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1 / 96 document.xls/Summary SUMMARY OF STRUCTURAL CALCULATION OF 2-BARREL BOX CULVERT (Batang Angkola Main Canal from BBA0 - BBAII) 1 Design Dimensions and Bar Arrangements Class III Road (BM50) 2-B1.8xH2.0 m 1.75 Clear height m 2.00 Height of fillet m 0.15 Thickness Side wall cm 25.0 cm 25.0 Top slab cm 25.0 Bottom slab cm 25.0 Cover of reinforcement(between concrete surface and center of reinforcement bar) Side wall Outside cm 5.0 Inside cm 5.0 cm 5.0 Top slab Upper cm 5.0 Lower cm 5.0 Bottom slab Lower cm 5.0 Upper cm 5.0 Bar arrangement (dia - spacing per unit length of 1.0 m) Side wall Lower outsid Tensile bar mm 12@250 Distribution mm 12@250 Middle insid Tensile bar mm 12@125 Distribution mm 12@250 Upper outsid Tensile bar mm 12@250 Distribution mm 12@250 Tensile bar mm 12@250 wall Distribution mm 12@250 Top slab Upper edge Tensile bar mm 12@250 Distribution mm 12@250 Tensile bar mm 12@125 Distribution mm 12@250 Lower middle Tensile bar mm 12@250 Distribution mm 12@250 Bottom sla Lower edge Tensile bar mm 12@250 Distribution mm 12@250 Tensile bar mm 12@125 Distribution mm 12@250 Upper middle Tensile bar mm 12@250 Distribution mm 12@250 Fillet Upper edge Fillet bar mm Err:504 Fillet bar mm Err:504 Lower edge Fillet bar mm Err:504 Fillet bar mm Err:504 2 Design Parameters Unit Weight Reinforced Concrete 2.4 Backfill soil (wet) 1.8 (submerged) 1.0 Live Load Class of road Class III (BM50) Truck load at rear wheel P= 5.0 tf Impact coeffici (for Class I to IV Ci= 0.3 0.0 Pedestrian load (for Class V roads) 0 Concrete 175 (K175) 60 5.5 Reinforcement Bar 1,400 (U24, deformed bar) Yielding Point of Reinforcement Ba 3,000 Young's Modulus Ratio n= 24 Type of box culvert Clear width of 1-barrel Partition wall Partition wa Both sides Partition Both sides Upper center Lower center Upper center Lower center gc= tf/m 3 gs= tf/m 3 gs'= tf/m 3 (D<4.0m) (D> 4.0m) tf/m 2 Design Strength sck sck= kgf/cm 2 Allowable Compressive Stress sca sca= kgf/cm 2 Allowable Shearing Stress tm tm= kgf/cm 2 Allowable Tensile Stress ssa ssa= kgf/cm 2 ssy= kgf/cm 2

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SummarySUMMARY OF STRUCTURAL CALCULATION OF 2-BARREL BOX CULVERT(Batang Angkola Main Canal from BBA0 - BBAII)1Design Dimensions and Bar ArrangementsClass III Road (BM50)Type of box culvert2-B1.8xH2.0Clear width of 1-barrelm1.75Clear heightm2.00Height of filletm0.15ThicknessSide wallcm25.0Partition wallcm25.0Top slabcm25.0Bottom slabcm25.0Cover of reinforcement bar(between concrete surface and center of reinforcement bar)Side wallOutsidecm5.0Insidecm5.0Partition wallBoth sidescm5.0Top slabUppercm5.0Lowercm5.0Bottom slabLowercm5.0Uppercm5.0Bar arrangement(dia - spacing per unit length of 1.0 m)Side wallLower outsideTensile barmm12@250Distribution barmm12@250Middle insideTensile barmm12@125Distribution barmm12@250Upper outsideTensile barmm12@250Distribution barmm12@250PartitionBoth sidesTensile barmm12@250wallDistribution barmm12@250Top slabUpper edgeTensile barmm12@250Distribution barmm12@250Upper centerTensile barmm12@125Distribution barmm12@250Lower middleTensile barmm12@250Distribution barmm12@250Bottom slabLower edgeTensile barmm12@250Distribution barmm12@250Lower centerTensile barmm12@125Distribution barmm12@250Upper middleTensile barmm12@250Distribution barmm12@250FilletUpper edgeFillet barmm12@250Upper centerFillet barmm12@250Lower edgeFillet barmm12@250Lower centerFillet barmm12@2502Design ParametersUnit WeightReinforced Concretegc=2.4tf/m3Backfill soil(wet)gs=1.8tf/m3(submerged)gs'=1.0tf/m3Live LoadClass of roadClass III(BM50)P (t)Truck load at rear wheelP=5.0tfClass IBM10010.0Impact coefficient(for Class I to IV road)Ci=0.3(D4.0m)Class IIIBM505.0Pedestrian load(for Class V roads)0tf/m2Class IVBM353.5Class V0.0ConcreteDesign Strength scksck=175kgf/cm2(K175)Allowable Compressive Stress scasca=60kgf/cm2Allowable Shearing Stress tmtm=5.5kgf/cm2Reinforcement BarAllowable Tensile Stress ssassa=1,400kgf/cm2(U24, deformed bar)Yielding Point of Reinforcement Barssy=3,000kgf/cm2Young's Modulus Ration=24Coefficient of static earth pressureKa=0.33

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LoadSTRUCTURAL CALCULATION OF BOX CULVERTType: B1.75m x H2.00m x 2Class III RoadSoil Cover Depth:0.6 m1Dimensions and ParametersBasic ParametersBasic ConditionsKa:Coefficient of static earth pressure0.3333Classification of Live load by truckClass3ClassP (t)gw:Unit weight of water (t/m3)1.00t/m3PTM:Truck load of Middle Tire5.00t1Class IBM10010.0gd:Unit weight of soil (dry) (t/m3)1.80t/m3Ii:Impact coefficient (D4.0m:0, D FaFs=1.0792< 1.2checkwhere,Vd:Total dead weight (t/m)Vd=11.466tf/mU:Total uplift (t.m)U=BT*HT*gwU=10.625tf/mWs:Weight of covering soilWs =BT*{(D-Gwd)*(gs-gw)+Gwd*gd}=2.550tf/mWc:Self weight of box culvertWc =(HT*BT-2*H*B+4*Hf^2)*gc=8.916tf/mFa:Safety factor against upliftFa=1.23Load calculationCase 1: Box Culvert Inside is Empty, Underground Water up to Top slab, Track load Case. L11)vertical load against top slabActing Load(tf/m2)Wtop= (t2*BT+2*Hf^2)*gc/BT0Wtop=0.6645Pvd=Gwd*gd+(D-Gwd)*gsPvd=1.2000Pvt1Pvt1=1.7012Pvt2Pvt2=0.0000Pv1=3.56572)horizontral load at top of side wallActing Load(tf/m2)Horizontal pressure by track tireP1=Ka*we1P1=0.0000we1=0.0000tf/m2P2=Ka*we2P2=0.0000we2=0.0000tf/m2P3=Ka*gd*GwdP3=0.0000P4=Ka*gs*(D1-Gwd)P4=0.4833P5=gw*(D1-Gwd)P5=0.7250Ph1=1.20833)horizontral load at bottom of side wallActing Load(tf/m2)P1=Ka*we1P1=0.0000P2=Ka*we2P2=0.0000P3=Ka*gd*GwdP3=0.0000P4=Ka*gs*(D1+H0-Gwd)P4=1.9831P5=gw*(D1+H0-Gwd)P5=2.9750Ph2=4.95814)self weight of side wall and partition wallActing Load(tf/m)Wsw=t1*H*gcWsw=1.2000Wpw=t4*H*gcWpw=1.20005)ground reactionActing Load(tf/m2)Wbot=(t3*BT+2*Hf^2)*gc/BT0Wbot=0.6645WtopWtop=0.6645Ws=(Wsw*2+Wpw)/BT0Ws=0.9000PvdPvd=1.2000Pvt1Pvt1=1.7012Pvt2Pvt2=0.0000Wiw=2*(hiw*B-2Hf^2)*gw/BT0Wiw=0.0000hiw: internal water depth0.00mUp=-U/BT0U=-2.6563Q=2.4739summary of resistance momentItemVHxyM(tf/m)(tf/m)(m)(m)(tf.m/m)acting point of resultant forceSelf weighttop slab2.6580-2.0000-5.3160X = SM/SV =2.000mside wall (left)1.2000-0.0000-0.0000e = BT0/2 - X =0.000mside wall (right)1.2000-4.0000-4.8000partition wall1.2000-2.0000-2.4000invert2.6580-2.0000-5.3160ground reactionload on top slabPvd4.8000-2.0000-9.6000q1 = SV/BT0 + 6SVe/BT0^2 =2.4739tf/m2Pvt16.8047-2.0000-13.6094q2 = SV/BT0 - 6SVe/BT0^2 =2.4739tf/m2Pvt20.0000-2.0000-0.0000soil pressureside wall (left)-6.9372-0.89706.2224side wall (right)--6.9372-0.8970-6.2224internal water0.0000-2.0000-0.0000uplift-10.6250-2.0000--21.2500total9.895719.79146)load against invertActing Load(tf/m2)Pvd1.2000Pvt11.7012Pvt20.0000Wtop0.6645Ws0.9000Pq=4.4657Case 2: Box Culvert Inside is Empty, Underground Water up to Top slab, Track load Case. L21)vertical load against top slabActing Load(tf/m2)Wtop= (t2*BT+2*Hf^2)*gc/BT0Wtop=0.6645Pvd=Gwd*gd+(D-Gwd)*gsPvd=1.2000Pvt1Pvt1=3.9063Pvt2Pvt2=0.0000Pv1=5.77082)horizontral load at top of side wallActing Load(tf/m2)Horizontal pressure by track tireP1=Ka*we1P1=1.0416we1=3.1250tf/m2P2=Ka*we2P2=0.2604we2=0.7813tf/m2P3=Ka*gd*GwdP3=0.0000P4=Ka*gs*(D1-Gwd)P4=0.4833P5=gw*(D1-Gwd)P5=0.7250Ph1=2.51023)horizontral load at bottom of side wallActing Load(tf/m2)P1=Ka*we1P1=1.0416P2=Ka*we2P2=0.2604P3=Ka*gd*GwdP3=0.0000P4=Ka*gs*(D1+H0-Gwd)P4=1.9831P5=gw*(D1+H0-Gwd)P5=2.9750Ph2=6.26014)self weight of side wall and partition wallActing Load(tf/m)Wsw=t1*H*gcWsw=1.2000Wpw=t4*H*gcWpw=1.20005)ground reactionActing Load(tf/m2)Wbot=(t3*BT+2*Hf^2)*gc/BT0Wbot=0.6645WtopWtop=0.6645Ws=(Wsw*2+Wpw)/BT0Ws=0.9000PvdPvd=1.2000Pvt1Pvt1=3.9063Pvt2Pvt2=0.0000Wiw=2*(hiw*B-2Hf^2)*gw/BT0Wiw=0.0000hiw: internal water depth0.00mUp=-U/B0U=-2.6563Q=4.6790summary of resistance momentItemVHxyM(tf/m)(tf/m)(m)(m)(tf.m/m)acting point of resultant forceSelf weighttop slab2.6580-2.0000-5.3160X = SM/SV =2.0000mside wall (left)1.2000-0.0000-0.0000e = BT0/2 - X =0.0000mside wall (right)1.2000-4.0000-4.8000partition wall1.2000-2.0000-2.4000invert2.6580-2.0000-5.3160ground reactionload on top slabPvd4.8000-2.0000-9.6000q1 = SV/BT0 + 6SVe/BT0^2 =4.6790tf/m2Pvt115.6250-2.0000-31.2500q2 = SV/BT0 - 6SVe/BT0^2 =4.6790tf/m2Pvt20.0000-2.0000-0.0000soil pressureside wall (left)-9.8666-0.96479.5180side wall (right)--9.8666-0.9647-9.5180internal water0.0000-2.0000-0.0000uplift-10.6250-2.0000--21.2500total18.716037.43206)load against invertActing Load(tf/m2)Pvd1.2000Pvt13.9063Pvt20.0000Wtop0.6645Ws0.9000Pq=6.6708Case 3: Box Culvert Inside is Full, Underground Water up to invert, Track load Case. L11)vertical load against top slabActing Load(tf/m2)Wtop= (t2*BT+2*Hf^2)*gc/BT0Wtop=0.6645Pvd=D*gdPvd=1.0800Pvt1Pvt1=1.7012Pvt2Pvt2=0.0000Pv1=3.44572)horizontral load at top of side wallActing Load(tf/m2)Horizontal pressure by track tireP1=Ka*we1P1=0.0000we1=0.0000tf/m2P2=Ka*we2P2=0.0000we2=0.0000tf/m2P3=Ka*gd*D1P3=0.4350WP=-gw*0P4=0.0000Ph1=0.43503)horizontral load at bottom of side wallActing Load(tf/m2)P1=Ka*we1P1=0.0000P2=Ka*we2P2=0.0000P3=Ka*gd*(D1+H0)P3=1.7848WP=-gw*HP4=-2.0000Ph2=-0.21524)self weight of side wallActing Load(tf/m)Wsw=t1*H*gcWsw=1.2000Wpw=t4*H*gcWpw=1.20005)ground reactionActing Load(tf/m2)Wbot=(t3*BT+2*Hf^2)*gc/BT0Wbot=0.6645WtopWtop=0.6645Ws=(Wsw*2+Wpw)/BT0Ws=0.9000PvdPvd=1.0800Pvt1Pvt1=1.7012Pvt2Pvt2=0.0000Wiw=2*(hiw*B-2Hf^2)*gw/BT0Wiw=1.5200hiw: internal water depth1.75mUp=0U=0.0000Q=6.5302summary of resistance momentItemVHxyM(tf/m)(tf/m)(m)(m)(tf.m/m)acting point of resultant forceSelf weighttop slab2.6580-2.0000-5.3160X = SM/SV =2.0000mside wall (left)1.2000-0.0000-0.0000e = BT0/2 - X =0.0000mside wall (right)1.2000-4.0000-4.8000partition wall1.2000-2.0000-2.4000invert2.6580-2.0000-5.3160ground reactionload on top slabPvd4.3200-2.0000-8.6400q1 = SV/BT0 + 6SVe/BT0^2 =6.5302tf/m2Pvt16.8047-2.0000-13.6094q2 = SV/BT0 - 6SVe/BT0^2 =6.5302tf/m2Pvt20.0000-2.0000-0.0000soil pressureside wall (left)-0.2473-2.23430.5524side wall (right)--0.2473-2.2343-0.5524internal water6.0800-2.0000-12.1600uplift0.0000-2.0000-0.0000total26.120752.24146)load against invertActing Load(tf/m2)Pvd1.0800Pvt11.7012Pvt20.0000Wtop0.6645Ws0.9000Pq=4.3457Case 4: Box Culvert Inside is Full, Underground Water up to invert, Track load Case. L21)vertical load against top slabActing Load(tf/m2)Wtop= (t2*BT+2*Hf^2)*gc/BT0Wtop=0.6645Pvd=D*gdPvd=1.0800Pvt1Pvt1=3.9063Pvt2Pvt2=0.0000Pv1=5.65082)horizontral load at top of side wallActing Load(tf/m2)Horizontal pressure by track tireP1=Ka*we1P1=1.0416we1=3.1250tf/m2P2=Ka*we2P2=0.2604we2=0.7813tf/m2P3=Ka*gd*D1P3=0.4350WP=-gw*0P4=0.0000Ph1=1.73693)horizontral load at bottom of side wallActing Load(tf/m2)P1=Ka*we1P1=1.0416P2=Ka*we2P2=0.2604P3=Ka*gd*(D1+H0)P3=1.7848WP=-gw*HP4=-2.0000Ph2=1.08684)self weight of side wallActing Load(tf/m)Wsw=t1*H*gcWsw=1.2000Wpw=t4*H*gcWpw=1.20005)ground reactionActing Load(tf/m2)Wbot=(t3*BT+2*Hf^2)*gc/BT0Wbot=0.6645WtopWtop=0.6645Ws=(Wsw*2+Wpw)/BT0Ws=0.9000PvdPvd=1.0800Pvt1Pvt1=3.9063Pvt2Pvt2=0.0000Wiw=(hiw*B-2Hf^2)*gw/BT0Wiw=1.5200hiw: internal water depth1.75mUp=0U=0.0000Q=8.7353summary of resistance momentItemVHxyM(tf/m)(tf/m)(m)(m)(tf.m/m)acting point of resultant forceSelf weighttop slab2.6580-2.0000-5.3160X = SM/SV =2.0000mside wall (left)1.2000-0.0000-0.0000e = BT0/2 - X =0.0000mside wall (right)1.2000-4.0000-4.8000partition wall1.2000-2.0000-2.4000invert2.6580-2.0000-5.3160ground reactionload on top slabPvd4.3200-2.0000-8.6400q1 = SV/BT0 + 6SVe/BT0^2 =8.7353tf/m2Pvt115.6250-2.0000-31.2500q2 = SV/BT0 - 6SVe/BT0^2 =8.7353tf/m2Pvt20.0000-2.0000-0.0000soil pressureside wall (left)-3.1766-1.21133.8480side wall (right)--3.1766-1.2113-3.8480internal water6.0800-2.0000-12.1600uplift0.0000-2.0000-0.0000total34.941069.88206)load against invertActing Load(tf/m2)Pvd1.0800Pvt13.9063Pvt20.0000Wtop0.6645Ws0.9000Pq=6.5508Summary of Load CalculationItemPv1Ph1Ph2PqWswWpwq1Case(tf/m2)(tf/m2)(tf/m2)(tf/m2)(tf/m)(tf/m)(tf/m2)Case.13.56571.20834.95814.46571.20001.20002.4739Case.25.77082.51026.26016.67081.20001.20004.6790Case.33.44570.4350-0.21524.34571.20001.20006.5302Case.45.65081.73691.08686.55081.20001.20008.7353

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MSN4Analysis of Plane FrameCase 1: Box Culvert Inside is Empty, Underground Water up to Top slab, Track load Case. L11) Calculation of Load TermPh1Horizontal Pressure at top of side wall1.208tf/m2Ph2Horizontal Pressure at bottom of side wall4.958tf/m2Ph3Horizontal Pressure at top of side wall1.208tf/m2Ph4Horizontal Pressure at bottom of side wall4.958tf/m2Pv1Vertical Pressure(1) on top slab3.566tf/m2Q1Reaction to bottom slab4.466tf/m2H0Height of plane frame2.250mB0Width of plane frame2.000mt1Thickness of side wall0.250mt2Thickness of top slab0.250mt3Thickness of bottom slab0.250mt4Thickness of partition wall0.250mcUnit weight of reinforcement concrete2.400tf/m3L1Height of side wall2.000mCAB = CFE = (2Ph3+3Ph4)H02/60=1.45893tfmCBA = CEF = (3Ph3+2Ph4)H02/60=1.14253tfmCBC = CCB = CCE = CEC = Pv1B02/12=1.18856tfmCDA = CAD = CFD = CDF = Q1B02/12=1.48856tfmPv1=3.57 tf/m2t2=0.25mt2=0.25mPh1=1.21 tf/m2Ph3=1.21 tf/m2H0=2.25mt1=0.25mt4=0.25mt1=0.25mt3=0.25mt3=0.25mPh2=4.96 tf/m2Ph4=4.96 tf/m2Q1=4.47 tf/m2B0 =2.00mB0 =2.00m2) Calculation of Bending Moment at jointk1=1.0k2 = H0t23/(B0t13)=1.12500k3 = H0t33/(B0t13)=1.12500k4 = H0t43/(H0t13)=1.00000As load has bilateral symmetry, the equation shown below is formed.qA = -qFqB = -qEqC = qD = 0R =02(k1+k3)k1-3k3qACAB - CADPreparatory caculation for qA,qB,Rk12(k1+k2)-3k2qB=CBC - CBAk3k2-2(k2+k3)RC4.250001.00000-3.37500D1.000004.25000-3.37500=-52.10156251.125001.12500-4.50000RBC = B0Pv1/2=3.5657tf-0.029631.00000-3.37500P = t1L1c=1.2000tf/mD10.046024.25000-3.37500=2.68030313960.200001.12500-4.50000C = [CBC - CCB + CDA - CAD + (RBC - B0Q1/2 + P)B0]/3=0.2000tfm4.25000-0.02963-3.375004.250001.00000-3.37500qA-0.02963D21.000000.04602-3.37500=1.46744055181.000004.25000-3.37500qB=0.046021.125000.20000-4.500001.125001.12500-4.50000R0.200004.250001.00000-0.02963By solving above equation, the result is led as shown below;D31.000004.250000.04602=3.35256092291.125001.125000.20000qA=-0.05144R=-0.064347qB=-0.02817qA=D1/DqB=D2/DR=D3/DMAB = -MFE = k1(2qA +qB) - CAB=-1.5900tfmMBA = -MEF = k1(2qB+qA)+CBA=1.0348tfmMBC = -MEC = k2(2qB+qC - 3R) - CBC=-1.0348tfmMCB = -MCE = k2(2qC+qB - 3R)+CCB=1.3740tfmMDA = -MDF = k3(2qD+qA - 3R) - CDA=-1.3293tfmMAD = -MFD = k3 (2qA+ qD - 3R)+CAD=1.5900tfmSMA = MAB + MAD=0.0000tfmo.k.SMB = MBA + MBC=0.0000tfmo.k.MCD = k4(2qC+qD)=0.0000tfmMDC = k4(2qD+qC)=0.0000tfm2) Calculation of Design Force2-1) Side Walla)Shearing Force at jointMBA=1.03 tf.mw1Load at end A4.958tf/m2w2=1.21 tf/m2w2Load at end B1.208tf/m2MABBending moment at end A-1.5900tfmMBABending moment at end B1.0348tfmL=2.25 mLLength of member2.250mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mw1=4.96 tf/m2SAB = (2w1+w2)L/6 - (MAB+MBA)/L=4.4185tfMAB=-1.59 tf.mSBA = SAB - L(w1+w2)/2=-2.5187tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SAB - w1x - (w2 - w1)x2/(2L)(i) In case of x1 =0.4mSx1=2.5685tf(ii) In case of x2 =1.85mSx2=-1.9021tfc)Bending MomentMA = MAB=-1.5900tfmMB = -MBA=-1.0348tfmThe maximum bending moment occurs at the point of that shearing force equal to zero.Sx = 0 = SAB - w1x - (w2 - w1)x2/(2L)=4.4184725877-4.9581x+0.8333x^2,x=4.85871.0913Check of SxBending moment at x =1.0913m is;Sx =SAB - w1x - (w2 - w1)x2/(2L)Mmax = SABx - w1x2/2 - (w2-w1)x3/(6L) + MAB=0.6405tfm=0.000tf2-2) Top Slaba)Shearing Force at jointw1Uniform load on top slab3.566tf/m2w1=3.57 tf/m2MBCBending moment at end B-1.0348tfmMCBBending moment at end C1.3740tfmLLength of member2.000mchProtective covering height0.050mMBC =tThickness of member (height)0.250m-1.03 tf.mMCB =dEffective height of member0.200m1.37 tf.mSBC = w1L/2-(MBC+MCB)/L=3.3960tfL=2.00 mSCB = SBC -w1L=-3.7353tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SBC- w1x(i) In case of x1 =0.400mSx1=1.9698tf(ii) In case of x2 =1.6mSx2=-2.3090tfc)Bending MomentMB = MBC=-1.0348tfmMC = -MCB=-1.3740tfmSx = SBC - w1x=3.39603-3.566x=0,x=0.9524Check of SxBending moment at x =0.9524m is;Sx =SBC- w1xMmax = SBCx - w1x2/2 + MBC=0.58247tfm=0.000tf2-3) Invert (Bottom Slab)a)Shearing