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Project: My ProjectResults for Design Section 0: Design section 0
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ANALYSIS AND CHECKING SUMMARY
Summary vs Design Section
Calculation successful1.250.347447.622.71335.431041.4Design section 0
Wall FSCheckReaction (kN/m)(cm)(kN/m)(kN-m/m)
CommentsEmbedmentCritical SupportMax SupportWall DisplaceWall ShearWall MomentDesign section 0
Extended Summary
1041.41041.44.182.71Calculation successful, however iteDesign section 0
(kN-m)(kN-m/m)(cm)(cm)
Wall MomentWall MomentSettlementWall DisplacemeCalculaion Result
1.991.4063.2813.281335.43335.43Design section 0
Stress Ratio FICWall RatioWall RatioWall Ratio(kN)(kN/m)
Wall Concrete ServSTR ShearSTR MomentSTR CombinedWall ShearWall Shear
2.101N/A0.3470.3471342.86447.623.816Design section 0
BasalCapacity Ratio (pRatioSupport CheckReaction (kN)Reaction (kN/m)Stress Ratio FIS
FSSupport GeotechSTR SupportCriticalMax SupportMax SupportWall Reinforcem
1.6671.0561.316N/A1.251.3442.23Design section 0
Heave FSTrue/ActivePassive(Paratie)LengthRotationPassive
HydraulicFSFS MobilizedZcutToe FSToe FSToe FS
Critical Items
52: Right wall5: Stage 50: Design section 08FS 1.0 Req. Embed (Classic) (m)
62: Right wall6: Stage 60: Design section 01.316Toe FS Passive Mob (Paratie)
52: Right wall5: Stage 50: Design section 01.25Toe FS Length (Classic)
52: Right wall5: Stage 50: Design section 01.344Toe FS Rotation (Classic)
52: Right wall5: Stage 50: Design section 02.23Toe FS Passive (Classic)
11: Wall 16: Stage 60: Design section 00.347Support Check STR
11: Wall 16: Stage 60: Design section 00.347Support Check
11: Wall 1N/A0: Design section 0447.62Support Reaction (kN/m)
11: Wall 1N/A0: Design section 01342.86Support Reaction (kN)
12: Right wall6: Stage 60: Design section 04.182Surface Settlements (cm)
N/A2: Right wall6: Stage 60: Design section 02.709Wall Displacements (cm)
112: Right wall5: Stage 50: Design section 0238.609Wall Shear Capacity (kN/m)
112: Right wall5: Stage 50: Design section 01.406Wall Shear Check
112: Right wall5: Stage 50: Design section 0335.43Wall Shear (kN)
112: Right wall5: Stage 50: Design section 0335.43Wall Shear (kN/m)
272: Right wall5: Stage 50: Design section 0317.392Wall Moment Capacity (kN-m/m)
112: Right wall5: Stage 50: Design section 01041.4Wall Moment (kN-m)
112: Right wall5: Stage 50: Design section 01041.4Wall Moment (kN-m/m)
272: Right wall5: Stage 50: Design section 03.281Wall Moment Check
Critical Item IndexCritical WallCritical StageCritical Design SectioCritical Value
Support Results
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21: Wall 16: Stage 60: Design section 00.0823 Support Check STR
21: Wall 16: Stage 60: Design section 00.0823 Support Check
21: Wall 1N/A0: Design section 003 Support Reaction
21: Wall 1N/A0: Design section 003 Support Reaction
11: Wall 16: Stage 60: Design section 00.3472 Support Check STR
11: Wall 16: Stage 60: Design section 00.3472 Support Check
11: Wall 1N/A0: Design section 0447.622 Support Reaction
11: Wall 1N/A0: Design section 01342.862 Support Reaction
01: Wall 14: Stage 40: Design section 00.1171 Support Check STR
01: Wall 14: Stage 40: Design section 00.1171 Support Check
01: Wall 1N/A0: Design section 059.2011 Support Reaction
