on the top slab of c"lert instead of lie load calc"lated aboe.
Distri./tion oad .% &edestrian oad
t1 0.000 tf<m2
$ Sta.iit% Ana%sis Against U&i-t
6nal;sis is made considering empt; inside of box c"lert.
+sd<&>+a +s 3.122? >1.2 ok
where8 d@ Total dead weight !t<m# d 7.55/ tf<m &@ Total "plift !t.m#
& 2.100 tf<m
,s@ ,eightofcoeringsoil ,s .050
,c@ Selfweightofboxc"lert ,c 2.50/
&BTDHTDγ w
BTDE!)(Awd#D!γ s−γ w#AwdDγ dF !HTDBT(HDB2DHfG2#Dγ c
7<117 !1#30?75//.xls8'oad 2 Load 0a0/ation
Case 1' Bo) C/+ert Inside is Em&t%3 Undergro/nd 4ater /& to To& sa.3 Tra0 oad Case( L1
1# +erti0a oad against to& sa.
6cting'oad !tf<m2# ,top 0.5?5 dAwdDgd!)(Awd#Dgs d 2.4000 t1 t1 1.547 t2 t2 0.0000 1 ./30
$# ,ori5onta oad at to& o- side 6a
6cting 'oad !tf<m2# Horiontal press"re b; track tire
1aDwe1 1 0.443/ we1 1.547 tf<m2 2aDwe2 2 0.0000 we2 0.0000 tf<m2 3aDgdDAwd 3 1.3500 aDgsD!)1(Awd# 0.1000 5gwD!)1(Awd# 5 0.1000 h1 2.323/
2# ,ori5onta oad at .ottom o- side 6a
6cting'oad !tf<m2# 1aDwe1 1 0.443/ 2aDwe2 2 0.0000 3 1.3500 1.3000 5 1.3000 h2 .423/
7# se- 6eig,t o- side 6a
6cting'oad !tf<m# ,sw 0./00 8# gro/nd rea0tion 6cting'oad !tf<m2# ,bot 0.5?5 ,top ,top 0.5?5 ,s,swD2<B0 ,s 0.43/5 d d 2.4000 t1 t1 1.547 t2 t2 0.0000
,iw 0.0000 hiw@intern
&p(&<B0 & (1.715 I .5715
s/mmar% o- resistan0e moment
%tem H x ; *
!tf<m# !tf<m# !m# !m# !tf.m<m# acting poin Self weight top slab 0.440 ( 0.7500 ( 0.5031
side wall !left# 0./00 ( 0.0000 ( 0.0000 e B0<2 ( side wall !right# 0./00 ( 1.3000 ( 0.720
inert 0.440 ( 0.7500 ( 0.5031 gro"nd reac
load on top slab d 3.5100 ( 0.7500 ( 2.2/15
t1 2.011? ( 0.7500 ( 1.3044
t2 0.0000 ( 0.7500 ( 0.0000
soil press"re side wall !left# ( .22/7 ( 0.531? 2.2?1 side wall !right# ( (.22/7 ( 0.531? (2.2?1
internalwater 0.0000 ( 0.7500 ( 0.0000
"plift (2.1000 ( 0.7500 ( (1.3750
total 5.?2?? 3./5
9# oad against in+ert
6cting 'oad !tf<m2# d 2.4000 t1 1.547 t2 0.0000 ,top 0.5?5 ,s 0.43/5 5.5/15 ,top !t2DBTHfG2#Dγ c<B0 3aDγ dDAwd aDγ sD!)1H0(Awd# 5γ wD!)1H0(Awd# ,swt1DHDγ c ,bot!t3DBTHfG2#Dγ c<B0 ,iw!hiwDB(2HfG2#Dγ w<B0 J Σ*<Σ 1 Σ<Bo 2 Σ<Bo
/<117 !1#30?75//.xls8'oad Case $' Bo) C/+ert Inside is Em&t%3 Undergro/nd 4ater /& to To& sa.3 Tra0 oad Case( L$
1# +erti0a oad against to& sa.
6cting'oad !tf<m2# ,top 0.5?5 dAwdDgd!)(Awd#Dgs d 2.4000 t1 t1 1.547 t2 t2 0.0000 1 ./30 $# ,ori5onta oad at to& o- side 6a
6cting 'oad !tf<m2# Horiontal press"re b; track tire
1aDwe1 1 0.443/ we1 1.547 tf<m2 2aDwe2 2 0.0000 we2 0.0000 tf<m2 3aDgdDAwd 3 1.3500 aDgsD!)1(Awd# 0.1000 5gwD!)1(Awd# 5 0.1000 h1 2.323/ 2# ,ori5onta oad at .ottom o- side 6a
6cting'oad !tf<m2# 1aDwe1 1 0.443/ 2aDwe2 2 0.0000 3 1.3500 1.3000 5 1.3000 h2 .423/ 7# se- 6eig,t o- side 6a
6cting'oad !tf<m# ,sw 0./00 8# gro/nd rea0tion 6cting'oad !tf<m2# ,bot 0.5?5 ,top ,top 0.5?5 ,s,swD2<B0 ,s 0.43/5 d d 2.4000 t1 t1 1.547 t2 t2 0.0000
,iw 0.0000 hiw@intern
&p(&<B0 & (1.715
I .5715 s/mmar% o- resistan0e moment
%tem H x ; *
!tf<m# !tf<m# !m# !m# !tf.m<m# acting point
Self weight top slab 0.440 ( 0.7500 ( 0.5031
side wall !left# 0./00 ( 0.0000 ( 0.0000 e B0<2 ( side wall !right# 0./00 ( 1.3000 ( 0.720
inert 0.440 ( 0.7500 ( 0.5031 gro"nd reac
load on top slab d 3.5100 ( 0.7500 ( 2.2/15
t1 2.011? ( 0.7500 ( 1.3044
t2 0.0000 ( 0.7500 ( 0.0000
soil press"re side wall !left# ( .22/7 ( 0.531? 2.2?1 side wall !right# ( (.22/7 ( 0.531? (2.2?1
internalwater 0.0000 ( 0.7500 ( 0.0000
"plift (2.1000 ( 0.7500 ( (1.3750
total 5.?2?? 3./5
9# oad against in+ert
6cting 'oad !tf<m2# d 2.4000 t1 1.547 t2 0.0000 ,top 0.5?5 ,s 0.43/5 total 5.5/15 ,top !t2DBTHfG2#Dγ c<B0 3aDγ dDAwd aDγ sD!)1H0(Awd# 5γ wD!)1H0(Awd# ,swt1DHDγ c ,bot!t3DBTHfG2#Dγ c<B0 ,iw!hiwDB(2HfG2#Dγ w<B0 J Σ*<Σ 1 Σ<Bo 2 Σ<Bo
Case 2' Bo) C/+ert Inside is F/3 Undergro/nd 4ater /& to in+ert3 Tra0 oad Case( L1
1# +erti0a oad against to& sa.