Force at jointw1Reaction to bottom slab4.466tf/m2L=2.00 mMDABending moment at end D-1.3293tfmMADBending moment at end A1.5900tfmLLength of member2.000mchProtective covering height0.050mtThickness of member (height)0.250mMAD =MDA =dEffective height of member0.200m1.59 tf.m-1.33 tf.mw1=4.47 tf/m2SDA = w1L/2 - (MDA+MAD)/L=4.3353tfSAD = SDA - Lw1=-4.5960tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SDA- w1x(i) In case of x1 =0.400mSx1=2.5490tf(ii) In case of x2 =1.600mSx2=-2.80976tfc)Bending MomentMD = MDA=-1.3293tfmMA = -MAD=-1.5900tfmSx = SDA - w1x=4.33531-4.466x=0,x=0.9708Check of SxBending moment at x =0.9708mis;Sx =SDA- w1xMmax = SDAx - w1x2/2 + MDA=0.7751tfm=0.000tf2-4) Partition Walla)Shearing Force at jointw1Load at end C0.000tf/m2w2Load at end D0.000tf/m2MCDBending moment at end C0.000tfmMDCBending moment at end D0.000tfmLLength of member2.250mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mSCD = w1L/2 - (MCD+MDC)/L=0.000tfSDC = SCD - Lw1=0.000tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SCD- w1x(i) In case of x1 =0.400mSx1=0tf(ii) In case of x2 =1.850mSx2=0tfc)Bending MomentMC = MCD=0.0000tfmMD = -MDC=0.0000tfmSx = SCD - w1x=0.000-0.000x=0,x=-Check of SxBending moment at x =1.1250mis;Sx =SCD- w1xMmax = SCDx - w1x2/2 + MCD=0.000tfm=0.000tfCase 2: Box Culvert Inside is Empty, Underground Water up to Top slab, Track load Case. L21) Calculation of Load TermPh1Horizontal Pressure at top of side wall2.510tf/m2Ph2Horizontal Pressure at bottom of side wall6.260tf/m2Ph3Horizontal Pressure at top of side wall2.510tf/m2Ph4Horizontal Pressure at bottom of side wall6.260tf/m2Pv1Vertical Pressure(1) on top slab5.771tf/m2Q1Reaction to bottom slab6.671tf/m2H0Height of plane frame2.250mB0Width of plane frame2.000mt1Thickness of side wall0.250mt2Thickness of top slab0.250mt3Thickness of bottom slab0.250mt4Thickness of partition wall0.250mcUnit weight of reinforcement concrete2.400tf/m3L1Height of side wall2.000mCAB = CFE = (2Ph3+3Ph4)H02/60=2.0082tfmCBA = CEF = (3Ph3+2Ph4)H02/60=1.6918tfmCBC = CCB = CCE = CEC = Pv1B02/12=1.9236tfmCDA = CAD = CFD = CDF = Q1B02/12=2.2236tfmPv1=5.77 tf/m2t2=0.25mt2=0.25mPh1=2.51 tf/m2Ph3 =2.51 tf/m2H0=2.25mt1=0.25mt4=0.25mt1=0.25mt3=0.25mt3=0.25mPh2 =6.26 tf/m2Ph4 =6.26 tf/m2Q1=6.67 tf/m2B0 =2.00mB0 =2.00m2) Calculation of Bending Moment at jointk1=1.0k2 = H0t23/(B0t13)=1.12500k3 = H0t33/(B0t13)=1.12500k4 = H0t43/(H0t13)=1.00000As load has bilateral symmetry, the equation shown below is formed.qA = -qFqB = -qEqC = qD = 0R =02(k1+k3)k1-3k3qACAB - CADPreparatory caculation for qA,qB,Rk12(k1+k2)-3k2qB=CBC - CBAk3k2-2(k2+k3)RC4.250001.00000-3.37500D1.000004.25000-3.37500=-52.10156251.125001.12500-4.50000RBC = B0Pv1/2=5.7708tf-0.215401.00000-3.37500P = t1L1c=1.2000tf/mD10.231794.25000-3.37500=5.65834135530.200001.12500-4.50000C = [CBC - CCB + CDA - CAD + (RBC - B0Q1/2 + P)B0]/3=0.2000tfm4.25000-0.21540-3.375004.250001.00000-3.37500qA-0.2154D21.000000.23179-3.37500=-1.51059766391.000004.25000-3.37500qB=0.23181.125000.20000-4.500001.125001.12500-4.50000R0.20004.250001.00000-0.21540By solving above equation, the result is led as shown below;D31.000004.250000.23179=3.35256092291.125001.125000.20000qA=-0.1086R=-0.0643qB=0.0290qA=D1/DqB=D2/DR=D3/DMAB = -MFE = k1(2qA +qB) - CAB=-2.1964tfmMBA = -MEF = k1(2qB+qA)+CBA=1.6412tfmMBC = -MEC = k2(2qB+qC - 3R) - CBC=-1.6412tfmMCB = -MCE = k2(2qC+qB - 3R)+CCB=2.1734tfmMDA = -MDF = k3(2qD+qA - 3R) - CDA=-2.1286tfmMAD = -MFD = k3 (2qA+ qD - 3R)+CAD=2.1964tfmSMA = MAB + MAD=0.0000tfmo.k.SMB = MBA + MBC=0.0000tfmo.k.MCD = k4(2qC+qD)=0.0000tfmMDC = k4(2qD+qC)=0.0000tfm2) Calculation of Design Force2-1) Side Walla)Shearing Force at jointMBA=1.64 tf.mw1Load at end A6.260tf/m2w2=2.51 tf/m2w2Load at end B2.510tf/m2MABBending moment at end A-2.1964tfmMBABending moment at end B1.6412tfmL=2.25 mLLength of member2.250mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mw1=6.26 tf/m2SAB = (2w1+w2)L/6 - (MAB+MBA)/L=5.8832tfMAB=-2.20 tf.mSBA = SAB - L(w1+w2)/2=-3.9834tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SAB - w1x - (w2 - w1)x2/(2L)(i) In case of x1 =0.4mSx1=3.5125tf(ii) In case of x2 =1.85mSx2=-2.8460tfc)Bending MomentMA = MAB=-2.1964tfmMB = -MBA=-1.6412tfmThe maximum bending moment occurs at the point of that shearing force equal to zero.Sx = 0 = SAB - w1x - (w2 - w1)x2/(2L)=5.8831698533-6.2601x+0.83330x^2,x=6.41121.1012Check of SxBending moment at x =1.1012m is;Sx =SAB - w1x - (w2 - w1)x2/(2L)Mmax = SABx - w1x2/2 - (w2-w1)x3/(6L) + MAB=0.8574tfm=0.000tf2-2) Top Slaba)Shearing Force at jointw1Uniform load on top slab5.771tf/m2w1=5.77 tf/m2MBCBending moment at end B-1.6412tfmMCBBending moment at end C2.1734tfmLLength of member2.000mchProtective covering height0.050mMBC =tThickness of member (height)0.250m-1.64 tf.mMCB =dEffective height of member0.200m2.17 tf.mSBC = w1L/2-(MBC+MCB)/L=5.5047tfL=2.00 mSCB = SBC -w1L=-6.0368tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SBC- w1x(i) In case of x1 =0.400mSx1=3.1964tf(ii) In case of x2 =1.6mSx2=-3.7285tfc)Bending MomentMB = MBC=-1.6412tfmMC = -MCB=-2.1734tfmSx = SBC - w1x=5.50465-5.771x=0,x=0.9539Check of SxBending moment at x =0.9539m is;Sx =SBC- w1xMmax = SBCx - w1x2/2 + MBC=0.9842tfm=0.000tf2-3) Invert (Bottom Slab)a)Shearing Force at jointw1Reaction to bottom slab6.671tf/m2L=2.00 mMDABending moment at end D-2.1286tfmMADBending moment at end A2.1964tfmLLength of member2.000mchProtective covering height0.050mtThickness of member (height)0.250mMAD =MDA =dEffective height of member0.200m2.20 tf.m-2.13 tf.mw1=6.67 tf/m2SDA = w1L/2 - (MDA+MAD)/L=6.6368tfSAD = SDA - Lw1=-6.7047tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SDA- w1x(i) In case of x1 =0.400mSx1=3.9685tf(ii) In case of x2 =1.600mSx2=-4.03635tfc)Bending MomentMD = MDA=-2.1286tfmMA = -MAD=-2.1964tfmSx = SDA - w1x=6.6368-6.671x=0,x=0.9949Check of SxBending moment at x =0.9949mis;Sx =SDA- w1xMmax = SDAx - w1x2/2 + MDA=1.1730tfm=0.000tf2-4) Partition Walla)Shearing Force at jointw1Load at end C0.000tf/m2w2Load at end D0.000tf/m2MCDBending moment at end C0.000tfmMDCBending moment at end D0.000tfmLLength of member2.250mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mSCD = w1L/2 - (MCD+MDC)/L=0tfSDC = SCD - Lw1=0tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SCD- w1x(i) In case of x1 =0.400mSx1=0.000tf(ii) In case of x2 =1.850mSx2=0.000tfc)Bending MomentMC = MCD=0.00000tfmMD = -MDC=0.00000tfmSx = SCD - w1x=0-0.000x=0,x=-Check of SxBending moment at x =1.1250mis;Sx =SCD- w1xMmax = SCDx - w1x2/2 + MCD=0.000tfm=0.000tfCase 3: Box Culvert Inside is Full, Underground Water up to invert, Track load Case. L11) Calculation of Load TermPh1Horizontal Pressure at top of side wall0.435tf/m2Ph2Horizontal Pressure at bottom of side wall-0.215tf/m2Ph3Horizontal Pressure at top of side wall0.435tf/m2Ph4Horizontal Pressure at bottom of side wall-0.215tf/m2Pv1Vertical Pressure(1) on top slab3.446tf/m2Q1Reaction to bottom slab4.346tf/m2H0Height of plane frame2.250mB0Width of plane frame2.000mt1Thickness of side wall0.250mt2Thickness of top slab0.250mt3Thickness of bottom slab0.250mt4Thickness of partition wall0.250mcUnit weight of reinforcement concrete2.400tf/m3L1Height of side wall2.000mCAB = CFE = (2Ph3+3Ph4)H02/60=0.01893tfmCBA = CEF = (3Ph3+2Ph4)H02/60=0.07379tfmCBC = CCB = CCE = CEC = Pv1B02/12=1.14856tfmCDA = CAD = CFD = CDF = Q1B02/12=1.44856tfmPv1=3.45 tf/m2t2=0.25mt2=0.25mPh1=0.43 tf/m2Ph3 =0.43 tf/m2H0=2.25mt1=0.25mt4=0.25mt1=0.25mt3=0.25mt3=0.25mPh2 =-0.22 tf/m2Ph4 =-0.22 tf/m2Q1=4.35 tf/m2B0 =2.00mB0 =2.00m2) Calculation of Bending Moment at jointk1=1.0k2 = H0t23/(B0t13)=1.12500k3 = H0t33/(B0t13)=1.12500k4 = H0t43/(H0t13)=1.00000As load has bilateral symmetry, the equation shown below is formed.qA = -qFqB = -qEqC = qD = 0R =02(k1+k3)k1-3k3qACAB - CADPreparatory caculation for qA,qB,Rk12(k1+k2)-3k2qB=CBC - CBAk3k2-2(k2+k3)RC4.250001.00000-3.37500D1.000004.25000-3.37500=-52.10156251.125001.12500-4.50000RBC = B0Pv1/2=3.445671875tf-1.429631.00000-3.37500P = t1L1c=1.20000tf/mD11.074774.25000-3.37500=24.86292531590.200001.12500-4.50000C = [CBC - CCB + CDA - CAD + (RBC - B0Q1/2 + P)B0]/3=0.2tfm4.25000-1.42963-3.375004.250001.00000-3.37500qA-1.42963D21.000001.07477-3.37500=-15.28566888431.000004.25000-3.37500qB=1.074771.125000.20000-4.500001.125001.12500-4.50000R0.200004.250001.00000-1.42963By solving above equation, the result is led as shown below;D31.000004.250001.07477=4.70993910791.125001.125000.20000qA=-0.47720R=-0.09040qB=0.29338qA=D1/DqB=D2/DR=D3/DMAB = -MFE = k1(2qA +qB) - CAB=-0.6800tfmMBA = -MEF = k1(2qB+qA)+CBA=0.1834tfmMBC = -MEC = k2(2qB+qC - 3R) - CBC=-0.1834tfmMCB = -MCE = k2(2qC+qB - 3R)+CCB=1.7837tfmMDA = -MDF = k3(2qD+qA - 3R) - CDA=-1.6803tfmMAD = -MFD = k3 (2qA+ qD - 3R)+CAD=0.6800tfmSMA = MAB + MAD=0.0000tfmo.k.SMB = MBA + MBC=0.0000tfmo.k.MCD = k4(2qC+qD)=0.0000tfmMDC = k4(2qD+qC)=0.0000tfm2) Calculation of Design Force2-1) Side Walla)Shearing Force at jointMBA=0.18 tf.mw1Load at end A-0.215tf/m2w2=0.43 tf/m2w2Load at end B0.435tf/m2MABBending moment at end A-0.6800tfmMBABending moment at end B0.1834tfmLLength of member2.250mL=2.25 mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mw1=-0.22 tf/m2SAB = (2w1+w2)L/6 - (MAB+MBA)/L=0.2224tfMAB=-0.68 tf.mSBA = SAB - L(w1+w2)/2=-0.0248tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SAB - w1x - (w2 - w1)x2/(2L)(i) In case of x1 =0.4mSx1=0.2854tf(ii) In case of x2 =1.85mSx2=0.1261tfc)Bending MomentMA = MAB=-0.6800tfmMB = -MBA=-0.1834tfmThe maximum bending moment occurs at the point of that shearing force equal to zero.Sx = 0 = SAB - w1x - (w2 - w1)x2/(2L)=0.22243673250.2152x+-0.14447x^2,x=-0.7022.192Check of SxBending moment at x =2.1918m is;Sx =SAB - w1x - (w2 - w1)x2/(2L)Mmax = SABx - w1x2/2 - (w2-w1)x3/(6L) + MAB=-0.1826tfm=0.000tf2-2) Top Slaba)Shearing Force at jointw1Uniform load on top slab3.446tf/m2w1=3.45 tf/m2MBCBending moment at end B-0.1834tfmMCBBending moment at end C1.7837tfmLLength of member2.000mchProtective covering height0.050mMBC =tThickness of member (height)0.250m-0.18 tf.mMCB =dEffective height of member0.200m1.78 tf.mSBC = w1L/2-(MBC+MCB)/L=2.6455tfL=2.00 mSCB = SBC -w1L=-4.2459tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SBC- w1x(i) In case of x1 =0.400mSx1=1.2672tf(ii) In case of x2 =1.6mSx2=-2.8676tfc)Bending MomentMB = MBC=-0.1834tfmMC = -MCB=-1.7837tfmSx = SBC - w1x=2.6455-3.446x=0,x=0.7678Check of SxBending moment at x =0.7678m is;Sx =SBC- w1xMmax = SBCx - w1x2/2 + MBC=0.8322tfm=0.000tf2-3) Invert (Bottom Slab)a)Shearing Force at jointw1Reaction to bottom slab4.346tf/m2L=2.00 mMDABending moment at end B-1.6803tfmMADBending moment at end C0.6800tfmLLength of member2.000mchProtective covering height0.050mtThickness of member (height)0.250mMAD =MDA =dEffective height of member0.200m0.68 tf.m-1.68 tf.mw1=4.35 tf/m2SDA = w1L/2 - (MDA+MAD)/L=4.8459tfSAD = SDA - Lw1=-3.8455tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SDA- w1x(i) In case of x1 =0.400mSx1=3.1076tf(ii) In case of x2 =1.600mSx2=-2.1072tfc)Bending MomentMD = MDA=-1.6803tfmMA = -MAD=-0.6800tfmSx = SDA - w1x=4.84585-4.346x=0,x=1.1151Check of SxBending moment at x =1.1151mis;Sx =SDA- w1xMmax = SDAx - w1x2/2 + MDA=1.0215tfm=0.000tf2-4) Partition Walla)Shearing Force at jointw1Load at end C0.000tf/m2w2Load at end D0.000tf/m2MCDBending moment at end C0.000tfmMDCBending moment at end D0.000tfmLLength of member2.250mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mSCD = w1L/2 - (MCD+MDC)/L=0tfSDC = SCD - Lw1=0tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SCD- w1x(i) In case of x1 =0.400mSx1=0tf(ii) In case of x2 =1.850mSx2=0tfc)Bending MomentMC = MCD=0.00000tfmMD = -MDC=0.00000tfmSx = SCD - w1x=0-0.000x=0,x=-Check of SxBending moment at x =1.1250mis;Sx =SCD- w1xMmax = SCDx - w1x2/2 + MCD=0tfm=0.000tfCase 4: Box Culvert Inside is Full, Underground Water up to invert, Track load Case. L21) Calculation of Load TermPh1Horizontal Pressure at top of side wall1.737tf/m2Ph2Horizontal Pressure at bottom of side wall1.087tf/m2Ph3Horizontal Pressure at top of side wall1.737tf/m2Ph4Horizontal Pressure at bottom of side wall1.087tf/m2Pv1Vertical Pressure(1) on top slab5.651tf/m2Q1Reaction to bottom slab6.551tf/m2H0Height of plane frame2.250mB0Width of plane frame2.000mt1Thickness of side wall0.250mt2Thickness of top slab0.250mt3Thickness of bottom slab0.250mt4Thickness of partition wall0.250mcUnit weight of reinforcement concrete2.400tf/m3L1Height of side wall2.000mCAB = CFE = (2Ph3+3Ph4)H02/60=0.56819tfmCBA = CEF = (3Ph3+2Ph4)H02/60=0.62305tfmCBC = CCB = CCE = CEC = Pv1B02/12=1.88358tfmCDA = CAD = CFD = CDF = Q1B02/12=2.18358tfmPv1=5.65 tf/m2t2=0.25mt2=0.25mPh1=1.74 tf/m2Ph3 =1.74 tf/m2H0=2.25mt1=0.25mt4=0.25mt1=0.25mt3=0.25mt3=0.25mPh2 =1.09 tf/m2Ph4 =1.09 tf/m2Q1=6.55 tf/m2B0 =2.00mB0 =2.00m2) Calculation of Bending Moment at jointk1=1.0k2 = H0t23/(B0t13)=1.12500k3 = H0t33/(B0t13)=1.12500k4 = H0t43/(H0t13)=1.00000As load has bilateral symmetry, the equation shown below is formed.qA = -qFqB = -qEqC = qD = 0R =02(k1+k3)k1-3k3qACAB - CADPreparatory caculation for A,B,Rk12(k1+k2)-3k2qB=CBC - CBAk3k2-2(k2+k3)RC4.250001.00000-3.37500D1.000004.25000-3.37500=-52.10156251.125001.12500-4.50000RBC = B0Pv1/2=5.6508tf-1.615391.00000-3.37500P = t1L1c=1.2000tf/mD11.260534.25000-3.37500=27.84096353160.200001.12500-4.50000C = [CBC - CCB + CDA - CAD + (RBC - B0Q1/2 + P)B0]/3=0.2tfm4.25000-1.61539-3.375004.250001.00000-3.37500qA-1.61539D21.000001.26053-3.37500=-18.26370709991.000004.25000-3.37500qB=1.260531.125000.20000-4.500001.125001.12500-4.50000R0.200004.250001.00000-1.61539By solving above equation, the result is led as shown below;D31.000004.250001.26053=4.70993910791.125001.125000.20000qA=-0.53436R=-0.09040qB=0.35054qA=D1/DqB=D2/DR=D3/DMAB = -MFE = k1(2qA +qB) - CAB=-1.2864tfmMBA = -MEF = k1(2qB+qA)+CBA=0.7898tfmMBC = -MEC = k2(2qB+qC - 3R) - CBC=-0.7898tfmMCB = -MCE = k2(2qC+qB - 3R)+CCB=2.5830tfmMDA = -MDF = k3(2qD+qA - 3R) - CDA=-2.4796tfmMAD = -MFD = k3 (2qA+ qD - 3R)+CAD=1.2864tfmSMA = MAB + MAD=0.0000tfmo.k.SMB = MBA + MBC=0.0000tfmo.k.MCD = k4(2qC+qD)=0.0000tfmMDC = k4(2qD+qC)=0.0000tfm2) Calculation of Design Force2-1) Side Walla)Shearing Force at jointMBA=0.79 tf.mw1Load at end A1.087tf/m2w2=1.74 tf/m2w2Load at end B1.737tf/m2MABBending moment at end A-1.2864tfmMBABending moment at end B0.7898tfmLLength of member2.250mL=2.25 mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mw1=1.09 tf/m2SAB = (2w1+w2)L/6 - (MAB+MBA)/L=1.6871tfMAB=-1.29 tf.mSBA = SAB - L(w1+w2)/2=-1.4895tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SAB - w1x - (w2 - w1)x2/(2L)(i) In case of x1 =0.4mSx1=1.2293tf(ii) In case of x2 =1.85mSx2=-0.8179tfc)Bending MomentMA = MAB=-1.28637tfmMB = -MBA=-0.78977tfmThe maximum bending moment occurs at the point of that shearing force equal to zero.Sx = 0 = SAB - w1x - (w2 - w1)x2/(2L)=1.6871339981-1.0868x+-0.14447x^2,x=-8.8431.321Check of SxBending moment at x =1.3206m is;Sx =SAB - w1x - (w2 - w1)x2/(2L)Mmax = SABx - w1x2/2 - (w2-w1)x3/(6L) + MAB=-0.1169tfm=0.000tf2-2) Top Slaba)Shearing Force at jointw1Uniform load on top slab5.651tf/m2w1=5.65 tf/m2MBCBending moment at end B-0.7898tfmMCBBending moment at end C2.5830tfmLLength of member2.000mchProtective covering height0.050mMBC =tThickness of member (height)0.250m-0.79 tf.mMCB =dEffective height of member0.200m2.58 tf.mSBC = w1L/2-(MBC+MCB)/L=4.7541tfL=2.00 mSCB = SBC -w1L=-6.5474tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SBC- w1x(i) In case of x1 =0.400mSx1=2.4938tf(ii) In case of x2 =1.6mSx2=-4.2871tfc)Bending MomentMB = MBC=-0.7898tfmMC = -MCB=-2.5830tfmSx = SBC - w1x=4.7541-5.651x=0,x=0.8413Check of SxBending moment at x =0.8413m is;Sx =SBC- w1xMmax = SBCx - w1x2/2 + MBC=1.2101tfm=0.000tf2-3) Invert (Bottom Slab)a)Shearing Force at jointw1Reaction to bottom slab6.551tf/m2L=2.00 mMDABending moment at end B-2.4796tfmMADBending moment at end C1.2864tfmLLength of member2.000mchProtective covering height0.050mtThickness of member (height)0.250mMAD =MDA =dEffective height of member0.200m1.29 tf.m-2.48 tf.mw1=6.55 tf/m2SDA = w1L/2 - (MDA+MAD)/L=7.1474tfSAD = SDA - Lw1=-5.9541tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SDA- w1x(i) In case of x1 =0.400mSx1=4.5271tf(ii) In case of x2 =1.600mSx2=-3.3338tfc)Bending MomentMD = MDA=-2.4796tfmMA = -MAD=-1.2864tfmSx = SDA - w1x=7.14738-6.551x=0,x=1.0911Check of SxBending moment at x =1.0911mis;Sx =SDA- w1xMmax = SDAx - w1x2/2 + MDA=1.41954tfm=0.000tf2-4) Partition Walla)Shearing Force at jointw1Load at end C0.000tf/m2w2Load at end D0.000tf/m2MCDBending moment at end C0.000tfmMDCBending moment at end D0.000tfmLLength of member2.250mchProtective covering height0.050mtThickness of member (height)0.250mdEffective height of member0.200mSCD = w1L/2 - (MCD+MDC)/L=0tfSDC = SCD - Lw1=0tfb)Shearing Force at 2d point from jointShearing force at the point with a distance of 2d from joint is calculated by following equation.Sx = SCD- w1x(i) In case of x1 =0.400mSx1=0tf(ii) In case of x2 =1.850mSx2=0tfc)Bending MomentMC = MCD=0.00000tfmMD = -MDC=0.00000tfmSx = SCD - w1x=0-0.000x=0,x=-Check of SxBending moment at x =1.1250mis;Sx =SCD- w1xMmax = SCDx - w1x2/2 + MCD=0tfm=0.000tf