01: Wall 1N/A0: Design section 0177.6031 Support Reaction
Critical Item IndexCritical WallCritical StageCritical Design SectioCritical Value
Wall Results
112: Right wall5: Stage 50: Design section 0238.609Wall Shear Capacity (kN/m)
112: Right wall5: Stage 50: Design section 01.406Wall Shear Check
112: Right wall5: Stage 50: Design section 0335.43Wall Shear (kN)
272: Right wall5: Stage 50: Design section 0317.392Wall Moment Capacity (kN-m/m
272: Right wall5: Stage 50: Design section 03.281Wall Moment Check
112: Right wall5: Stage 50: Design section 0-1041.4Wall Moment -M (kN-m)
271: Wall 15: Stage 50: Design section 01041.4Wall Moment +M (kN-m)
112: Right wall5: Stage 50: Design section 01041.4Wall Moment ABS (kN-m)
Critical Item IndexCritical WallCritical StageCritical Design SectioCritical Value
Max. Moment vs Stage
1041.4M stg6 (kN-m/m)
1041.4M stg5 (kN-m/m)
141.76M stg4 (kN-m/m)
141.76M stg3 (kN-m/m)
-28.83M stg2 (kN-m/m)
-28.83M stg1 (kN-m/m)
DS: 0M stg0 (kN-m/m)
Base Model
Max. Shear vs Stage
-335.43V stg6 (kN/m)
-335.43V stg5 (kN/m)
-57.78V stg4 (kN/m)
-57.78V stg3 (kN/m)
14.33V stg2 (kN/m)
14.33V stg1 (kN/m)
DS: 0V stg0 (kN/m)
Base Model
Max. Support F vs Stage
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GENERAL WALL DATAHor wall spacing=wall horizontal spacingPassive width below exc=spacing for passive thrust pressure for classic analsyisf'c=fck=cylindrical concrete resistencefyk=fy=steel rebar characteristic resistenceEconc=Concrete Elastic modulusfctk=characteristic Concrete tensionEsteel=steel elastic modulusTABULAR DATA (principal parameters)1) Diaphragm wall (rectangular cross section section)N/A= data not availableFy=fykF'c=fckD=wall heigtB=wall width2)Steel sheet pileDES=shape (Z or U)W=wigth per unit of lengthA=areah=heigtht=horiz part thicknessb=wodth of the single sheet pile parts=inclined part thicknessIxx=strong axis inertia (per unit of length)Sxx=strong axis section modulus (per unit of length)3)Secant piles wall, Tangent piles wall, soldier piles, soildier piles and timber laggingW=weigth per unit of lengthA=areaD=diametertw=web thicknesstp= pipe thicknessbf=flange widthtf=flange thicknessk=flange thickness+stam thicknessIxx=strong axis inertia modulus (per unit of length)Sxx=strong axis section modulus (per unit of length)rx=radius of gyration about X axisry=radius of gyration about Y axisIyy=weak axis inertia modulus (per unit of length)Syy=weak axis section modulus (per unit of length)rT=radius of gyration for torsionCw=warping constant
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447.62Rmax Stage #6 (kN/m)
0Rmax Stage #5 (kN/m)
0Rmax Stage #4 (kN/m)
0Rmax Stage #3 (kN/m)
0Rmax Stage #2 (kN/m)
0Rmax Stage #1 (kN/m)
DS: 0Rmax Stage #0 (kN/m)
Base Model
WALL DATAWall section 0: Wall 1
Wall type: Diaphragm wall (US: slurry wall)Hor. wall spacing: 1 Wall thickness = 0.8Passive width below exc: 1 Active width below exc: 1Concrete fc' = 25 Rebar Fy = 410 Econc = 31476 Concrete tension FcT = 10% of Fc'Steel members fy = 235 Esteel = 206000Diaphragm wall (US: slurry wall)
Table: Concrete Slab Data
00800012.112.17.67.6N/AN/A1008025410Rect
(kN-m)(kN)(cm2)(cm2)(cm2)(cm)(cm)(cm)(cm)(cm)(cm)(MPa)(MPa)
MmaxPmaxAAsBotAsTopCbotCtoptfBwBDFc'FyShape