6cting'oad !tf<m2# ,top 0.5?5 d 2.4000 t1 t1 1.547 t2 t2 0.0000 1 ./30 $# ,ori5onta oad at to& o- side 6a
6cting 'oad !tf<m2# Horiontal press"re b; track tire
1aDwe1 1 0.443/ we1 1.547 tf<m2
2aDwe2 2 0.0000 we2 0.0000 tf<m2
3 1.00 0.0000 h1 2.213/ 2# ,ori5onta oad at .ottom o- side 6a
6cting'oad !tf<m2# 1aDwe1 1 0.443/ 2aDwe2 2 0.0000 3 2.5200 (1.0000 h2 2.2?3/ 7# se- 6eig,t o- side 6a
6cting'oad !tf<m# ,sw 0./00 8# gro/nd rea0tion 6cting'oad !tf<m2# ,bot 0.5?5 ,top ,top 0.5?5 ,s,swD2<B0 ,s 0.43/5 d d 2.4000 t1 t1 1.547 t2 t2 0.0000
,iw 0./115 hiw@intern
&p0 & 0.0000
I 7.?// s/mmar% o- resistan0e moment
%tem H x ; *
!tf<m# !tf<m# !m# !m# !tf.m<m# acting poin
Self weight top slab 0.440 ( 0.7500 ( 0.5031
side wall !left# 0./00 ( 0.0000 ( 0.0000 e B0<2 ( side wall !right# 0./00 ( 1.3000 ( 0.720
inert 0.440 ( 0.7500 ( 0.5031 gro"nd reac
load on top slab d 3.5100 ( 0.7500 ( 2.2/15
t1 2.011? ( 0.7500 ( 1.3044
t2 0.0000 ( 0.7500 ( 0.0000
soil press"re side wall !left# ( 2.407 ( 0.5?75 1.7131 side wall !right# ( (2.407 ( 0.5?75 (1.7131
internalwater 1.0550 ( 0.7500 ( 0.7/5/
"plift 0.0000 ( 0.7500 ( 0.0000
total ?.0/? 5.?052
9# oad against in+ert
6cting 'oad !tf<m2# d 2.4000 t1 1.547 t2 0.0000 ,top 0.5?5 ,s 0.43/5 total 5.5/15 ,top !t2DBTHfG2#Dγ c<B0 d)Dγ d 3aDγ dD)1 ,(γ wD0 3aDγ dD!)1H0# ,(γ wDH ,swt1DHDγ c ,bot!t3DBTHfG2#Dγ c<B0 ,iw!hiwDB(2HfG2#Dγ w<B0 J Σ*<Σ 1 Σ<B 2 Σ<B
10<117 !1#30?75//.xls8'oad Case 7' Bo) C/+ert Inside is F/3 Undergro/nd 4ater /& to in+ert3 Tra0 oad Case( L$
1# +erti0a oad against to& sa.
6cting'oad !tf<m2# ,top 0.5?5 d 2.4000 t1 t1 1.547 t2 t2 0.0000 1 ./30
$# ,ori5onta oad at to& o- side 6a
6cting 'oad !tf<m2# Horiontal press"re b; track tire
1aDwe1 1 0.443/ we1 1.547 tf<m2
2aDwe2 2 0.0000 we2 0.0000 tf<m2
3 1.00 0.0000 h1 2.213/
2# ,ori5onta oad at .ottom o- side 6a
6cting'oad !tf<m2# 1aDwe1 1 0.443/ 2aDwe2 2 0.0000 3 2.5200 (1.0000 h2 2.2?3/
7# se- 6eig,t o- side 6a
6cting'oad !tf<m# ,sw 0./00 8# gro/nd rea0tion 6cting'oad !tf<m2# ,bot 0.5?5 ,top ,top 0.5?5 ,s,swD2<B0 ,s 0.43/5 d d 2.4000 t1 t1 1.547 t2 t2 0.0000
,iw 0./115 hiw@intern
&p0 & 0.0000
I 7.?//
s/mmar% o- resistan0e moment
%tem H x ; *
!tf<m# !tf<m# !m# !m# !tf.m<m# acting point Self weight top slab 0.440 ( 0.7500 ( 0.5031
side wall !left# 0./00 ( 0.0000 ( 0.0000 e B0<2 ( side wall !right# 0./00 ( 1.3000 ( 0.720
inert 0.440 ( 0.7500 ( 0.5031 gro"nd reac
load on top slab d 3.5100 ( 0.7500 ( 2.2/15
t1 2.011? ( 0.7500 ( 1.3044
t2 0.0000 ( 0.7500 ( 0.0000
soil press"re side wall !left# ( 2.407 ( 0.5?75 1.7131 side wall !right# ( (2.407 ( 0.5?75 (1.7131
internalwater 1.0550 ( 0.7500 ( 0.7/5/
"plift 0.0000 ( 0.7500 ( 0.0000
total ?.0/? 5.?052
9# oad against in+ert
6cting 'oad !tf<m2# d 2.4000 t1 1.547 t2 0.0000 ,top 0.5?5 ,s 0.43/5 total 5.5/15
S/mmar% o- Load Ca0/ation
,top !t2DBTHfG2#Dγ c<B0 d)Dγ d 3aDγ dD)1 ,(γ wD0 3aDγ dD!)1H0# ,(γ wDH ,swt1DHDγ c ,bot!t3DBTHfG2#Dγ c<B0 ,iw!hiwDB(2HfG2#Dγ w<B0 J Σ*<Σ 1 Σ<Bo 2 Σ<Bo
%tem 1 h1 h2 ,sw 1 Case !tf<m2# !tf<m2# !tf<m2# !tf<m2# !tf<m# !tf<m2# Case.1 ./30 2.323/ .423/ 5.5/15 0./00 .5715 Case.2 ./30 2.323/ .423/ 5.5/15 0./00 .5715 Case.3 ./30 2.213/ 2.2?3/ 5.5/15 0./00 7.?// Case. ./30 2.213/ 2.2?3/ 5.5/15 0./00 7.?//
12<117 !1#30?75//.xls8'oad Cass I Road 1(8 m 0.5 1.00 t<m3 1./0 t<m3 2.00 t<m3 2.0 t<m3 145 kgf<m2 70 kgf<m2 100 kgf<m2 5.5 kgf<m2 3000 kgf<m2 2 1.2 1.00 m 1.10 m 0.15 m 0.20 m 0.20 m 0.20 m 1.50 m 1.0 m 1.50 m 1.50 m ! )# 0.00 m 1.00 m 1 10.00 t 0.3 0.20 m 0.50 m 10.00 t 0.20 m 0.50 m 2.50 t 0.20 m 0.50 m 0.00 t<m2 3<2 1.200 m 1.300 m 1.700 m !> 0.25m# !> 0.25m# !> 0.25m#
tf<m28 B 1.300 m m m tf<m28 B 0.000 m m m tf<m28 B 0.000 m m m tf<m28 B 1.300 m m m tf<m28 B 0.000 m m m tf<m28 B 0.000 m m m tf<m28 B 1.300 m m m tf<m28 B 0.000 m m m tf<m28 B 0.000 m m m !2# !2# !3# !3# a# b# a# c# a# b# a# c# 1.547 1.547 1.547 1.547 1.547 tf<m28 o the top slab.