&C&"Times New Roman,"&9&P/&N&R&"Times New Roman,"&9(2)&F, &AABw1w1xw1w1xBCxDABACDEFBACDEFBACDEFBACDEFxw1w1xDABACDEFBACDEFABw1w1xw1w1BACDEFBACDEFABw1w1xw1w1xDAABw1w1xw1w1xBCxDAxBCxDAxDAxBCxDA

Sum MSNSummary of Internal forcesMemberCaseCheck PointMNS (tf)(tfm)(tf)at jointat 2dCase.1Case.2Case.3Case.4Side wallA-1.5904.5964.4182.569joint4.4184735.8831700.2224371.687134(left)Case.1Middle0.6404.0140.000-2d2.5685473.5124630.2853921.229308B-1.0353.396-2.519-1.902joint2.5187503.9834470.0248141.489511A-2.1966.7055.8833.5122d1.9021082.8460240.1260530.817863Case.2Middle0.8576.1170.000-B-1.6415.505-3.983-2.846A-0.6803.8450.2220.285Case.3Middle-0.1832.6770.000-B-0.1832.645-0.0250.126A-1.2865.9541.6871.229Case.4Middle-0.1175.2500.000-B-0.7904.754-1.490-0.818Top slabB-1.0352.5193.3961.970joint3.3960305.5046542.6454924.754116(left)Case.1Middle0.5822.5190.000-2d1.9697623.1963541.2672232.493816C-1.3742.519-3.735-2.309joint3.7353136.0368464.2458526.547384B-1.6413.9835.5053.1962d2.3090453.7285462.8675834.287084Case.2Middle0.9843.9830.000-C-2.1733.983-6.037-3.729B-0.1830.0252.6451.267Case.3Middle0.8320.0250.000-C-1.7840.025-4.246-2.868B-0.7900.0254.7542.494Case.4Middle1.2100.0250.000-C-2.5830.025-6.547-4.287PartitionC0.0007.4710.0000.000joint0.0000000.0000000.0000000.000000wallCase.1Middle0.0008.0710.000-2d0.0000000.0000000.0000000.000000D0.0008.6710.0000.000joint0.0000000.0000000.0000000.000000C0.00012.0740.0000.0002d0.0000000.0000000.0000000.000000Case.2Middle0.00012.6740.000-D0.00013.2740.0000.000C0.0008.4920.0000.000Case.3Middle0.0009.0920.000-D0.0009.6920.0000.000C0.00013.0950.0000.000Case.4Middle0.00013.6950.000-D0.00014.2950.0000.000InvertD-1.3294.4184.3352.549joint4.3353136.6368464.8458527.147384(left)Case.1Middle0.7754.4180.000-2d2.5490453.9685463.1075834.527084A-1.5904.418-4.596-2.810joint4.5960306.7046543.8454925.954116D-2.1295.8836.6373.9692d2.8097624.0363542.1072233.333816Case.2Middle1.1735.8830.000-A-2.1965.883-6.705-4.036D-1.6800.2224.8463.108Case.3Middle1.0210.2220.000-A-0.6800.222-3.845-2.107D-2.4801.6877.1474.527Case.4Middle1.4201.6870.000-A-1.2861.687-5.954-3.334MemberCaseCheck PointMNS (tf)(tfm)(tf)at jointat 2dTop slabC-1.3742.5193.7352.309joint3.7353136.0368464.2458526.547384(right)Case.1Middle0.5822.5190.000-2d2.3090453.7285462.8675834.287084E-1.0352.519-3.396-1.970joint3.3960305.5046542.6454924.754116C-2.1733.9836.0373.7292d1.9697623.1963541.2672232.493816Case.2Middle0.9843.9830.000-E-1.6413.983-5.505-3.196C-1.7840.0254.2462.868Case.3Middle0.8320.0250.000-E-0.1830.025-2.645-1.267C-2.5830.0256.5474.287Case.4Middle1.2100.0250.000-E-0.7900.025-4.754-2.494Side wallE-1.0353.3962.5191.902joint2.5187503.9834470.0248141.489511(right)Case.1Middle0.6404.0140.000-2d1.9021082.8460240.1260530.817863F-1.5904.596-4.418-2.569joint4.4184735.8831700.2224371.687134E-1.6415.5053.9832.8462d2.5685473.5124630.2853921.229308Case.2Middle0.8576.117-0.000-F-2.1966.705-5.883-3.512E-0.1832.6450.025-0.126Case.3Middle-0.1832.6770.000-F-0.6803.845-0.222-0.285E-0.7904.7541.4900.818Case.4Middle-0.1175.250-0.000-F-1.2865.954-1.687-1.229InvertF-1.5904.4184.5962.810joint4.5960306.7046543.8454925.954116(right)Case.1Middle0.7754.4180.000-2d2.8097624.0363542.1072233.333816D-1.3294.418-4.335-2.549joint4.3353136.6368464.8458527.147384F-2.1965.8836.7054.0362d2.5490453.9685463.1075834.527084Case.2Middle1.1735.8830.000-D-2.1295.883-6.637-3.969F-0.6800.2223.8452.107Case.3Middle1.0210.2220.000-D-1.6800.222-4.846-3.108F-1.2861.6875.9543.334Case.4Middle1.4201.6870.000-D-2.4801.687-7.147-4.527

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R-bar req5Calculation of Required Reinforcement Bar5-1Calculation of Required Reinforcement Bar1)At Joint "A"of side wallCase.1M=1.5900tfmsca =60kgf/m2h =25cm (height of member)N=4.5960tfssa =1400kgf/m2d =20cm (effective height of member)S0=4.4185tfn =24d' =5cm (protective covering depth)S2d=2.5685tfc =7.50cm (distance from neutral axis)b =100cme = M/N =34.5946cmSolving the fomula shown below, sc =31.3325kgf/cm2(0.0000003029kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+72.99sc^2-1692.85sc-49374.67s = nsc/(nsc+ssa) =0.3494Asreq = (sc*s/2 - N/(bd))bd/ssa =4.5376cm2Case.2M=2.1964tfmsca =60kgf/m2h =25cm (height of member)N=6.7047tfssa =1400kgf/m2d =20cm (effective height of member)S0=5.8832tfn =24d' =5cm (protective covering depth)S2d=3.5125tfc =7.50cm (distance from neutral axis)b =100cme = M/N =32.7593cmSolving the fomula shown below, sc =38.9162kgf/cm2(0.0000454666kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+67.26sc^2-2361.84sc-68887.05s = nsc/(nsc+ssa) =0.4002Asreq = (sc*s/2 - N/(bd))bd/ssa =6.3346cm2Case.3M=0.6800tfmsca =60kgf/m2h =25cm (height of member)N=3.8455tfssa =1400kgf/m2d =20cm (effective height of member)S0=0.2224tfn =24d' =5cm (protective covering depth)S2d=0.2854tfc =7.50cm (distance from neutral axis)b =100cme = M/N =17.6818cmSolving the fomula shown below, sc =20.4316kgf/cm2(0.0000002274kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+80.24sc^2-847.32sc-24713.45s = nsc/(nsc+ssa) =0.2594Asreq = (sc*s/2 - N/(bd))bd/ssa =1.0389cm2Case.4M=1.2864tfmsca =60kgf/m2h =25cm (height of member)N=5.9541tfssa =1400kgf/m2d =20cm (effective height of member)S0=1.6871tfn =24d' =5cm (protective covering depth)S2d=1.2293tfc =7.50cm (distance from neutral axis)b =100cme = M/N =21.6047cmSolving the fomula shown below, sc =29.2154kgf/cm2(0.0000026242kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+74.5sc^2-1516.31sc-44225.83s = nsc/(nsc+ssa) =0.3337Asreq = (sc*s/2 - N/(bd))bd/ssa =2.7109cm2The maximum requirement of reinforcement bar is6.3346cm2 in Case.2from above calculation.Case.1234Requirement4.53766.33461.03892.7109(cm2)2)At Joint "B"of side wallCase.1M=1.0348tfmsca =60kgf/m2h =25cm (height of member)N=3.3960tfssa =1400kgf/m2d =20cm (effective height of member)S0=2.5187tfn =24d' =5cm (protective covering depth)S2d=1.9021tfc =7.50cm (distance from neutral axis)b =100cme = M/N =30.4697cmSolving the fomula shown below, sc =24.3042kgf/cm2(0.0002507842kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+77.83sc^2-1128.28sc-32908.12s = nsc/(nsc+ssa) =0.2941Asreq = (sc*s/2 - N/(bd))bd/ssa =2.6800cm2Case.2M=1.6412tfmsca =60kgf/m2h =25cm (height of member)N=5.5047tfssa =1400kgf/m2d =20cm (effective height of member)S0=3.9834tfn =24d' =5cm (protective covering depth)S2d=2.8460tfc =7.50cm (distance from neutral axis)b =100cme = M/N =29.8144cmSolving the fomula shown below, sc =32.5591kgf/cm2(0.0000000816kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+72.09sc^2-1797.27sc-52420.49s = nsc/(nsc+ssa) =0.3582Asreq = (sc*s/2 - N/(bd))bd/ssa =4.3989cm2Case.3M=0.1834tfmsca =60kgf/m2h =25cm (height of member)N=2.6455tfssa =1400kgf/m2d =20cm (effective height of member)S0=0.0248tfn =24d' =5cm (protective covering depth)S2d=0.1261tfc =7.50cm (distance from neutral axis)b =100cme = M/N =6.9307cmSolving the fomula shown below, sc =11.9223kgf/cm2(0.0000006127kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+84.64sc^2-334.04sc-9742.89s = nsc/(nsc+ssa) =0.1697Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2Case.4M=0.7898tfmsca =60kgf/m2h =25cm (height of member)N=4.7541tfssa =1400kgf/m2d =20cm (effective height of member)S0=1.4895tfn =24d' =5cm (protective covering depth)S2d=0.8179tfc =7.50cm (distance from neutral axis)b =100cme = M/N =16.6123cmSolving the fomula shown below, sc =22.6200kgf/cm2(0.0000000114kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+78.9sc^2-1003.04sc-29255.26s = nsc/(nsc+ssa) =0.2794Asreq = (sc*s/2 - N/(bd))bd/ssa =1.1188cm2The maximum requirement of reinforcement bar is4.3989cm2 in Case.2from above calculation.Case.1234Requirement2.68004.39890.00001.1188(cm2)3)At Joint "B"of top slabCase.1M=1.0348tfmsca =60kgf/m2h =25cm (height of member)N=2.5187tfssa =1400kgf/m2d =20cm (effective height of member)S0=3.3960tfn =24d' =5cm (protective covering depth)S2d=1.9698tfc =7.50cm (distance from neutral axis)b =100cme = M/N =41.0822cmSolving the fomula shown below, sc =23.5376kgf/cm2(0.0004860488kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+78.32sc^2-1070.71sc-31228.95s = nsc/(nsc+ssa) =0.2875Asreq = (sc*s/2 - N/(bd))bd/ssa =3.0344cm2Case.2M=1.6412tfmsca =60kgf/m2h =25cm (height of member)N=3.9834tfssa =1400kgf/m2d =20cm (effective height of member)S0=5.5047tfn =24d' =5cm (protective covering depth)S2d=3.1964tfc =7.50cm (distance from neutral axis)b =100cme = M/N =41.2000cmSolving the fomula shown below, sc =31.3869kgf/cm2(0.0000002861kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+72.95sc^2-1697.44sc-49508.81s = nsc/(nsc+ssa) =0.3498Asreq = (sc*s/2 - N/(bd))bd/ssa =4.9976cm2Case.3M=0.1834tfmsca =60kgf/m2h =25cm (height of member)N=0.0248tfssa =1400kgf/m2d =20cm (effective height of member)S0=2.6455tfn =24d' =5cm (protective covering depth)S2d=1.2672tfc =7.50cm (distance from neutral axis)b =100cme = M/N =738.91cmSolving the fomula shown below, sc =8.0001kgf/cm2(0.0009516341kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+86.11sc^2-162.06sc-4726.74s = nsc/(nsc+ssa) =0.1206Asreq = (sc*s/2 - N/(bd))bd/ssa =0.6715cm2Case.4M=0.7898tfmsca =60kgf/m2h =25cm (height of member)N=0.0248tfssa =1400kgf/m2d =20cm (effective height of member)S0=4.7541tfn =24d' =5cm (protective covering depth)S2d=2.4938tfc =7.50cm (distance from neutral axis)b =100cme = M/N =3182.82cmSolving the fomula shown below, sc =18.1280kgf/cm2(0.000004604kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+81.56sc^2-692.68sc-20203.08s = nsc/(nsc+ssa) =0.2371Asreq = (sc*s/2 - N/(bd))bd/ssa =3.0522cm2The maximum requirement of reinforcement bar is4.9976cm2 in Case.2from above calculation.Case.1234Requirement3.03444.99760.67153.0522(cm2)4)At Joint "A"of invertCase.1M=1.5900tfmsca =60kgf/m2h =25cm (height of member)N=4.4185tfssa =1400kgf/m2d =20cm (effective height of member)S0=4.5960tfn =24d' =5cm (protective covering depth)S2d=2.8098tfc =7.50cm (distance from neutral axis)b =100cme = M/N =35.9848cmSolving the fomula shown below, sc =31.1945kgf/cm2(0.0000003501kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+73.09sc^2-1681.19sc-49034.81s = nsc/(nsc+ssa) =0.3484Asreq = (sc*s/2 - N/(bd))bd/ssa =4.6077cm2Case.2M=2.1964tfmsca =60kgf/m2h =25cm (height of member)N=5.8832tfssa =1400kgf/m2d =20cm (effective height of member)S0=6.7047tfn =24d' =5cm (protective covering depth)S2d=4.0364tfc =7.50cm (distance from neutral axis)b =100cme = M/N =37.3336cmSolving the fomula shown below, sc =38.3259kgf/cm2(0.0000728003kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+67.72sc^2-2307.93sc-67314.67s = nsc/(nsc+ssa) =0.3965Asreq = (sc*s/2 - N/(bd))bd/ssa =6.6523cm2Case.3M=0.6800tfmsca =60kgf/m2h =25cm (height of member)N=0.2224tfssa =1400kgf/m2d =20cm (effective height of member)S0=3.8455tfn =24d' =5cm (protective covering depth)S2d=2.1072tfc =7.50cm (distance from neutral axis)b =100cme = M/N =305.6833cmSolving the fomula shown below, sc =16.8183kgf/cm2(0.0000239535kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+82.28sc^2-609.56sc-17778.70s = nsc/(nsc+ssa) =0.2238Asreq = (sc*s/2 - N/(bd))bd/ssa =2.5295cm2Case.4M=1.2864tfmsca =60kgf/m2h =25cm (height of member)N=1.6871tfssa =1400kgf/m2d =20cm (effective height of member)S0=5.9541tfn =24d' =5cm (protective covering depth)S2d=3.3338tfc =7.50cm (distance from neutral axis)b =100cme = M/N =76.2460cmSolving the fomula shown below, sc =25.7138kgf/cm2(0.0000718588kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+76.9sc^2-1236.29sc-36058.56s = nsc/(nsc+ssa) =0.3059Asreq = (sc*s/2 - N/(bd))bd/ssa =4.4142cm2The maximum requirement of reinforcement bar is6.6523cm2 in Case.2from above calculation.Case.1234Requirement4.60776.65232.52954.4142(cm2)5)At Middle of side wall (between A and B)Case.1M=0.6405tfmsca =60kgf/m2h =25cm (height of member)N=4.0140tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =15.9566cmSolving the fomula shown below, sc =20.0915kgf/cm2(0.0000003577kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+80.44sc^2-823.85sc-24029.00s = nsc/(nsc+ssa) =0.2562Asreq = (sc*s/2 - N/(bd))bd/ssa =0.8094cm2Tensile is on inside of memberCase.2M=0.8574tfmsca =60kgf/m2h =25cm (height of member)N=6.1173tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =14.0166cmSolving the fomula shown below, sc =24.6130kgf/cm2(0.0001914167kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+77.63sc^2-1151.72sc-33591.70s = nsc/(nsc+ssa) =0.2967Asreq = (sc*s/2 - N/(bd))bd/ssa =0.8473cm2Tensile is on inside of memberCase.3M=0.1826tfmsca =60kgf/m2h =25cm (height of member)N=2.6765tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =6.8235cmSolving the fomula shown below, sc =11.9510kgf/cm2(0.00000058kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+84.62sc^2-335.45sc-9783.97s = nsc/(nsc+ssa) =0.1700Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2Tensile is on outside of memberCase.4M=0.1169tfmsca =60kgf/m2h =25cm (height of member)N=5.2498tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =2.2270cmSolving the fomula shown below, sc =14.0580kgf/cm2(0.0006792107kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+83.67sc^2-446.82sc-13032.22s = nsc/(nsc+ssa) =0.1942Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2Tensile is on outside of memberThe maximum requirement of reinforcement bar is0.8473cm2 in Case.2from above calculation.Case.1234Requirement0.80940.8473--(cm2)Sideinsideinsideoutsideoutside6)At Middle of top slab (between B and C)Case.1M=0.5825tfmsca =60kgf/m2h =25cm (height of member)N=2.5187tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =23.1254cmSolving the fomula shown below, sc =17.8538kgf/cm2(0.0000065267kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+81.71sc^2-674.96sc-19686.20s = nsc/(nsc+ssa) =0.2343Asreq = (sc*s/2 - N/(bd))bd/ssa =1.1894cm2Tensile is on inside of memberCase.2M=0.9842tfmsca =60kgf/m2h =25cm (height of member)N=3.9834tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =24.7081cmSolving the fomula shown below, sc =24.2291kgf/cm2(0.0002677035kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+77.88sc^2-1122.62sc-32743.07s = nsc/(nsc+ssa) =0.2935Asreq = (sc*s/2 - N/(bd))bd/ssa =2.2335cm2Tensile is on inside of memberCase.3M=0.8322tfmsca =60kgf/m2h =25cm (height of member)N=0.0248tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =3353.8895cmSolving the fomula shown below, sc =18.6958kgf/cm2(0.0000022224kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+81.24sc^2-729.82sc-21286.39s = nsc/(nsc+ssa) =0.2427Asreq = (sc*s/2 - N/(bd))bd/ssa =3.2235cm2Tensile is on inside of memberCase.4M=1.2101tfmsca =60kgf/m2h =25cm (height of member)N=0.0248tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =4876.8077cmSolving the fomula shown below, sc =23.3996kgf/cm2(0.0005467204kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+78.41sc^2-1060.47sc-30930.45s = nsc/(nsc+ssa) =0.2863Asreq = (sc*s/2 - N/(bd))bd/ssa =4.7674cm2Tensile is on inside of memberThe maximum requirement of reinforcement bar is4.7674cm2 in Case.4from above calculation.Case.1234Requirement1.18942.23353.22354.7674(cm2)Sideinsideinsideinsideinside7)At Middle of invert (between D and