Design(With Cb+Fp)

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    Depth of Top slab (d) = 0.55 m

    Width of Top Slab (b) = 1 m

    d/b = 0.55

    (1+d/b)/1.7 = 0.91

    Eq. Moment due to torsion = Mx*0.912

    Top slab (Hogging Moment) (upper reinforcement)Depth of the section = 0.55scbc = 11.67 N/mm2

    sst = 240 N/mm2Mz = 5.09 t-m

    Mx = 0.00 t-m

    Maximum Moment = 5.09 t-m/m

    = 49.88 kN-m/m

    m = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.500m

    Required Ast As = M/sst*j*d = 4.58 cm2/m

    Provide

    f16 @ 300 c/c + f20 @ 300 c/c

    Ast provided = 17.17 cm2/m So O.K.

    % of Ast p = 0.34

    Depth of Top slab (d) = 0.55 m

    Width of Top Slab (b) = 1 m

    d/b = 0.55

    (1+d/b)/1.7 = 0.91

    Eq. Moment due to torsion = Mx*0.912

    Top slab (Sagging Moment) (bottom reinforcement)

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    Depth of the section = 0.55

    scbc = 11.67 N/mm2

    sst = 240 N/mm2Mz = 14.80 t-m

    Mx = 0.00 t-m

    Maximum Moment = 14.80 t-m/m

    = 145.04 kN-m/m

    m = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.502m

    Required Ast As = M/sst*j*d = 13.28 cm2/m

    Provide

    f16 @ 150 c/c + f0 @ 300 c/c

    Ast provided = 13.40 cm2/m So O.K.

    % of Ast p = 0.27

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    DISTRIBUTION REINFORCEMENT:-

    (Hogging Moment) (upper reinforcement)

    Effective depth of the section d = 0.485m

    Required Ast As = 0.06%of b.d = 2.91 cm2/m

    Provide

    f10 @ 200 c/c + f0 @ 150 c/c

    Ast provided = 3.93 cm2

    /m So O.K.% of Ast p = 0.08

    Depth of Top slab (d) = 0.55 m

    Width of Top Slab (b) = 1 m

    d/b = 0.55

    (1+d/b)/1.7 = 0.91

    Eq. Moment due to torsion = Mx*0.912

    (Sagging Moment) (bottom reinforcement)

    Effective depth of the section d = 0.488m

    Min Required Ast As = 0.12%of b.d = 5.86 cm2/m

    Provide

    f12 @ 175 c/c + f0 @ 150 c/c

    Ast provided = 6.46 cm2/m So O.K.

    % of Ast p = 0.13

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    Bottom Slab (Hogging Moment) (upper reinforcement)

    Depth of bottom slab (d) = 0.65 m

    Width of bottom Slab (b) = 1 m

    d/b = 0.65

    (1+d/b)/1.7 = 0.97

    Eq. Moment due to torsion = Mx*0.971

    Depth of the section = 0.65

    scbc = 11.67 N/mm2

    sst = 240 N/mm2Mz = 16.60 t-m

    Mx = 0.00 t-m

    Maximum Moment = 16.60 t-m/m

    = 162.69 kN-m/m

    m = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.559m

    Required Ast As = M/sst*j*d = 13.37 cm2/m

    Provide

    f16 @ 125 c/c + f0 @ 300 c/c

    Ast provided = 16.08 cm2/m So O.K.

    % of Ast p = 0.29

    Bottom Slab (Saging Moment) (bottom reinforcement)

    Depth of Top slab (d) = 0.65 m

    Width of Top Slab (b) = 1 m

    d/b = 0.65

    (1+d/b)/1.7 = 0.97

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    Eq. Moment due to torsion = Mx*0.971

    Depth of the section = 0.65

    scbc = 11.67 N/mm2

    sst = 240 N/mm2Mz = 8.02 t-m

    Mx = 0.00 t-m

    Maximum Moment = 8.02 t-m/m

    = 78.61 kN-m/mm = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.600m

    Required Ast As = M/sst*j*d = 6.02 cm2/m

    Provide

    f16 @ 300 c/c + f20 @ 300 c/c

    Ast provided = 17.17 cm2/m So O.K.