tf<m tf<m
l water depth 0.00 m of res"ltant force 0.750 m 0.000 m tion .5715 tf<m2 .5715 tf<m2 7Σe<BoG2 ( 7Σe<BoG2
l water depth 0.00 m of res"ltant force 0.7500 m 0.0000 m tion .5715 tf<m2 .5715 tf<m2 7Σe<BoG2 ( 7Σe<BoG2
1/< 117 !1#30?75//.xls8 'oad l water depth 1.000 m of res"ltant force 0.7500 m 0.0000 m tion 7.?// tf<m2 7.?// tf<m2 7Σe<BoG2 ( 7Σe<BoG2
l water depth 1.000 m of res"ltant force 0.7500 m 0.0000 m tion 7.?// tf<m2 7.?// tf<m2 7Σe<BoG2 ( 7Σe<BoG2
7 Ana%sis o- Pane Frame
Case 1' Bo) C/+ert Inside is Em&t%3 Undergro/nd 4ater /& to To& sa.3 Tra0 oad Case( L1
1# Calc"lation of 'oad Term
h1 Horiontal ress"re at top of side wall 2.32
h2 Horiontal ress"re at bottom of side wall .42
1 ertical ress"re!1# on top slab ./3
2 ertical ress"re!2# on top slab 0.000
-eaction to bottom slab 5.5/1
a )istance from Loint B to far end of 2 1.300 m
b )istance from Loint B to near end of 2 0.000 m
H0 Height of plane frame 1.200 m
B0 ,idthofplaneframe 1.300 m
t1 Thickness of side wall 0.200 m
t2 Thicknessoftopslab 0.200 m
t3 Thickness of inert !bottom slab# 0.200 m
2# Calc"lation of Bending *oment at Loint
k1 1.0 0.?231 0.?231 k1 0 k3 (3k1 k1 k2 0 (3k1 0 k2 k1 (3k1 k3 0 k1 (3k1 k1 k1 k1 k1 (k1 - 0
6s load has bilateral s;mmetr;8 the e"ation shown below is formed.
- 0 2k1k3 k1 = k1 2k1k2 2.?231 1.0 = (0.333??21 1.0 2.?231 0.2/4???21
B; soling aboe e"ation8 the res"lt is led as shown below.
tf<m2 tf<m2 tf<m2 tf<m2 tf<m2 C6B C)C !2h13h2#H02<70 CB6 CC) !3h12h2#H02<70 CBC CCB 1B02<12 E!a2(b2#B 0 2<2 ( 2B 0!a 3(b3#<3 !a(b#<F2<B 0 2 C)6 C6) B02<12 k2 H0t23<!B0t 1 3# k3 H0t33<!B0t 1 3# 2!k1k3# θ6 C6B ( C6) 2!k1k2# θB CBC ( CB6 2!k1k2# θC CC) ( CCB 2!k1k3# θ) C)6 ( C)C θ6 (θ) θB (θC θ6 C6B ( C6) θB CBC ( CB6 θ6 θB B 6 !t1# H0
22<117 !2#30?75//.xls*SK
(0.1744 (0.155?1
0.155?1 0.1744
θ6 θC
(0.7312 0.53/1 (0.53/1 0.53/1 (0.53/1 0.7312 (0.7312 0.7312
2# Calc"lation of )esign +orce 2(1# Side ,all in left
a# Shearing +orce at Loint
w1 'oadatend6 .42
w2 'oadatendB 2.32
Bending moment at end 6 (0.7312
Bending moment at end B 0.53/1
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
2.32 tf
(1.4?4 tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.105 tf !ii# %n case of x2 0.?00 m Sx2 (1.010 tf c# Bending *oment (0.731 (0.53/
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
2.31? (.423/ x 1.0000 x2 8 x
Bending moment at x 0.5//0 m isN
0.050 *6B k1!2θ6 θB# ( C6B tf ・m *B6 k1!2θBθ6#CB6 tf ・m *BC k2!2θBθC# ( CBC tf ・m *CB k2!2θCθB#CCB tf ・m *C) k1!2θCθ)# ( CC) tf ・m *)C k1 !2θ) θC#C)C tf ・m *)6 k3!2θ)θ6# ( C)6 tf ・m *6) k3!2θ6θ)#C6) tf ・m tf<m2 tf<m2 *6B tf ・m *B6 tf ・m S6B !2w1w2#'<7 ( !*6B*B6#<' SB6 S6B ( '!w1w2#<2 Sx S6B ( w1x ( !w2 ( w1#x2<!2'# *6 *6B tf ・m *B (*B6 tf ・m Sx 0 S6B ( w1x ( !w2 ( w1#x2<!2'# *max S6Bx ( w1x2<2 ( !w2(w1#x3<!7'# * 6B tf ・m w1 w1 w1 w2 w1 w1
2(2# Top Slab
a# Shearing +orce at Loint
w1 &niformload ./3
w2 &niformload 0.000
a )istance from end B to near end of w2 0.000 m
b 'ength of "niform load w2 1.300 m
Bending moment at end B (0.53/1
Bending moment at end C 0.53/1
' 'ength of member !Bo# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.1/ tf
(3.1/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
in case of 0.000 m <= x <= 1.300 m !i# %n case of x1 0.300 m Sx1 1.7?5 tf !ii# %n case of x2 1.000 m Sx2 (1.7?5 tf c# Bending *oment (0.53/ (0.53/
The maxim"m bending moment occ"rs at the center of member d"e to s;mmetr; loading distrib"tion.