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GENERAL WALL DATAHor wall spacing=wall horizontal spacingPassive width below exc=spacing for passive thrust pressure for classic analsyisf'c=fck=cylindrical concrete resistencefyk=fy=steel rebar characteristic resistenceEconc=Concrete Elastic modulusfctk=characteristic Concrete tensionEsteel=steel elastic modulusTABULAR DATA (principal parameters)1) Diaphragm wall (rectangular cross section section)N/A= data not availableFy=fykF'c=fckD=wall heigtB=wall width2)Steel sheet pileDES=shape (Z or U)W=wigth per unit of lengthA=areah=heigtht=horiz part thicknessb=wodth of the single sheet pile parts=inclined part thicknessIxx=strong axis inertia (per unit of length)Sxx=strong axis section modulus (per unit of length)3)Secant piles wall, Tangent piles wall, soldier piles, soildier piles and timber laggingW=weigth per unit of lengthA=areaD=diametertw=web thicknesstp= pipe thicknessbf=flange widthtf=flange thicknessk=flange thickness+stam thicknessIxx=strong axis inertia modulus (per unit of length)Sxx=strong axis section modulus (per unit of length)rx=radius of gyration about X axisry=radius of gyration about Y axisIyy=weak axis inertia modulus (per unit of length)Syy=weak axis section modulus (per unit of length)rT=radius of gyration for torsionCw=warping constant
STRUTS DATA
235020.5548831464820.554883146481.960346.72.7PM600X19PM600
(MPa)(cm6(cm)(cm)(cm3)(cm4)(cm)(cm3)(cm4)(cm)(cm)(cm)(cm)(cm)(cm2)(kN/
fyCwrTrYSyyIyyrXSxxIxxKtfbftw tPDAWSectionName
ANALYSIS AND CHECKING SUMMARY
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Summary of Wall Moments and Toe Requirements
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--181.251.3441.3161041.4/317.39200.26/317.391020Wall 10
N/A-181.251.3441.316200.26/317.391041.4/317.391020Wall 10
Stab. FS(m)EmbedmentRotationPas. mob.(kN-m/m)(kN-m/m)(m)(m)Section(m)
SlopeFS 1 Toe EL.FS ToeFS ToeFS ToeMax-M/CapMax+M/CapH-Exc.L-WallWallTop Wall
Summary of Basal Stability and Predicted Wall MovementsAccording to Clough 1989 Method Wall: Wall 1
2.14103.6250.1332.14103.61.3262.101
@ Dx/H max@ Dx/H max@ stage 5@ DxMax@ DxMax@ stage 5@ stage 5
3. FSbasal3. Stiffness3. Dx/H (%)2. FSbasal2. Stiffness2. DxMax (cm)1. FSmin
Summary of Basal Stability and Predicted Wall MovementsAccording to Clough 1989 Method Wall: Right wall
2.14103.6250.1332.14103.61.3262.101
@ Dx/H max@ Dx/H max@ stage 5@ DxMax@ DxMax@ stage 5@ stage 5
3. FSbasal3. Stiffness3. Dx/H (%)2. FSbasal2. Stiffness2. DxMax (cm)1. FSmin
0.080000019.23-180Both walls0.8-72
0.350447.6201342.86019.23-180Both walls0.8-41
0.12059.20177.6019.23-180Both walls0.8-0.50
(kN/m)(kN/m)(kN)(kN)(m)(m)(m)(deg.)Wall #(m)(m)Number
STRR.MinR.MaxR.MinR.MaxFixed LFree LSpace HAngleSupports XElev. ZSupport
Summary of Support Reactions Wall 1
A sequence of result diagrams for each excavation stage is reported
Envelope of results
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Extended vs Stage
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1041.41041.44.182.71CalculatedStage 6
1041.41041.44.182.71CalculatedStage 5
141.76141.760.390.22CalculatedStage 4
141.76141.760.390.22CalculatedStage 3
28.8328.830.060.08CalculatedStage 2
28.8328.830.060.08CalculatedStage 1
00N/A0CalculatedStage 0
(kN-m)(kN-m/m)(cm)(cm)