    % of Ast p = 0.26

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    DISTRIBUTION REINFORCEMENT:-

    Depth ofbottom slab (d) = 0.65 m

    Width of bottom Slab (b) = 1 m

    (upper reinforcement)

    Effective depth of the section d = 0.546mRequired Ast As = 0.06%of b.d = 3.28 cm

    2/m

    Provide

    f10 @ 200 c/c + f0 @ 150 c/c

    Ast provided at top = 3.93 cm2/m So O.K.

    % of Ast p = 0.07

    (bottom reinforcement)

    Depth of Top slab (d) = 0.65 m

    Width of Top Slab (b) = 1 m

    d/b = 0.65

    (1+d/b)/1.7 = 0.97

    Eq. Moment due to torsion = Mx*0.971

    Required Ast As =0.06%of b.d = 3.17 cm2/m

    Provide

    f10 @ 200 c/c + f0 @ 150 c/c

    Ast provided = 3.93 cm2/m So O.K.

    % of Ast p = 0.07

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    Wall TOP (outer reinforcement)

    Depth (d) = 0.35 m

    Width (b) = 1 m

    d/b = 0.35

    (1+d/b)/1.7 = 0.79

    Eq. Moment due to torsion = Mx*0.794

    Depth of the section = 0.35scbc = 11.67 N/mm2ss = 240 N/mm2

    Mz = 8.63 t-m

    Mx = 0.00 t-m

    Maximum Moment = 8.63 t-m/m

    = 84.58 kN-m/m

    m = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.302m

    Required Ast As = M/sst*j*d = 12.87 cm2/m

    Provide

    f16 @ 300 c/c + f20 @ 300 c/c

    Ast provided at top = 17.17 cm2/m So O.K.

    % of Ast p = 0.57

    BOTTOM (outer reinforcement)

    Depth of Top slab (d) = 0.35 m

    Width of Top Slab (b) = 1 m

    d/b = 0.35

    (1+d/b)/1.7 = 0.79

    Eq. Moment due to torsion = Mx*0.794

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    Depth of the section = 0.35

    scbc = 11.67 N/mm2

    sst = 240 N/mm2Mz = 11.15 t-m

    Mx = 0.00 t-m

    Maximum Moment = 11.15 t-m/m

    = 109.27 kN-m/m

    m = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.300m

    Required Ast As = M/sst*j*d = 16.74 cm2/m

    Provide

    f16 @ 300 c/c + f20 @ 300 c/c

    Ast provided at top = 17.17 cm2/m So O.K.

    % of Ast p = 0.57

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    MIDDLE (Inner reinforcement)

    Depth of Top slab (d) = 0.35 m

    Width of Top Slab (b) = 1 m

    d/b = 0.35

    (1+d/b)/1.7 = 0.79

    Eq. Moment due to torsion = Mx*0.794

    Depth of the section = 0.35scbc = 11.67 N/mm2

    sst = 240 N/mm2Mz = 3.00 t-m

    Mx = 0.00 t-m

    Maximum Moment = 3.00 t-m/m

    = 29.41 kN-m/m

    m = 7.998

    k = mscbc / (mscbc+ss) = 0.280

    j = 1 - (k / 3) = 0.9067

    Q = 0.5 x scbc x j x k = 1.481 N/mm^2

    Effective depth of the section d = 0.305m

    Required Ast As = M/sst*j*d = 4.43 cm2/m

    Provide

    f10 @ 300 c/c + f10 @ 300 c/c

    Ast provided at top = 5.24 cm2/m So O.K.

    % of Ast p = 0.17

    DISTRIBUTION REINFORCEMENT:- (On the both of the faces)

    Effective depth of the section d = 0.399m

    Min Required Ast As = 0.25%of b.d = 9.98 cm2/m

    Provide

    f10 @ 150 c/c + f0 @ 150 c/c (on both of the faces)

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    . = 10.47 cm2/m So O.K.

    % of Ast p = 0.26

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    SHEAR FORCE CHECK

    Depth of Top slab (d) = 0.550 m

    Width of Top Slab (b) = 1 m

    Effective depth of the section d = 0.500 m

    1.6/b = 1.60

    Eq. Shear Force due to torsion = Mx*1.600

    Top slabDepth of the section = 0.550

    Fy = 12.00 t

    Mx = 0.00 t

    Maximum Shear Force = 12.00 t/m

    = 117.60 kN/m

    tv (N/mm2) = 0.2352r % (100Ast/bd) = 0.343tc (N/mm2) = 0.2599 So O.K.