Bending moment at x 0.750 m isN
0./5
2(3# Side ,all in right
a# Shearing +orce at Loint
w1 'oadatendC 2.32
w2 'oadatend) .42
Bending moment at end C (0.53/1
Bending moment at end ) 0.7312
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
1.4?4 tf tf<m2 tf<m2 *BC tf ・m *CB tf ・m SBC !w1'w2b#<2(!*BC*CB#<' SCB SBC (w1' ( w2b Sx SBC ( w1x ( w2!x(a# *B *BC tf ・m *C (*CB tf ・m *max SBCx ( w1x2<2 ( w2!x(a#2<2 * BC tf ・m tf<m2 tf<m2 *C) tf ・m *)C tf ・m SC) !2w1w2#'<7 ( !*C)*)C#<' b a w1 x *BC B *C) *)C x ' C )
27<117 !2#30?75//.xls*SK
(2.32 tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.010 tf !ii# %n case of x2 0.?00 m Sx2 (1.105 tf c# Bending *oment (0.53/ (0.731
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
1.4?74 (2.323/ x (1.0000 x2 8 x
Bending moment at x 0.7120 m isN
0.0?/7
2(# Bottom Slab
a# Shearing +orce at Loint
w1 -eaction at end ) 5.5/1
w2 -eaction at end 6 5.5/1
Bending moment at end B (0.73122
Bending moment at end C 0.73122
' 'ength of member !B0# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.72/ tf
(3.72/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.?5 tf !ii# %n case of x2 1.000 m Sx2 (1.?5 tf c# Bending *oment (0.731 (0.731
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero. Sx SC) ( w1x ( !w2 ( w1#x2<!2'# *C *C) tf ・m *) (*)C tf ・m Sx 0 SC) ( w1x ( !w2 ( w1#x2<!2'# *max SC)x ( w1x2<2 ( !w2(w1#x3<!7'# * C) tf ・m tf<m2 tf<m2 *)6 tf ・m *6) tf ・m S)6 !2w1w2#'<7 ( !*)6*6)#<' S6) S)6 ( '!w1w2#<2 Sx S)6( w1x ( !w2 ( w1#x2<!2'# *) *)6 tf ・m *6 (*6) tf ・m Sx 0 S)6 ( w1x ( !w2 ( w1#x2<!2'# x w2 6 *6)
2/<117 !2#30?75//.xls*SK
3.72/0 (5.5/15 x 8 x
Bending moment at x 0.7500 m isN
0.5/
*max S)6x ( w1x2<2 ( !w2(w1#x3<!7'# *
Case $' Bo) C/+ert Inside is Em&t%3 Undergro/nd 4ater /& to To& sa.3 Tra0 oad Case( L$
1# Calc"lation of 'oad Term
h1 Horiontal ress"re at top of side wall 2.32
h2 Horiontal ress"re at bottom of side wall .42
1 ertical ress"re!1# on top slab ./3
2 ertical ress"re!2# on top slab 0.000
-eaction to bottom slab 5.5/1
a )istance from Loint B to far end of 2 1.300 m
b )istance from Loint B to near end of 2 0.000 m
H0 Height of plane frame 1.200 m
B0 ,idthofplaneframe 1.300 m
t1 Thickness of side wall 0.200 m
t2 Thicknessoftopslab 0.200 m
t3 Thickness of inert !bottom slab# 0.200 m
2# Calc"lation of Bending *oment at Loint
k1 1.0 0.?230/ 0.?230/ k1 0 k3 (3k1 k1 k2 0 (3k1 0 k2 k1 (3k1 k3 0 k1 (3k1 k1 k1 k1 k1 (k1 - 0
6s load has bilateral s;mmetr;8 the e"ation shown below is formed.
- 0 2k1k3 k1 = k1 2k1k2 2.?231 1.0 = (0.333??21 1.0 2.?231 0.2/4???21
B; soling aboe e"ation8 the res"lt is led as shown below.
(0.1744 (0.155?1 0.155?1 0.1744 tf<m2 tf<m2 tf<m2 tf<m2 tf<m2 C6B C)C !2h13h2#H02<70 CB6 CC) !3h12h2#H02<70 CBC CCB 1B02<12 E!a2(b2#B 0 2<2 ( 2B 0!a 3(b3#<3 !a(b#<F2<B 0 2 C)6 C6) B02<12 k2 H0t23<!B0t 1 3# k3 H0t33<!B0t 1 3# 2!k1k3# θ6 C6B ( C6) 2!k1k2# θB CBC ( CB6 2!k1k2# θC CC) ( CCB 2!k1k3# θ) C)6 ( C)C θ6 (θ) θB (θC θ6 C6B ( C6) θB CBC ( CB6 θ6 θB θ6 θC θB θ) B 6 !t1# H0
(0.7312 0.53/1 (0.53/1 0.53/1 (0.53/1 0.7312 (0.7312 0.7312
2# Calc"lation of )esign +orce 2(1# Side ,all in left
a# Shearing +orce at Loint
w1 'oadatend6 .42
w2 'oadatendB 2.32
Bending moment at end 6 (0.7312
Bending moment at end B 0.53/1
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
2.31? tf
(1.4?74 tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.105 tf !ii# %n case of x2 0.? m Sx2 (1.010 tf c# Bending *oment (0.731 (0.53/
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
2.31? (.423/ x 1.0000 x2 8 x
Bending moment at x 0.5//0 m isN
0.050 *6B k1!2θ6 θB# ( C6B tf ・m *B6 k1!2θBθ6#CB6 tf ・m *BC k2!2θBθC# ( CBC tf ・m *CB k2!2θCθB#CCB tf ・m *C) k1!2θCθ)# ( CC) tf ・m *)C k1 !2θ) θC#C)C tf ・m *)6 k3!2θ)θ6# ( C)6 tf ・m *6) k3!2θ6θ)#C6) tf ・m tf<m2 tf<m2 *6B tf ・m *B6 tf ・m S6B !2w1w2#'<7 ( !*6B*B6#<' SB6 S6B ( '!w1w2#<2 Sx S6B ( w1x ( !w2 ( w1#x2<!2'# *6 *6B tf ・m *B (*B6 tf ・m Sx 0 S6B ( w1x ( !w2 ( w1#x2<!2'# *max S6Bx ( w1x2<2 ( !w2(w1#x3<!7'# * 6B tf ・m w1 w1 w1 w2 w1 w1
2(2# Top Slab
a# Shearing +orce at Loint
w1 &niformload ./3
w2 &niformload 0.000
a )istance from end B to near end of w2 0.000 m
b 'ength of "niform load w2 1.300 m
Bending moment at end B (0.53/1
Bending moment at end C 0.53/1
' 'ength of member !Bo# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.1/ tf
(3.1/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
in case of 0.000 m <= x <= 1.300 m !i# %n case of x1 0.300 m Sx1 1.7?5 tf !ii# %n case of x2 1.000 m Sx2 (1.7?5 tf c# Bending *oment (0.53/ (0.53/
The maxim"m bending moment occ"rs at the center of member d"e to s;mmetr; loading distrib"tion.