Wall MomentWall MomentSettlementWall DisplacemeCalculaion Result
1.991.4063.2813.281335.43335.43Stage 6
1.991.4063.2813.281335.43335.43Stage 5
0.2710.2420.4470.44757.7857.78Stage 4
0.2710.2420.4470.44757.7857.78Stage 3
0.0550.060.0910.09114.3314.33Stage 2
0.0550.060.0910.09114.3314.33Stage 1
0.00200000Stage 0
Stress Ratio FICWall RatioWall RatioWall Ratio(kN)(kN/m)
Wall Concrete ServiceSTR ShearSTR MomentSTR CombinedWall ShearWall Shear
2.101N/A0.3470.3471342.86447.623.816Stage 6
2.101N/A0.3470.3471342.86447.623.816Stage 5
2.49N/A0.1170.117177.659.20.519Stage 4
2.49N/A0.1170.117177.659.20.519Stage 3
3.62N/A0.0820.082000.106Stage 2
3.62N/AN/A0000.106Stage 1
1000N/AN/A0000.004Stage 0
BasalCapacity Ratio (pRatioSupport CheckReaction (kN)Reaction (kN/m)Stress Ratio FIS
FSSupport GeotechSTR SupportCriticalMax SupportMax SupportWall Reinforcem
1.6671.0561.316N/A1.3891.5073.742Stage 6
1.6671.0561.316N/A1.251.3442.23Stage 5
21.1623.312N/A5.7694.535236.968Stage 4
21.1623.312N/A4.4124.303N/AStage 3
2.381.3674.884N/A22.57.097N/AStage 2
2.381.3674.884N/A95.9556.655Stage 1
2.6331.5026N/A4099Stage 0
Heave FSTrue/ActivePassive(Paratie)LengthRotationPassive
HydraulicFSFS MobilizedZcutToe FSToe FSToe FS
Support Force/S vs Stage
0447.620Stage #6
0447.620Stage #5
0059.201Stage #4
0059.201Stage #3
000Stage #2
000Stage #1
000Stage #0
Support #2 Reaction (EL= -7) kN/mSupport #1 Reaction (EL= -4) kN/mSupport #0 Reaction (EL= -0.5) kN/
Support Force vs Stage
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01342.860Stage #6
01342.860Stage #5
00177.603Stage #4
00177.603Stage #3
000Stage #2
000Stage #1
000Stage #0
Support #2 Reaction (EL= -7) kN at Support #1 Reaction (EL= -4) kN at Support #0 Reaction (EL= -0.5) kN a
Embedment FS vs Stage
1.0561.3161.3891.5073.7421.389Stage #6
1.0561.3161.251.3442.231.25Stage #5
1.1623.3125.7694.535236.9684.535Stage #4
1.1623.3124.4124.303N/A4.303Stage #3
1.3674.88422.57.097N/A7.097Stage #2
1.3674.88495.9556.6555.955Stage #1
1.502640999Stage #0
FS5 Actual Drive Thrust / Theory FS4 Mobilized PassiveFS3 Length (from FS1, FS2)FS2 RotationFS1 PassiveMin Toe FS
Support Check vs Stage
0.0820.3470.082Stage #6
00.3470.082Stage #5
00.0820.117Stage #4
000.117Stage #3
000.082Stage #2
000Stage #1
000Stage #0
Stress-check Support #2(EL= -7)Stress-check Support #1(EL= -4)Stress-check Support #0(EL= -0.5)
Forces (Res. F, M/Drive F, M)
N/AN/A1059.6/1003.11200.5/911.9310/7.211600/7697.47427.947/114.37Stage #6
N/AN/A1059.6/1003.11200.5/911.9310/815200/11310.78427.947/191.918Stage #5
N/AN/A1078.4/928.183375.6/1019.215/2.637125/8185.782468.747/10.418Stage #4
N/AN/A1078.4/928.183375.6/1019.215/3.448937.5/11373.8N/AStage #3
N/AN/A1268.7/928.186196.8/1268.718/0.880723.52/11373.N/AStage #2
N/AN/A1268.7/928.186196.8/1268.718/20/00/0Stage #1
N/AN/A1393.7/928.188362/1393.720/0.50/00/0Stage #0
/ Theory Active(FxPassive/FxPas_Mobili(Embedment/ToeFS=1)(Mresist/Mdrive)(FxResist/FxDrive)
Fh EQ WaterFh EQ SoilFS5 Actual DriveFS4 Mobilized PassiveFS3 LengthFS2 RotationFS1 Passive
Used Soil Strength Parameters for Each Stage on Driving Side (Uphill)
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF6: Stage 6
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF5: Stage 5
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF4: Stage 4