    Depth of Bottom slab (d) = 0.650 m

    Width of Bottom Slab (b) = 1 m

    Effective depth of the section d = 0.600 m1.6/b = 1.60

    Eq. Shear Force due to torsion = Mx*1.600

    Bottom slabDepth of the section = 0.650

    Fy = 13.70 t

    Mx = 0.00 t

    Maximum Shear Force = 13.70 t/m

    = 137.00 kN/m

    tv (N/mm2) = 0.2283r % (100Ast/bd) = 0.286tc (N/mm2) = 0.2416 So O.K.

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    Depth check for bending

    Top slab

    HOGGING deff = 183.53 OK

    SAGGING deff = 312.94 OK

    Bottom slab

    HOGGING deff = 331.44 OK

    SAGGING deff = 230.38 OK

    Support wall

    TOP deff = 238.98 OK

    BOTTOM deff = 271.63 OK

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    STAAD SPACE

    START JOB INFORMATION

    ENGINEER DATE 18-May-11

    END JOB INFORMATION

    INPUT WIDTH 79

    UNIT METER MTON

    JOINT COORDINATES

    1 0 0 0; 2 6.5 0 0; 3 0 3.525 0; 4 0 0.325 0; 5 0 0.775 0; 6 0 1.7625 0;7 0 2.75 0; 8 0 3.2 0; 9 0.3 0 0; 10 0.8 0 0; 11 2.025 0 0; 12 3.25 0 0;

    13 4.475 0 0; 14 5.7 0 0; 15 6.2 0 0; 16 6.5 3.525 0; 17 6.5 0.325 0;

    18 6.5 0.775 0; 19 6.5 1.7625 0; 20 6.5 2.75 0; 21 6.5 3.2 0; 22 0.3 3.525 0;

    23 0.75 3.525 0; 24 3.25 3.525 0; 25 5.75 3.525 0; 26 6.2 3.525 0;

    MEMBER INCIDENCES

    1 1 9; 3 1 4; 4 4 5; 5 5 6; 6 6 7; 7 7 8; 8 8 3; 9 9 10; 10 10 11; 11 11 12;

    12 12 13; 13 13 14; 14 14 15; 15 15 2; 16 2 17; 17 17 18; 18 18 19; 19 19 20;

    20 20 21; 21 21 16; 22 3 22; 23 22 23; 24 23 24; 25 24 25; 26 25 26; 27 26 16;