Bending moment at x 0.750 m isN
0./5
2(3# Side ,all in right
a# Shearing +orce at Loint
w1 'oadatendC 2.32
w2 'oadatend) .42
Bending moment at end C (0.53/1
Bending moment at end ) 0.7312
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
tf<m2 tf<m2 *BC tf ・m *CB tf ・m SBC !w1'w2b#<2(!*BC*CB#<' SCB SBC (w1' ( w2b Sx SBC ( w1x ( w2!x(a# *B *BC tf ・m *C (*CB tf ・m *max SBCx ( w1x2<2 ( w2!x(a#2<2 * BC tf ・m tf<m2 tf<m2 *C) tf ・m *)C tf ・m SC) !2w1w2#'<7 ( !*C)*)C#<' b a w1 x *BC B *C) *)C x ' C )
3<117 !2#30?75//.xls*SK
1.4?4 tf
(2.32 tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.010 tf !ii# %n case of x2 0.?00 m Sx2 (1.105 tf c# Bending *oment (0.53/ (0.731
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
1.4?74 (2.323/ x (1.0000 x2 8 x
Bending moment at x 0.7120 m isN
0.0??
2(# Bottom Slab
a# Shearing +orce at Loint
w1 -eaction at end ) 5.5/1
w2 -eaction at end 6 5.5/1
Bending moment at end B (0.7312
Bending moment at end C 0.7312
' 'ength of member !B0# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.72/ tf
(3.72/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.?5 tf !ii# %n case of x2 1.000 m Sx2 (1.?5 tf c# Bending *oment (0.731 (0.731
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero. Sx SC) ( w1x ( !w2 ( w1#x2<!2'# *C *C) tf ・m *) (*)C tf ・m Sx 0 SC) ( w1x ( !w2 ( w1#x2<!2'# *max SC)x ( w1x2<2 ( !w2(w1#x3<!7'# * C) tf ・m tf<m2 tf<m2 *)6 tf ・m *6) tf ・m S)6 !2w1w2#'<7 ( !*)6*6)#<' S6) S)6 ( '!w1w2#<2 Sx S)6( w1x ( !w2 ( w1#x2<!2'# *) *)6 tf ・m *6 (*6) tf ・m Sx 0 S)6 ( w1x ( !w2 ( w1#x2<!2'# x w2 6 *6)
37<117 !2#30?75//.xls*SK
3.72/0 (5.5/15 x 8 x
Bending moment at x 0.7500 m isN
0.5/
*max S)6x ( w1x2<2 ( !w2(w1#x3<!7'# *
Case 2' Bo) C/+ert Inside is F/3 Undergro/nd 4ater /& to in+ert3 Tra0 oad Case( L1
1# Calc"lation of 'oad Term
h1 Horiontal ress"re at top of side wall 2.21
h2 Horiontal ress"re at bottom of side wall 2.2?
1 ertical ress"re!1# on top slab ./3
2 ertical ress"re!2# on top slab 0.000
-eaction to bottom slab 5.5/1
a )istance from Loint B to far end of 2 1.300 m
b )istance from Loint B to near end of 2 0.000 m
H0 Height of plane frame 1.200 m
B0 ,idthofplaneframe 1.300 m
t1 Thickness of side wall 0.200 m
t2 Thicknessoftopslab 0.200 m
t3 Thickness of inert !bottom slab# 0.200 m
2# Calc"lation of Bending *oment at Loint
k1 1.0 0.?230/ 0.?230/ k1 0 k3 (3k1 k1 k2 0 (3k1 0 k2 k1 (3k1 k3 0 k1 (3k1 k1 k1 k1 k1 (k1 - 0
6s load has bilateral s;mmetr;8 the e"ation shown below is formed.
- 0 2k1k3 k1 = k1 2k1k2 2.?231 1.0 = (0.5173?21 1.0 2.?231 0.1255?21
B; soling aboe e"ation8 the res"lt is led as shown below.
(0.250/ (0.22/07 0.22/07 0.250/ tf<m2 tf<m2 tf<m2 tf<m2 tf<m2 C6B C)C !2h13h2#H02<70 CB6 CC) !3h12h2#H02<70 CBC CCB 1B02<12 E!a2(b2#B 0 2<2 ( 2B 0!a 3(b3#<3 !a(b#<F2<B 0 2 C)6 C6) B02<12 k2 H0t23<!B0t 1 3# k3 H0t33<!B0t 1 3# 2!k1k3# θ6 C6B ( C6) 2!k1k2# θB CBC ( CB6 2!k1k2# θC CC) ( CCB 2!k1k3# θ) C)6 ( C)C θ6 (θ) θB (θC θ6 C6B ( C6) θB CBC ( CB6 θ6 θB θ6 θC θB θ) B 6 !t1# H0
(0.55152 0.415 (0.415 0.415 (0.415 0.55152 (0.55152 0.55152
2# Calc"lation of )esign +orce 2(1# Side ,all in left
a# Shearing +orce at Loint
w1 'oadatend6 2.2?
w2 'oadatendB 2.21
Bending moment at end 6 (0.5515
Bending moment at end B 0.415
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
1.24 tf
(1.24/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 0.42 tf !ii# %n case of x2 0.?00 m Sx2 (0.710 tf c# Bending *oment (0.552 (0.42
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
1.27? (2.2?3/ x 0.0333 x2 8 x
Bending moment at x 0.724/ m isN
(0.105 *6B k1!2θ6 θB# ( C6B tf ・m *B6 k1!2θBθ6#CB6 tf ・m *BC k2!2θBθC# ( CBC tf ・m *CB k2!2θCθB#CCB tf ・m *C) k1!2θCθ)# ( CC) tf ・m *)C k1 !2θ) θC#C)C tf ・m *)6 k3!2θ)θ6# ( C)6 tf ・m *6) k3!2θ6θ)#C6) tf ・m tf<m2 tf<m2 *6B tf ・m *B6 tf ・m S6B !2w1w2#'<7 ( !*6B*B6#<' SB6 S6B ( '!w1w2#<2 Sx S6B ( w1x ( !w2 ( w1#x2<!2'# *6 *6B tf ・m *B (*B6 tf ・m Sx 0 S6B ( w1x ( !w2 ( w1#x2<!2'# *max S6Bx ( w1x2<2 ( !w2(w1#x3<!7'# * 6B tf ・m w1 w1 w1 w2 w1 w1
2(2# Top Slab
a# Shearing +orce at Loint
w1 &niformload ./3
w2 &niformload 0.000
a )istance from end B to near end of w2 0.000 m
b 'ength of "niform load w2 1.300 m
Bending moment at end B (0.42
Bending moment at end C 0.42
' 'ength of member !Bo# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.1/ tf
(3.1/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
in case of 0.000 m <= x <= 1.300 m !i# %n case of x1 0.300 m Sx1 1.7?5 tf !ii# %n case of x2 1.000 m Sx2 (1.7?5 tf c# Bending *oment (0.42 (0.42
The maxim"m bending moment occ"rs at the center of member d"e to s;mmetr; loading distrib"tion.