A)Case.1M=0.7751tfmsca =60kgf/m2h =25cm (height of member)N=4.4185tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =17.5427cmSolving the fomula shown below, sc =22.1400kgf/cm2(0.0000000222kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+79.2sc^2-968.19sc-28238.90s = nsc/(nsc+ssa) =0.2751Asreq = (sc*s/2 - N/(bd))bd/ssa =1.1948cm2Tensile is on inside of memberCase.2M=1.1730tfmsca =60kgf/m2h =25cm (height of member)N=5.8832tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =19.9377cmSolving the fomula shown below, sc =27.9391kgf/cm2(0.0000090881kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+75.39sc^2-1412.43sc-41195.84s = nsc/(nsc+ssa) =0.3238Asreq = (sc*s/2 - N/(bd))bd/ssa =2.2606cm2Tensile is on inside of memberCase.3M=1.0215tfmsca =60kgf/m2h =25cm (height of member)N=0.2224tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =459.2269cmSolving the fomula shown below, sc =21.3043kgf/cm2(0.0000000701kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+79.71sc^2-908.4sc-26495.01s = nsc/(nsc+ssa) =0.2675Asreq = (sc*s/2 - N/(bd))bd/ssa =3.9120cm2Tensile is on inside of memberCase.4M=1.4195tfmsca =60kgf/m2h =25cm (height of member)N=1.6871tfssa =1400kgf/m2d =20cm (effective height of member)n =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =84.1391cmSolving the fomula shown below, sc =27.1953kgf/cm2(0.0000183862kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+75.9sc^2-1352.82sc-39457.10s = nsc/(nsc+ssa) =0.3180Asreq = (sc*s/2 - N/(bd))bd/ssa =4.9715cm2Tensile is on inside of memberThe maximum requirement of reinforcement bar is4.9715cm2 in Case.4from above calculation.Case.1234Requirement1.19482.26063.91204.9715(cm2)Sideinsideinsideinsideinside8)At Top of partition wall (joint C)Case.1M=1.3740tfmsca =60kgf/m2h =25cm (height of member)N=2.5187tfssa =1400kgf/m2d =20cm (effective height of member)S0=3.7353tfn =24d' =5cm (protective covering depth)S2d=2.3090tfc =7.50cm (distance from neutral axis)b =100cme = M/N =54.5525cmSolving the fomula shown below, sc =27.3793kgf/cm2(0.0000154593kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+75.78sc^2-1367.58sc-39887.73s = nsc/(nsc+ssa) =0.3194Asreq = (sc*s/2 - N/(bd))bd/ssa =4.4479cm2Case.2M=2.1734tfmsca =60kgf/m2h =25cm (height of member)N=3.9834tfssa =1400kgf/m2d =20cm (effective height of member)S0=6.0368tfn =24d' =5cm (protective covering depth)S2d=3.7285tfc =7.50cm (distance from neutral axis)b =100cme = M/N =54.5600cmSolving the fomula shown below, sc =36.7237kgf/cm2(0.0002489747kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+68.96sc^2-2163.11sc-63090.80s = nsc/(nsc+ssa) =0.3863Asreq = (sc*s/2 - N/(bd))bd/ssa =7.2887cm2Case.3M=1.7837tfmsca =60kgf/m2h =25cm (height of member)N=0.0248tfssa =1400kgf/m2d =20cm (effective height of member)S0=4.2459tfn =24d' =5cm (protective covering depth)S2d=2.8676tfc =7.50cm (distance from neutral axis)b =100cme = M/N =7188.4588202266cmSolving the fomula shown below, sc =29.7731kgf/cm2(0.000001504kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+74.11sc^2-1562.37sc-45569.25s = nsc/(nsc+ssa) =0.3379Asreq = (sc*s/2 - N/(bd))bd/ssa =7.1687cm2Case.4M=2.5830tfmsca =60kgf/m2h =25cm (height of member)N=0.0248tfssa =1400kgf/m2d =20cm (effective height of member)S0=6.5474tfn =24d' =5cm (protective covering depth)S2d=4.2871tfc =7.50cm (distance from neutral axis)b =100cme = M/N =10409.8044421029cmSolving the fomula shown below, sc =37.8189kgf/cm2(0.0001082406kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+68.11sc^2-2261.79sc-65968.79s = nsc/(nsc+ssa) =0.3933Asreq = (sc*s/2 - N/(bd))bd/ssa =10.6073cm2The maximum requirement of reinforcement bar is10.6073cm2 in Case.4from above calculation.Case.1234Requirement4.44797.28877.168710.6073(cm2)9)At Bottom of partition wall (joint D)Case.1M=1.3293tfmsca =60kgf/m2h =25cm (height of member)N=4.4185tfssa =1400kgf/m2d =20cm (effective height of member)S0=4.3353tfn =24d' =5cm (protective covering depth)S2d=2.5490tfc =7.50cm (distance from neutral axis)b =100cme = M/N =30.0842cmSolving the fomula shown below, sc =28.4400kgf/cm2(0.0000056076kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+75.05sc^2-1453.07sc-42381.10s = nsc/(nsc+ssa) =0.3278Asreq = (sc*s/2 - N/(bd))bd/ssa =3.5020cm2Case.2M=2.1286tfmsca =60kgf/m2h =25cm (height of member)N=5.8832tfssa =1400kgf/m2d =20cm (effective height of member)S0=6.6368tfn =24d' =5cm (protective covering depth)S2d=3.9685tfc =7.50cm (distance from neutral axis)b =100cme = M/N =36.1810cmSolving the fomula shown below, sc =37.6719kgf/cm2(0.000121245kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+68.23sc^2-2248.6sc-65584.17s = nsc/(nsc+ssa) =0.3924Asreq = (sc*s/2 - N/(bd))bd/ssa =6.3565cm2Case.3M=1.6803tfmsca =60kgf/m2h =25cm (height of member)N=0.2224tfssa =1400kgf/m2d =20cm (effective height of member)S0=4.8459tfn =24d' =5cm (protective covering depth)S2d=3.1076tfc =7.50cm (distance from neutral axis)b =100cme = M/N =755.4109cmSolving the fomula shown below, sc =28.8316kgf/cm2(0.0000038299kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+74.77sc^2-1484.87sc-43308.70s = nsc/(nsc+ssa) =0.3308Asreq = (sc*s/2 - N/(bd))bd/ssa =6.6530cm2Case.4M=2.4796tfmsca =60kgf/m2h =25cm (height of member)N=1.6871tfssa =1400kgf/m2d =20cm (effective height of member)S0=7.1474tfn =24d' =5cm (protective covering depth)S2d=4.5271tfc =7.50cm (distance from neutral axis)b =100cme = M/N =146.9735cmSolving the fomula shown below, sc =38.0243kgf/cm2(0.0000922636kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+67.95sc^2-2280.4sc-66511.77s = nsc/(nsc+ssa) =0.3946Asreq = (sc*s/2 - N/(bd))bd/ssa =9.5128cm2The maximum requirement of reinforcement bar is9.5128cm2 in Case.4from above calculation.Case.1234Requirement3.50206.35656.65309.5128(cm2)10)At Middle of partition wallCase.1M=0.0000tfmsca =60kgf/m2h =25cm (height of member)N=8.0706tfssa =1400kgf/m2d =20cm (effective height of member)S0=0.0000tfn =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =0.0000cmSolving the fomula shown below, sc =15.5007kgf/cm2(0.0001208493kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+82.96sc^2-529.63sc-15447.68s = nsc/(nsc+ssa) =0.2099Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2Case.2M=0.0000tfmsca =60kgf/m2h =25cm (height of member)N=12.6737tfssa =1400kgf/m2d =20cm (effective height of member)S0=0.0000tfn =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =0.0000cmSolving the fomula shown below, sc =20.2061kgf/cm2(0.0000003073kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+80.37sc^2-831.71sc-24258.24s = nsc/(nsc+ssa) =0.2573Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2Case.3M=0.0000tfmsca =60kgf/m2h =25cm (height of member)N=9.0917tfssa =1400kgf/m2d =20cm (effective height of member)S0=0.0000tfn =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =0.0000cmSolving the fomula shown below, sc =16.6097kgf/cm2(0.0000310341kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+82.39sc^2-596.64sc-17402.09s = nsc/(nsc+ssa) =0.2216Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2Case.4M=0.0000tfmsca =60kgf/m2h =25cm (height of member)N=13.6948tfssa =1400kgf/m2d =20cm (effective height of member)S0=0.0000tfn =24d' =5cm (protective covering depth)c =7.50cm (distance from neutral axis)b =100cme = M/N =0.0000cmSolving the fomula shown below, sc =21.1666kgf/cm2(0.0000000845kgf/cm2)o.k.sc^3+{3ssa/(2n) - 3N(e+c)/(bd^2)}sc^2 - 6N(e+c)ssasc/(nbd^2) - 3N(e+c)ssa^2/(n^2bd^2) = 00 = sc^3+79.8sc^2-898.72sc-26212.64s = nsc/(nsc+ssa) =0.2662Asreq = (sc*s/2 - N/(bd))bd/ssa =0.0000cm2The maximum requirement of reinforcement bar is0.0000cm2 in Case.1from above calculation.Case.1234Requirement0.00000.00000.00000.0000(cm2)11)Summary of required reinforcementRequired reinforcement for design is the maximum required reinforcment calculated above in 1) - 4).ItemSide wallSide wallTop slabInvertSide wallTop slabInvertTop slabInvertPar. WallPointbotomtopendendmiddlemiddlemiddlejoint Cjoind DmiddleSideoutsideoutsideoutsideoutsideinsideinsideinsideoutsideoutsidebothCalculation1)2)3)4)5)6)7)8)9)10)Requirment6.33464.39894.99766.65230.84734.76744.971510.60739.51280.0000(cm2)