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF3: Stage 3
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF2: Stage 2
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF1: Stage 1
30.33300300* KpDH= KpHBase x [Rankine_Kph(DrainedF0: Stage 0
KpHKaH(kPa)(kPa)Friction (deDelta (deg)
UsedUsedUsed SuUsed c'Used SoilUsed WallMethod DescriptionDrained/ULayer
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Top Elev= superior SOil levelSoil type=type of the soil (sand , clay , etc)OCR=overconsolidation ratioK0=at rest coefficient
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Used Soil Strength Parameters for Each Stage on Resisting Side (Downhill)
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF6: Stage 6
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF5: Stage 5
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF4: Stage 4
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF3: Stage 3
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF2: Stage 2
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF1: Stage 1
30.33300300* KaUH= KaHBase x [Rankine_Kah(DrainedF0: Stage 0
KpHKaH(kPa)(kPa)Friction (deDelta (deg)
UsedUsedUsed SuUsed c'Used SoilUsed WallMethod DescriptionDrained/ULayer
Reinforcement Requirements
Check not required or N/AProvided/Min. shear Reinf. Size (cm)
Check not required or N/AMeets Min. Shear Reinforcement Size
Min Shear Reinforcement N/AMin shear reinforcement check.
0Provided shear Reinforcement area (cm2/m)
Min Shear Reinf. N/AMin code shear Reinforcement area (cm2/m)
Not applicableMin. shear reinforcement spacing (code) (cm)
Not applicableMax. shear reinforcement spacing (code) (cm)
Not applicableProvided shear reinforcement spacing (cm)
Not applicableShear Reinforcement Spacing Check
Not applicable/Not examined.Shear reinforcement examined
Wall uses reinforced concreteNote:
Parameter Description
SOIL DATA
LinearTrueN/AN/A30.334500015000N/AN/AN/A0301920F
ModelNLNLNLNL(kPa)(kPa)(deg)(deg)(kPa)(kPa)(deg)(kN/m3)(kN/m3)
ColorSpringVarykPcvkAcvkPpkApEurEloadFRcvFRpSuC'Frictg dryg totName
-3143.0433.3350--0.50.5--0.35F
(MPa)(kN/m3)(kPa)(kPa)(0 to 1)(0 to 1)--(clays)(clays)v
PLkS.nailsqNailsqSkinaV.EXPaH.EXPnOCRko.NCMin shMin KaPoissonName
gtot = total soil specific weightgdry = dry weigth of the soilFrict = friction angleC' = effective cohesionSu = Undrained shear strength (only for CLAY soils in undrained conditions, used as a cutoff strength in NL analysis)Evc = Virgin compression elastic modulusEur = unloading/reloading elastic modulusKap = Peak active thrust coefficient (initial value, may be modified on each stage according to analysis settings).Kpp = Peak passive thrust coefficient (initial value, may be modified on each stage according to analysis settings).Kacv = Constant volume active thrust coeff (only for clays, initial value)Kpcv = Constant volume passive thrust coeff (only for clays, initial value).Spring models= spring model (LIN= constant E over the soil layer height , EXP=exponential , SIMC=simplified winkler)LIN= Linear-Elastic-Perfectly Plastic,EXP: Exponential, SUB: Modulus of Subgrade ReactionSIMC= Simplified Clay mode
SOIL BORINGS
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0.51F0
KoOCRSoil typeTop elev.