Bending moment at x 0.750 m isN
0.552
2(3# Side ,all in right
a# Shearing +orce at Loint
w1 'oadatendC 2.21
w2 'oadatend) 2.2?
Bending moment at end C (0.42
Bending moment at end ) 0.552
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
tf<m2 tf<m2 *BC tf ・m *CB tf ・m SBC !w1'w2b#<2(!*BC*CB#<' SCB SBC (w1' ( w2b Sx SBC ( w1x ( w2!x(a# *B *BC tf ・m *C (*CB tf ・m *max SBCx ( w1x2<2 ( w2!x(a#2<2 * BC tf ・m tf<m2 tf<m2 *C) tf ・m *)C tf ・m SC) !2w1w2#'<7 ( !*C)*)C#<' b a w1 x *BC B *C) *)C x ' C )
2<117 !2#30?75//.xls*SK
1.24/ tf
(1.24 tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 0.710 tf !ii# %n case of x2 0.?00 m Sx2 (0.42 tf c# Bending *oment (0.42 (0.552
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
1.2447 (2.213/ x (0.0333 x2 8 x
Bending moment at x 0.5422 m isN
(0.105
2(# Bottom Slab
a# Shearing +orce at Loint
w1 -eaction at end ) 5.5/1
w2 -eaction at end 6 5.5/1
Bending moment at end B (0.552
Bending moment at end C 0.552
' 'ength of member !B0# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.72/ tf
(3.72/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.?5 tf !ii# %n case of x2 1.000 m Sx2 (1.?5 tf c# Bending *oment (0.552 (0.552
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
3.72/0 (5.5/15 x 8 x Sx SC) ( w1x ( !w2 ( w1#x2<!2'# *C *C) tf ・m *) (*)C tf ・m Sx 0 SC) ( w1x ( !w2 ( w1#x2<!2'# *max SC)x ( w1x2<2 ( !w2(w1#x3<!7'# * C) tf ・m tf<m2 tf<m2 *)6 tf ・m *6) tf ・m S)6 !2w1w2#'<7 ( !*)6*6)#<' S6) S)6 ( '!w1w2#<2 Sx S)6( w1x ( !w2 ( w1#x2<!2'# *) *)6 tf ・m *6 (*6) tf ・m Sx 0 S)6 ( w1x ( !w2 ( w1#x2<!2'# x w2 6 *6)
<117 !2#30?75//.xls*SK
Bending moment at x 0.7500 m isN
0.72/
*max S)6x ( w1x2<2 ( !w2(w1#x3<!7'# *
Case 7' Bo) C/+ert Inside is F/3 Undergro/nd 4ater /& to in+ert3 Tra0 oad Case( L$
1# Calc"lation of 'oad Term
h1 Horiontal ress"re at top of side wall 2.21
h2 Horiontal ress"re at bottom of side wall 2.2?
1 ertical ress"re!1# on top slab ./3
2 ertical ress"re!2# on top slab 0.000
-eaction to bottom slab 5.5/1
a )istance from Loint B to far end of 2 1.300 m
b )istance from Loint B to near end of 2 0.000 m
H0 Height of plane frame 1.200 m
B0 ,idthofplaneframe 1.300 m
t1 Thickness of side wall 0.200 m
t2 Thicknessoftopslab 0.200 m
t3 Thickness of inert !bottom slab# 0.200 m
2# Calc"lation of Bending *oment at Loint
k1 1.0 0.?230/ 0.?230/ k1 0 k3 (3k1 k1 k2 0 (3k1 0 k2 k1 (3k1 k3 0 k1 (3k1 k1 k1 k1 k1 (k1 - 0
6s load has bilateral s;mmetr;8 the e"ation shown below is formed.
- 0 2k1k3 k1 = k1 2k1k2 2.?231 1.0 = (0.5173?21 1.0 2.?231 0.1255?21
B; soling aboe e"ation8 the res"lt is led as shown below.
(0.250/ (0.22/07 0.22/07 0.250/ tf<m2 tf<m2 tf<m2 tf<m2 tf<m2 C6B C)C !2h13h2#H02<70 CB6 CC) !3h12h2#H02<70 CBC CCB 1B02<12 E!a2(b2#B 0 2<2 ( 2B 0!a 3(b3#<3 !a(b#<F2<B 0 2 C)6 C6) B02<12 k2 H0t23<!B0t 1 3# k3 H0t33<!B0t 1 3# 2!k1k3# θ6 C6B ( C6) 2!k1k2# θB CBC ( CB6 2!k1k2# θC CC) ( CCB 2!k1k3# θ) C)6 ( C)C θ6 (θ) θB (θC θ6 C6B ( C6) θB CBC ( CB6 θ6 θB θ6 θC θB θ) B 6 !t1# H0
(0.55152 0.415 (0.415 0.415 (0.415 0.55152 (0.55152 0.55152
2# Calc"lation of )esign +orce 2(1# Side ,all in left
a# Shearing +orce at Loint
w1 'oadatend6 2.2?
w2 'oadatendB 2.21
Bending moment at end 6 (0.552
Bending moment at end B 0.42
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
1.24 tf
(1.24/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 0.42 tf !ii# %n case of x2 0.? m Sx2 (0.710 tf c# Bending *oment (0.552 (0.42
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
1.27? (2.2?3/ x 0.0333 x2 8 x
Bending moment at x 0.724/ m isN
(0.105 *6B k1!2θ6 θB# ( C6B tf ・m *B6 k1!2θBθ6#CB6 tf ・m *BC k2!2θBθC# ( CBC tf ・m *CB k2!2θCθB#CCB tf ・m *C) k1!2θCθ)# ( CC) tf ・m *)C k1 !2θ) θC#C)C tf ・m *)6 k3!2θ)θ6# ( C)6 tf ・m *6) k3!2θ6θ)#C6) tf ・m tf<m2 tf<m2 *6B tf ・m *B6 tf ・m S6B !2w1w2#'<7 ( !*6B*B6#<' SB6 S6B ( '!w1w2#<2 Sx S6B ( w1x ( !w2 ( w1#x2<!2'# *6 *6B tf ・m *B (*B6 tf ・m Sx 0 S6B ( w1x ( !w2 ( w1#x2<!2'# *max S6Bx ( w1x2<2 ( !w2(w1#x3<!7'# * 6B tf ・m w1 w1 w1 w2 w1 w1
2(2# Top Slab
a# Shearing +orce at Loint
w1 &niformload ./3
w2 &niformload 0.000
a )istance from end B to near end of w2 0.000 m
b 'ength of "niform load w2 1.300 m
Bending moment at end B (0.42
Bending moment at end C 0.42
' 'ength of member !Bo# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.1/ tf
(3.1/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
in case of 0.000 m <= x <= 1.300 m !i# %n case of x1 0.300 m Sx1 1.7?5 tf !ii# %n case of x2 1.000 m Sx2 (1.7?5 tf c# Bending *oment (0.42 (0.42
The maxim"m bending moment occ"rs at the center of member d"e to s;mmetr; loading distrib"tion.