&C&"Times New Roman,"&9&P/ &N&R&"Times New Roman,"&9(4)&F, &Ad1hdd1hdd1hdd1hdd1hdd1hdd1hdd1hdd1hdd1hd

R-bar stress6 Bar Arrangement and Calculation of StressType: B1.75m x H2.00m x 2Data of Reinforcement BarSide wallTop slabfSectionalPerimeterArrengmentAreaPerimeterbottommiddletopendmiddlejoint CAreaoutsideinsideoutsideoutsideinsideoutside(mm)(cm2)(cm)(cm2)(cm)Bending momentMkgfcm219,64085,745164,118164,118121,011258,[email protected] force (joint)Skgf5,88303,9835,50506,[email protected] force (2d)S2dkgf3,512-2,8463,196-4,[email protected] forceNkgf6,7056,1175,5052,[email protected] of [email protected] depthd'[email protected] [email protected] [email protected] areabdcm2200020002000200020002000192.8355.96919@12522.6847.75Young's modulus [email protected]@25011.3423.88Required R-barAsreqcm26.3350.8474.3994.9984.76710.60719@[email protected] arrangement12@25012@12512@25012@25012@25012@[email protected]@25015.2127.65ReinforcementAscm24.529.054.524.524.529.0522@30012.6723.04Permeter of R-barU15.0830.1615.0815.0815.0830.16254.9097.85425@12539.2762.83M/Necm32.75914.01729.81465.1584876.80810409.80425@15032.7252.36Dist. from neutral [email protected]'[email protected]'262.0280.4242.9472.931791.0135758.3328.04210.05332@12564.3480.42c'-5240.8-5608.1-4857.4-9458.4-635819.6-2715166.232@15053.6267.02x7.0711.837.246.285.607.4032@25032.1740.210.0000.0000.0000.0000.0000.00032@30026.8133.51Calculation Check(check)okokokokokok12@250 + 16@25012,[email protected],[email protected] stresssckgf/cm243.2913.8632.2732.5323.8739.8312,[email protected] stressscakgf/cm260.0060.0060.0060.0060.0060.0012,[email protected],[email protected] stresssskgf/cm21901.24229.821365.971704.021473.191626.4016,[email protected] stressssakgf/cm21400.001400.001400.001400.001400.001400.0016,[email protected],[email protected] stress at jointtkgf/cm22.940.001.992.750.003.2716,[email protected] stresstakgf/cm211.0011.0011.0011.0011.0011.0019,[email protected],[email protected] stress at 2dt2dkgf/cm21.76-1.421.60-2.1419,[email protected] stresst2dakgf/cm25.50-5.505.50-5.5022,[email protected],[email protected] stresstokgf/cm221.510.0014.5620.130.0012.3825,[email protected] stresstoakgf/cm26.506.506.506.506.506.5012@300 + 16@30012,[email protected],[email protected],[email protected] = As/(bd)0.002260.004530.002260.002260.002260.0045312,[email protected] = (2np+(np)^2)^0.5-np0.279560.369930.279560.279560.279560.3699312,[email protected] = 1-k/30.906810.876690.906810.906810.906810.8766916,[email protected],[email protected] MomentMrkgfcm278,512380,599251,930190,960145,123318,46416,[email protected] for compressionMrckgfcm303,090380,599302,794302,983304,193389,13816,[email protected] for Mrccm6.6208.2396.4225.9565.5957.40219,[email protected] for Mrckgf/cm22910.52055.43044.63395.73707.82450.919,[email protected] for tensileMrskgfcm278,512473,674251,930190,960145,123318,46419,[email protected] for Mrscm9.45311.3509.0087.7896.6009.33022,[email protected] for Mrskgf/cm252.376.547.837.228.751.022,[email protected],[email protected] bar (>As/6 and >Asmin)12@25012@25012@25012@25012@25012@250ReinforcementAscm24.524.524.524.524.524.52okokokokokokReinforcement bar for fillet12@25012@[email protected] requirement of reinforcement barAs min =4.5cm2InvertPartition wallendmiddlejoint Dmiddleoutsideinsideoutsideboth sidesBending momentMkgfcm219,640141,954247,9640Shearing force (joint)Skgf6,70507,1470Shearing force (2d)S2dkgf4,036-4,527-Axial forceNkgf5,8831,6871,6878,071Height of memberhcm25252525Covering depthd'cm5555Effective heightdcm20202020Effective widthbcm100100100100Effective areabdcm22000200020002000Young's modulus ration-24242424Required R-barAsreqcm26.6524.9719.5130.000R-bar arrangement12@25012@25012@[email protected] of R-barU15.0815.0830.1615.08M/Necm37.33484.139146.9740.000Dist. from neutral axisccm7.507.507.507.50a'74.5214.9403.4-37.5b'291.8596.52013.148.8c'-5836.3-11929.2-40262.0-976.3x6.866.127.750.000.0000.0000.0000.000(check)okokok0.00000Compressive stresssckgf/cm243.3928.1338.633.23Allowable stressscakgf/cm260.0060.0060.0060.00okokokokTensile stresssskgf/cm21993.051531.261466.890.00Allowable stressssakgf/cm21400.001400.001400.001400.00checkcheckcheck0Shearing stress at jointtkgf/cm23.350.003.570.00Allowable stresstakgf/cm211.0011.0011.0011.00okokokokShearing stress at 2dt2dkgf/cm22.02-2.26-Allowable stresst2dakgf/cm25.50-5.50-ok-ok-Adhesive stresstokgf/cm224.510.0013.520.00Allowable stresstoakgf/cm26.506.506.506.50checkokcheckokp = As/(bd)0.002260.002260.004530.00226k = (2np+(np)^2)^0.5-np0.279560.279560.369930.27956j = 1-k/30.906810.906810.876690.90681Resisting MomentMrkgfcm260,178175,188356,945303,673Mr for compressionMrckgfcm302,865303,278386,481303,673x for Mrccm6.4845.8327.6206.853ss for Mrckgf/cm23001.83497.92339.52762.7Mr for tensileMrskgfcm260,178175,188356,945310,374x for Mrscm9.1517.4149.9229.936sc for Mrskgf/cm249.234.457.457.6Distribution bar (>As/6 and >Asmin)12@25012@25012@[email protected] bar for [email protected] requirement of reinforcement barAs min =4.5cm2

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Plot R-barDATA PLOT PEMBESIANSection of Culvert1. Design Datab1=0.250mb2=1.750mb3=0.250mb4=1.750mh1=0.250mh2=2.000mh3=0.250mfillet =0.150mBb=4.250mHa=2.500md=0.05m2. Data PembesianBottom slab :TumpuanLapanganTulangan bagi :As1 (cm2):O12@250O12@250O12@250As2 (cm2):O12@250O12@250As1 (cm2):O12@125(Tumpuan Tengah)O12@250(Tumpuan Tepi)Side wall :TumpuanLapanganTulangan bagi :As1 (cm2):O12@250O12@125O12@250As2 (cm2):O12@125O12@250As1 (cm2):O12@250(Top wall)Top slab :TumpuanLapanganTulangan bagi :As1 (cm2):O12@250O12@250O12@250As2 (cm2):O12@250O12@250As1 (cm2):O12@125(Tumpuan Tengah)3.Tulangan Miring (fillet) :Partition wall :Bottom slab:O12@250O12@250Top slab:[email protected] Bangunan:Double Box-Culvert Bba.20.a (2.4 m x 1.5 m)Lokasi:. Irrigation Sub-Project

b4b3b1b1b2h3h2h1BbHab4b3b1b1b2h3h2h1BbHaPlot Re-Bar

PlotMomentDATA PLOT MOMENT AND SHEAR FORCE DIAGRAMSection of Culvert1. Design Datab1=0.250mb2=1.750mb3=0.250mb4=1.750mh1=0.250mh2=2.000mh3=0.250mBb=4.000mHa=2.250m2. Result CalculationSide wall (left)MaMmaxMbSaSbNaNbMABMBACase 1-1.5900.640-1.0354.418-2.5194.5963.396-1.590-1.035Case 3-0.680-0.183-0.1830.222-0.0253.8452.645-0.680-0.183Side wall (right)MeMmaxMfSeSfNeNfMEFMFECase 1-1.0350.640-1.5902.519-4.4183.3964.596-1.035-1.590Case 3-0.183-0.183-0.6800.025-0.2222.6453.845-0.183-0.680Top slab (left)MbMmaxMcSbScNbNcMBCMCBCase 1-1.0350.582-1.3743.396-3.7352.5192.519-1.035-1.374Case 3-0.1830.832-1.7842.645-4.2460.0250.025-0.183-1.784Bottom slab (left)MaMmaxMdSaSdNaNdMADMDACase 1-1.5900.775-1.329-4.5964.3354.4184.418-1.590-1.329Case 3-0.6801.021-1.680-3.8454.8460.2220.222-0.680-1.680Partition wallMcMmaxMdScSdNcNdMCDMDCCase 10.0000.0000.0000.0000.0007.4718.6710.0000.000Case 30.0000.0000.0000.0000.0008.4929.6920.0000.000Top slab (right)McMmaxMeScSeNcNeMCEMECCase 1-1.3740.582-1.0353.735-3.3962.5192.519-1.374-1.035Case 3-1.7840.832-0.1834.246-2.6450.0250.025-1.784-0.183Bottom slab (right)MdMmaxMfSdSfNdNfMDFMFDCase 1-1.3290.775-1.590-4.3354.5964.4184.418-1.329-1.590Case 3-1.6801.021-0.680-4.8463.8450.2220.222-1.680-0.6803.Nama Bangunan:Double Box-Culvert Bba.20.a (2.4 m x 1.5 m)Lokasi:. Irrigation Sub-ProjectCase 1Mmaxxx1x2x3x4x5x6x7q1q2Mab =1.091-0.540.160.540.640.490.14-0.384.9581.208Mef =1.159-0.540.160.540.640.490.14-0.381.2084.958Mmaxy1y2y3y4y5y6y7q1Mbc =0.952-0.300.220.510.580.420.05-0.553.566Mad =1.029-0.580.150.600.770.670.28-0.384.466Ha =2.2500.2810.5630.8441.1251.4061.6881.969Bb =2.0000.2500.5000.7501.0001.2501.5001.750xx1x2x3x4x5x6x7Sab2.2503.091.890.83-0.10-0.91-1.58-2.11Case 2Mmaxxx1x2x3x4x5x6x7q1q2Mab =2.192-0.61-0.53-0.44-0.36-0.29-0.23-0.19-0.2150.435Mef =0.058-0.61-0.53-0.44-0.36-0.29-0.23-0.190.435-0.215Mmaxy1y2y3y4y5y6y7q1Mbc =0.7680.370.710.830.740.43-0.09-0.833.446Mad =0.8850.150.700.980.990.730.20-0.604.346Ha =2.2500.2810.5630.8441.1251.4061.6881.969Bb =2.0000.2500.5000.7501.0001.2501.5001.750xx1x2x3x4x5x6x7Sab2.2500.270.300.300.280.240.170.09

b4b3b1b1b2h3h2h1BbHaPlot Moment