Name: Boring 1, pos: (-20, 0)
WALL DATAWall section 0: Wall 1
Wall uses wall section 0: Wall 1Wall type: Diaphragm wall (US: slurry wall)Top wall El: 0 m Bottom wall El: -20 mHor. wall spacing: 1 Wall thickness = 0.8Passive width below exc: 1 Active width below exc: 1Concrete fc' = 25 Rebar Fy = 410 Econc = 31476 Concrete tension FcT = 10% of Fc'Steel members fy = 235 Esteel = 206000Wall friction: IgnoredSteel wall capacities are calculated with EC3 2005Concrete capacities are calculated with EC2-2004Note: With ultimate capacities you may have to use a structural safety factor.Diaphragm wall (US: slurry wall)
Table: Concrete Slab Data
00800012.112.17.67.6N/AN/A1008025410RectWall 1
(kN-m)(kN)(cm2)(cm2)(cm2)(cm)(cm)(cm)(cm)(cm)(cm)(MPa)(MPa)
MmaxPmaxAAsBotAsTopCbotCtoptfBwBDFc'FyShapeName
-
GENERAL WALL DATAHor wall spacing=wall horizontal spacingPassive width below exc=spacing for passive thrust pressure for classic analsyisf'c=fck=cylindrical concrete resistencefyk=fy=steel rebar characteristic resistenceEconc=Concrete Elastic modulusfctk=characteristic Concrete tensionEsteel=steel elastic modulusTABULAR DATA (principal parameters)1) Diaphragm wall (rectangular cross section section)N/A= data not availableFy=fykF'c=fckD=wall heigtB=wall width2)Steel sheet pileDES=shape (Z or U)W=wigth per unit of lengthA=areah=heigtht=horiz part thicknessb=wodth of the single sheet pile parts=inclined part thicknessIxx=strong axis inertia (per unit of length)Sxx=strong axis section modulus (per unit of length)3)Secant piles wall, Tangent piles wall, soldier piles, soildier piles and timber laggingW=weigth per unit of lengthA=areaD=diametertw=web thicknesstp= pipe thicknessbf=flange widthtf=flange thicknessk=flange thickness+stam thicknessIxx=strong axis inertia modulus (per unit of length)Sxx=strong axis section modulus (per unit of length)rx=radius of gyration about X axisry=radius of gyration about Y axisIyy=weak axis inertia modulus (per unit of length)Syy=weak axis section modulus (per unit of length)rT=radius of gyration for torsionCw=warping constant
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Wall section 1: Right wall
Wall uses wall section 0: Wall 1Wall type: Diaphragm wall (US: slurry wall)Top wall El: 0 m Bottom wall El: -20 mHor. wall spacing: 1 Wall thickness = 0.8Passive width below exc: 1 Active width below exc: 1Concrete fc' = 25 Rebar Fy = 410 Econc = 31476 Concrete tension FcT = 10% of Fc'Steel members fy = 235 Esteel = 206000Wall friction: IgnoredSteel wall capacities are calculated with EC3 2005Concrete capacities are calculated with EC2-2004Note: With ultimate capacities you may have to use a structural safety factor.Diaphragm wall (US: slurry wall)
Table: Concrete Slab Data
00800012.112.17.67.6N/AN/A1008025410RectWall 1
(kN-m)(kN)(cm2)(cm2)(cm2)(cm)(cm)(cm)(cm)(cm)(cm)(MPa)(MPa)
MmaxPmaxAAsBotAsTopCbotCtoptfBwBDFc'FyShapeName
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GENERAL WALL DATAHor wall spacing=wall horizontal spacingPassive width below exc=spacing for passive thrust pressure for classic analsyisf'c=fck=cylindrical concrete resistencefyk=fy=steel rebar characteristic resistenceEconc=Concrete Elastic modulusfctk=characteristic Concrete tensionEsteel=steel elastic modulusTABULAR DATA (principal parameters)1) Diaphragm wall (rectangular cross section section)N/A= data not availableFy=fykF'c=fckD=wall heigtB=wall width2)Steel sheet pileDES=shape (Z or U)W=wigth per unit of lengthA=areah=heigtht=horiz part thicknessb=wodth of the single sheet pile parts=inclined part thicknessIxx=strong axis inertia (per unit of length)Sxx=strong axis section modulus (per unit of length)3)Secant piles wall, Tangent piles wall, soldier piles, soildier piles and timber laggingW=weigth per unit of lengthA=areaD=diametertw=web thicknesstp= pipe thicknessbf=flange widthtf=flange thicknessk=flange thickness+stam thicknessIxx=strong axis inertia modulus (per unit of length)Sxx=strong axis section modulus (per unit of length)rx=radius of gyration about X axisry=radius of gyration about Y axisIyy=weak axis inertia modulus (per unit of length)Syy=weak axis section modulus (per unit of length)rT=radius of gyration for torsionCw=warping constant