Bending moment at x 0.750 m isN
0.552
2(3# Side ,all in right
a# Shearing +orce at Loint
w1 'oadatendC 2.21
w2 'oadatend) 2.2?
Bending moment at end C (0.42
Bending moment at end ) 0.552
' 'ength of member !H0# 1.200 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
tf<m2 tf<m2 *BC tf ・m *CB tf ・m SBC !w1'w2b#<2(!*BC*CB#<' SCB SBC (w1' ( w2b Sx SBC ( w1x ( w2!x(a# *B *BC tf ・m *C (*CB tf ・m *max SBCx ( w1x2<2 ( w2!x(a#2<2 * BC tf ・m tf<m2 tf<m2 *C) tf ・m *)C tf ・m SC) !2w1w2#'<7 ( !*C)*)C#<' b a w1 x *BC B *C) *)C x ' C )
50<117 !2#30?75//.xls*SK
1.24/ tf
(1.24 tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 0.7105 tf !ii# %n case of x2 0.?00 m Sx2 (0.41/ tf c# Bending *oment (0.42 (0.552
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
1.2447 (2.213/ x (0.0333 x2 8 x
Bending moment at x 0.5422 m isN
(0.105
2(# Bottom Slab
a# Shearing +orce at Loint
w1 -eaction at end ) 5.5/1
w2 -eaction at end 6 5.5/1
Bending moment at end B (0.552
Bending moment at end C 0.552
' 'ength of member !B0# 1.300 m
ch rotectie coering height 0.050 m
t Thickness of member !height# 0.200 m
d Mffectie height of member 0.150 m
3.72/ tf
(3.72/ tf
b# Shearing +orce at 2d point from Loint
Shearing force at the point with a distance of 2d from Loint is calc"lated b; following e"ation.
!i# %n case of x1 0.300 m Sx1 1.?5 tf !ii# %n case of x2 1.000 m Sx2 (1.?5 tf c# Bending *oment (0.552 (0.552
The maxim"m bending moment occ"rs at the point of that shearing force e"al to ero.
3.72/0 (5.5/15 x 8 x Sx SC) ( w1x ( !w2 ( w1#x2<!2'# *C *C) tf ・m *) (*)C tf ・m Sx 0 SC) ( w1x ( !w2 ( w1#x2<!2'# *max SC)x ( w1x2<2 ( !w2(w1#x3<!7'# * C) tf ・m tf<m2 tf<m2 *)6 tf ・m *6) tf ・m S)6 !2w1w2#'<7 ( !*)6*6)#<' S6) S)6 ( '!w1w2#<2 Sx S)6( w1x ( !w2 ( w1#x2<!2'# *) *)6 tf ・m *6 (*6) tf ・m Sx 0 S)6 ( w1x ( !w2 ( w1#x2<!2'# x w2 6 *6)
52<117 !2#30?75//.xls*SK
Bending moment at x 0.7500 m isN
0.72/
*max S)6x ( w1x2<2 ( !w2(w1#x3<!7'# *
0.5177 0.3?07 0.7/207 0.4/707 tf ・m tf ・m tf ・m tf ・m !t2# !t1# B0 !t3# C )
.137 0.5// 6 B w1 w1 ' x w1 w1 *6B *B6 w1 w1
w2 w2 * *CBCB ' ' C C w1 w1 w2 w2
5
(2.?37 (2.?37 0.712 0.712 ) ) * *)6)6 w1 w1
70<117 !2#30?75//.xls*SK 0.750
0.5177 0.3?07 0.7/207 0.4/707 tf ・m tf ・m tf ・m tf ・m !t2# !t1# B0 !t3# C )
.137 .137 0.5// 0.5// 6 6 B B w1 w1 w1 w1 ' ' x x w1 w1 w1 w1 * *6B6B * *B6B6 w1 w1 w1 w1
7
w2 w2 * *CBCB ' ' C C w1 w1 w2 w2
(2.?35/ 0.7120
)
*)6
7/<117 !2#30?75//.xls*SK 0.7500
0.2412 0.27?50 0.7/207 0.4/707 tf ・m tf ・m tf ・m tf ・m !t2# !t1# B0 !t3# C )
7/.1/7 0.72/ 6 B w1 w1 ' x w1 w1 *6B *B6 w1 w1
w2 *CB ' C w1 w2
(77.?? 0.542 0.750 ) *)6 w1
0.2412 0.27?50 0.7/207 0.4/707 tf ・m tf ・m tf ・m tf ・m !t2# !t1# B0 !t3# C )
7/.1/7 0.72/ 6 B w1 w1 ' x w1 w1 *6B *B6 w1 w1
w2 *CB ' C w1 w2
(74.0 0.542 0.750 ) *)6 w1
S/mmar% o- Interna -or0es
*ember Case * K S !tf#
!tf# at Loint at 2d
Side wall 6 (0.731 3.72/ 2.32 1.105
!left# Case.1 *iddle 0.050 3.3?3 0.000 (
B (0.53/ 3.1/ (1.4?4 (1.010 6 (0.731 3.72/ 2.32 1.105 Case.2 *iddle 0.050 3.3?3 0.000 ( B (0.53/ 3.1/ (1.4?4 (1.010 6 (0.552 3.72/ 1.24 0.42 Case.3 *iddle (0.105 3.344 0.000 ( B (0.42 3.1/ (1.24/ (0.710 6 (0.552 3.72/ 1.24 0.42 Case. *iddle (0.105 3.344 0.000 ( B (0.42 3.1/ (1.24/ (0.710 Topslab B (0.53/ 1.4?4 3.1/ 1.7?5 Case.1 *iddle 0./5 1.4?4 0.000 ( C (0.53/ 1.4?4 (3.1/ (1.7?5 B (0.53/ 1.4?4 3.1/ 1.7?5 Case.2 *iddle 0./5 1.4?4 0.000 ( C (0.53/ 1.4?4 (3.1/ (1.7?5 B (0.42 1.24/ 3.1/ 1.7?5 Case.3 *iddle 0.552 1.24/ 0.000 ( C (0.42 1.24/ (3.1/ (1.7?5 B (0.42 1.24/ 3.1/ 1.7?5 Case. *iddle 0.552 1.24/ 0.000 ( C (0.42 1.24/ (3.1/ (1.7?5 Sidewall C (0.53/ 3.1/ 1.4?4 1.010