DESIGN APPROACHES AND COMBINATION FACTORSThe Design Approaches (from Codes or Customized by the user) and related safety factors are the following:Ftan fr=mult factor for friction angleF C'=mult factor for effective cohesionF Su'=mult factof for undrained cohesionF EQ=mult factor for seismic actionF perm load=mult factor for perm loadsF temp load=mult factor for live loadsF perm supp=reduct factor for resistence for pull out checkingF temp supp=fattore di riduzione resistence per verifica pull out tiranteF earth Dstab=mult factor for active press coeff , unfavorableF earth stab=mult factor for passive pressure , favorableF GWT Dstab (ground water)=mult factor for hydrostatic pressure , unfavorableF GWT stab (ground water)=mult factor for hydrostatic pressure, favorableF HYD Dstab=mult factor for hydrodynamic pressure, unfavorableF HYD stab=mult factor for hydrodynamic pressure, favorableF UPL Dstab=mult factor for hydraulic heave, unfavorableF UPL stab=mult factor for hydraulic heave, favorable
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1111111111111111Service FactorsDefault6
1111111111111111Service FactorsDefault5
1111111111111111Service FactorsDefault4
1111111111111111Service FactorsDefault3
1111111111111111Service FactorsDefault2
1111111111111111Service FactorsDefault1
1111111111111111Service FactorsDefault0
(stab)(Dstab)(stab)(Dstab)(stab)(Dstab)(stab)(Dstab)sup)sup)load)load)(EQ)(Su)(c')fr)Name
F UPLF UPLF HYDF HYDF GWTF GWTF EarthF EarthF(tempF(permF(tempF(permFFFF(tanDesign CaseDesign CodeStage
A sequence of figures for each excavation stage is reported
EXCAVATION STAGES SKETCHES
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Name=excavation phase nameAnalysis method
springs = Elastoplastic spring analysis usedDR = Drained condition for CLAY modelU = Undrained condition for CLAY model for all the soilsUp = Undrained condition just for selected soil
Limit equilibrium analysis settingsDrive press= Ka (Active pressure diagram), Ka-Trap = Trapezoid apparent diagram from active pressures x multiplier, FHWA= Federal Highway Administration apparent pressure diagrams. Ko = At-rest lateral earth pressures. Peck = Peck 1969 Apparent earth pressure diagrams. 2 Step rect = Two step rectangular apparent earth pressure diagram. User def. = User defined apparent earth pressure diagram.ka mult = multiplication factor for Ka when Ka-Trap is selectedHtr T/B (%) = trapezoidal pressure scheme, top and bottom triangular percentage of excavation depth HResit press = Kp (passive earth pressures)Res Mult = Safety factor applied directly on resisting pressures (COntle Method = cantilever analysis method for limit equilibrium analysis.Support Model = Beam = support reactions beam analysis, Trib = support reactions from tributary load calculations.Axial Incl = Axial loads included for designUsed FS wall = Safety factor for axial+bending wall resistance.Min FD TOe=embedded minimum safety factor (for classic analsysis)Toe FS rot=rotation safety factor (classic for classic analsysis)Toe FSpas=driving/resistent pressure safety factor (for classic analsysis)
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GENERAL ANALYSIS CRITERIASummary of stage assumptions: Left Wall
3.7421.5071.3891N/AFree EN/AKpN/AN/AKaSprings-UpStage 6
2.231.3441.251N/AFree EN/AKpN/AN/AKaSprings-UpStage 5
236.964.5354.5351N/AFree EN/AKpN/AN/AKaSprings-UpStage 4
N/A4.3034.3031N/AFree EN/AKpN/AN/AKaSprings-UpStage 3
N/A7.0977.0971N/AFree EN/AKpN/AN/AKaSprings-UpStage 2
6.6555.9555.9551N/AFree EN/AKpN/AN/AKaSprings-UpStage 1
9991N/AFree EN/AKpN/AN/AKaSprings-UpStage 0
FSpasFSrotFDtoeFSwallInclModelMethoMultPress(%)PressMethod
ToeToeMin ToUsedAxialSupporContleResResistHtr T/Bka-MultDriveAnalysisName
Name=excavation phase nameAnalysis method
springs = Elastoplastic spring analysis usedDR = Drained condition for CLAY modelU = Undrained condition for CLAY model for all the soilsUp = Undrained condition just for selected soil
Limit equilibrium analysis settingsDrive press= Ka (Active pressure diagram), Ka-Trap = Trapezoid apparent diagram from active pressures x multiplier, FHWA= Federal Highway Administration apparent pressure diagrams. Ko = At-rest lateral earth pressures. Peck = Peck 1969 Apparent earth pressure diagrams. 2 Step rect = Two step rectangular apparent earth pressure diagram. User def. = User defined apparent earth pressure diagram.ka mult = multiplication factor for Ka when Ka-Trap is selectedHtr T/B (%) = trapezoidal pressure scheme, top and bottom triangular percentage of excavation depth HResit press = Kp (passive earth pressures)Res Mult = Safety factor applied directly on resisting pressures (COntle Method = cantilever analysis method for limit equilibrium analysis.Support Model = Beam = support reactions beam analysis, Trib = support reactions from tributary load calculations.Axial Incl = Axial loads included for designUsed FS wall = Safety factor for axial+bending wall resistance.Min FD TOe=embedded minimum safety factor (for classic analsysis)Toe FS rot=rotation safety factor (classic for classic analsysis)Toe FSpas=driving/resistent pressure safety factor (for classic analsysis)
Summary of stage assumptions: Right Wall
3.7421.5071.3891N/AFree EN/AKpN/AN/AKaSprings-UpStage 6
2.231.3441.251N/AFree EN/AKpN/AN/AKaSprings-UpStage 5
236.964.5354.5351N/AFree EN/AKpN/AN/AKaSprings-UpStage 4
N/A4.3034.3031N/AFree EN/AKpN/AN/AKaSprings-UpStage 3
N/A7.0977.0971N/AFree EN/AKpN/AN/AKaSprings-UpStage 2
6.6555.9555.9551N/AFree EN/AKpN/AN/AKaSprings-UpStage 1
9991N/AFree EN/AKpN/AN/AKaSprings-UpStage 0
FSpasFSrotFDtoeFSwallInclModelMethoMultPress(%)PressMethod
ToeToeMin ToUsedAxialSupporContleResResistHtr T/Bka-MultDriveAnalysisName
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Name=excavation phase nameAnalysis method
springs = Elastoplastic spring analysis usedDR = Drained condition for CLAY modelU = Undrained condition for CLAY model for all the soilsUp = Undrained condition just for selected soil
Limit equilibrium analysis settingsDrive press= Ka (Active pressure diagram), Ka-Trap = Trapezoid apparent diagram from active pressures x multiplier, FHWA= Federal Highway Administration apparent pressure diagrams. Ko = At-rest lateral earth pressures. Peck = Peck 1969 Apparent earth pressure diagrams. 2 Step rect = Two step rectangular apparent earth pressure diagram. User def. = User defined apparent earth pressure diagram.ka mult = multiplication factor for Ka when Ka-Trap is selectedHtr T/B (%) = trapezoidal pressure scheme, top and bottom triangular percentage of excavation depth HResit press = Kp (passive earth pressures)Res Mult = Safety factor applied directly on resisting pressures (COntle Method = cantilever analysis method for limit equilibrium analysis.Support Model = Beam = support reactions beam analysis, Trib = support reactions from tributary load calculations.Axial Incl = Axial loads included for designUsed FS wall = Safety factor for axial+bending wall resistance.Min FD TOe=embedded minimum safety factor (for classic analsysis)Toe FS rot=rotation safety factor (classic for classic analsysis)Toe FSpas=driving/resistent pressure safety factor (for classic analsysis)
A sequence of result diagrams for each excavation stage is reported
Result diagrams (for walls)
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SUPORTS REACTIONS (TIEBACKS, STRUTS, SLABS, RAKERS)
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06
05
177.6034
177.6033
02
01
00
(kN)
RStage No
Support 0
1342.866
1342.865
04
03
02
01
00
(kN)
RStage No
Support 1
06
05
04
03
02
01
00
(kN)
RStage No
Support 2