!right# Case.1 *iddle 0.050 3.3?3 0.000 (
) (0.731 3.72/ (2.32 (1.105 C (0.53/ 3.1/ 1.4?4 1.010 Case.2 *iddle 0.050 3.3?3 0.000 ( ) (0.731 3.72/ (2.32 (1.105 C (0.42 3.1/ 1.24/ 0.710 Case.3 *iddle (0.105 3.344 0.000 ( ) (0.552 3.72/ (1.24 (0.42 C (0.42 3.1/ 1.24/ 0.710 Case. *iddle (0.105 3.344 0.000 ( ) (0.552 3.72/ (1.24 (0.42 %nert ) (0.731 2.32 3.72/ 1.?5 Case.1 *iddle 0.5/ 2.32 0.000 ( 6 (0.731 2.32 (3.72/ (1.?5 ) (0.731 2.32 3.72/ 1.?5 Case.2 *iddle 0.5/ 2.32 0.000 ( 6 (0.731 2.32 (3.72/ (1.?5 ) (0.552 1.24 3.72/ 1.?5 Case.3 *iddle 0.72/ 1.24 0.000 ( 6 (0.552 1.24 (3.72/ (1.?5 ) (0.552 1.24 3.72/ 1.?5 Case. *iddle 0.72/ 1.24 0.000 ( Check oint !tf ・m#
/7<117 !3#30?75//.xlsS"m *SK
8 Ca0/ation o- Re:/ired Rein-or0ement Bar
5(1 Calc"lation of -e"ired -einforcement Bar 1#
Case.1
* 0.7312 70 kgf<m2 h 20 cm!heightofmember#
K 3.72/0 100 kgf<m2 d 15 cm !effectie height of member# S0 2.31? tf n 2 d: 5 cm !protectie coering depth# S2d 1.104 tf c 5.00 cm !distance from ne"tral axis#
b 100 cm e *<K 14.0 cm 3/.42? kgf<cm2 ! /427 kgf<cm2# check 47.74 (127.04 (37/7/./5 0.3??0 5.7/41 cm2 Case.2 * 0.7312 70 kgf<m2 h 20 cm!heightofmember#
K 3.72/0 100 kgf<m2 d 15 cm !effectie height of member# S0 2.31? tf n 2 d: 5 cm !protectie coering depth# S2d 1.104 tf c 5.00 cm !distance from ne"tral axis#
b 100 cm e *<K 14.0 cm 3?.30 kgf<cm2 ! ?2705.00? kgf<cm2# check 47.74 (127.04 (37/7/./5 0.027 5.//7 cm2 Case.3 * 0.5515 70 kgf<m2 h 20 cm!heightofmember#
K 3.72/0 100 kgf<m2 d 15 cm !effectie height of member# S0 1.27? tf n 2 d: 5 cm !protectie coering depth# S2d 0.41/ tf c 5.00 cm !distance from ne"tral axis#
b 100 cm e *<K 15.20 cm 3.472 kgf<cm2 ! 73051 kgf<cm2# check 44.43 (110.0? (33252.41 0.343 .3723 cm2 Case. * 0.5515 70 kgf<m2 h 20 cm!heightofmember#
K 3.72/0 100 kgf<m2 d 15 cm !effectie height of member# S0 1.27? tf n 2 d: 5 cm !protectie coering depth# S2d 0.41/ tf c 5.00 cm !distance from ne"tral axis#
b 100 cm e *<K 15.20 cm 35.35? kgf<cm2 ! 74/27 kgf<cm2# check 44.43 (110.0? (33252.41 0.344 .554 cm2
The maxim"m re"irement of reinforcement bar is 5.//7 cm2 in Case. 2 from aboe calc"lation.
Case. 1 2 3
-e"irement 5.7/41 5.//7 .3723 .554 !cm2#
2# Case.1
* 0.53/1 70 kgf<m2 h 20 cm!heightofmember#
K 3.1/0 100 kgf<m2 d 15 cm !effectie height of member# S0 1.4?74 tf n 2 d: 5 cm !protectie coering depth# S2d 1.00?7 tf c 5.00 cm !distance from ne"tral axis#
b 100 cm e *<K 14.0? cm 3.350 kgf<cm2 ! 7114 kgf<cm2# check 4/.23 (10/1.?5 (31557.4/ 0.3407 .5417 cm2 Case.2 * 0.53/1 70 kgf<m2 h 20 cm!heightofmember#
6t Ooint P6P of side wall
tf ・m σca
tf σsa
Soling the form"la shown below8 σc
σcG3E3σsa<!2n# ( 3K!ec#<!bdG2#FσcG2 ( 7K!ec#σsaσc<!nbdG2# ( 3K!ec#σsaG2<!nG2bdG2# 0
0 σcG3 σcG2 σc
s nσc<!nσcσsa#
6sre !σcDs<2 ( K<!bd##bd<σsa
tf ・m σca
tf σsa
Soling the form"la shown below8 σc
σcG3E3σsa<!2n# ( 3K!ec#<!bdG2#FσcG2 ( 7K!ec#σsaσc<!nbdG2# ( 3K!ec#σsaG2<!nG2bdG2# 0
0 σcG3 σcG2 σc
s nσc<!nσcσsa#
6sre !σcDs<2 ( K<!bd##bd<σsa
tf ・m σca
tf σsa
Soling the form"la shown below8 σc
σcG3E3σsa<!2n# ( 3K!ec#<!bdG2#FσcG2 ( 7K!ec#σsaσc<!nbdG2# ( 3K!ec#σsaG2<!nG2bdG2# 0
0 σcG3 σcG2 σc
s nσc<!nσcσsa#
6sre !σcDs<2 ( K<!bd##bd<σsa
tf ・m σca
tf σsa
Soling the form"la shown below8 σc
σcG3E3σsa<!2n# ( 3K!ec#<!bdG2#FσcG2 ( 7K!ec#σsaσc<!nbdG2# ( 3K!ec#σsaG2<!nG2bdG2# 0
0 σcG3 σcG2 σc
s nσc<!nσcσsa#
6sre !σcDs<2 ( K<!bd##bd<σsa
6t Ooint PBP of side wall
tf ・m σca
tf σsa
Soling the form"la shown below8 σc
σcG3E3σsa<!2n# ( 3K!ec#<!bdG2#FσcG2 ( 7K!ec#σsaσc<!nbdG2# ( 3K!ec#σsaG2<!nG2bdG2# 0
0 σcG3 σcG2 σc s nσc<!nσcσsa# 6sre !σcDs<2 ( K<!bd##bd<σsa tf m σca d1 h d d1 h d