    START GROUP DEFINITION

    MEMBER

    _TOP_SLAB 23 TO 26

    _SIDE_WALL 4 TO 7 17 TO 20

    _BOTTOM_SLAB 9 TO 14

    END GROUP DEFINITION

    DEFINE MATERIAL STARTISOTROPIC CONCRETE

    E 2.21467e+006

    POISSON 0.17

    DENSITY 2.40262

    ALPHA 1e-005

    DAMP 0.05

    END DEFINE MATERIAL

    CONSTANTS

    MATERIAL CONCRETE ALL

    MEMBER PROPERTY AMERICAN

    1 9 TO 15 PRIS YD 0.65 ZD 1

    MEMBER PROPERTY AMERICAN

    22 TO 27 PRIS YD 0.55 ZD 1

    3 TO 8 16 TO 21 PRIS YD 0.35 ZD 1

    SUPPORTS

    1 2 9 15 FIXED BUT FX FZ MX MY MZ KFY 1200

    11 TO 13 FIXED BUT FX FZ MX MY MZ KFY 3660

    10 FIXED BUT MX MY MZ KFX 2580 KFY 2580 KFZ 2580

    14 FIXED BUT FX FZ MX MY MZ KFY 2580

    LOAD 1 LOADTYPE None TITLE DL

    SELFWEIGHT Y -1 LIST 1 3 TO 27

    LOAD 2 LOADTYPE None TITLE SIDL

    MEMBER LOAD

    22 TO 27 UNI GY -0.2

    LOAD 3 LOADTYPE None TITLE ACTIVE EARTH PRESSURE

    MEMBER LOAD

    3 TO 8 UNI GX 0.6026

    16 TO 21 UNI GX -0.6025

    3 TRAP GX 1.908 1.745

    4 TRAP GX 1.745 1.519

    5 TRAP GX 1.519 1.0116 TRAP GX 1.011 0.502

    7 TRAP GX 0.502 0.276

    8 TRAP GX 0.276 0.126

    16 TRAP GX -1.908 -1.745

    17 TRAP GX -1.745 -1.519

    18 TRAP GX -1.519 -1.011

    19 TRAP GX -1.011 -0.502

    20 TRAP GX -0.502 -0.276

    21 TRAP GX -0.276 -0.126

    LOAD 4 LOADTYPE None TITLE EARTH PRESSURE AT REST

    MEMBER LOAD

    16 TO 21 UNI GX -1.2

    3 TO 8 UNI GX 1.2

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    3 TRAP GX 3.8 3.475

    4 TRAP GX 3.475 3.025

    5 TRAP GX 3.025 2.013

    6 TRAP GX 2.013 1

    7 TRAP GX 1 0.55

    8 TRAP GX 0.55 0.25

    16 TRAP GX -3.8 -3.475

    17 TRAP GX -3.475 -3.02518 TRAP GX -3.025 -2.013

    19 TRAP GX -2.013 -1

    20 TRAP GX -1 -0.55

    21 TRAP GX -0.55 -0.25

    LOAD 5 LOADTYPE None TITLE TEMP RISE

    TEMPERATURE LOAD

    22 TO 27 STRAIN 0.0004095

    LOAD 6 LOADTYPE None TITLE TEMP FALL

    TEMPERATURE LOAD

    22 TO 27 STRAIN -0.0006095

    LOAD 7 LOADTYPE None TITLE TEMP RISE (GRAD.)

    TEMPERATURE LOAD

    22 TO 27 TEMP 0 14.184

    LOAD 8 LOADTYPE None TITLE TEMP FALL (GRAD.)

    TEMPERATURE LOAD22 TO 27 TEMP 0 -2.004

    LOAD 9 LOADTYPE None TITLE 70 R MID

    MEMBER LOAD

    24 25 UNI GY -1.89

    23 UNI GY -1.89 0.109

    26 UNI GY -1.89 0 0.341

    LOAD 10 LOADTYPE None TITLE 70 R CORNER

    MEMBER LOAD

    24 UNI GY -2.113 0.374

    25 TO 27 UNI GY -2.113

    LOAD 11 LOADTYPE None TITLE 40 T BOGGIE MID

    MEMBER LOAD

    24 UNI GY -2.63 1.2025

    25 UNI GY -2.63 0 1.2975

    LOAD 12 LOADTYPE None TITLE 40 T BOGGIE CORNER

    MEMBER LOAD

    25 UNI GY -8.17 1.211

    26 27 UNI GY -8.17

    LOAD COMB 13 DL+SIDL+AEP+70R MID

    1 1.0 2 1.0 3 1.0 9 1.0

    LOAD COMB 14 DL+SIDL+AEP+70R CORNER

    1 1.0 2 1.0 3 1.0 10 1.0

    LOAD COMB 15 DL+SIDL+AEP

    1 1.0 2 1.0 3 1.0

    LOAD COMB 16 DL+SIDL+EPR

    1 1.0 2 1.0 4 1.0

    LOAD COMB 17 DL+SIDL+AEP+40 T BOGGIE MID

    1 1.0 2 1.0 3 1.0 11 1.0

    LOAD COMB 18 DL+SIDL+AEP+40 T BOGGIE CORNER

    1 1.0 2 1.0 3 1.0 12 1.0

    LOAD COMB 19 DL+SIDL+AEP+TR+TR(GRAD)+70 R MID1 0.87 2 0.87 3 0.87 5 0.87 7 0.87 9 0.87

    LOAD COMB 20 DL+SIDL+AEP+TR+TR(GRAD)+70 R CORNER

    1 0.87 2 0.87 3 0.87 5 0.87 7 0.87 10 0.87

    LOAD COMB 21 DL+SIDL+AEP+TR+TR(GRAD)+40 T BOGGIE MID

    1 0.87 2 0.87 3 0.87 5 0.87 7 0.87 11 0.87

    LOAD COMB 22 DL+SIDL+AEP+TR+TR(GRAD)+40 T BOGGIE CORNER

    1 0.87 2 0.87 3 0.87 5 0.87 7 0.87 12 0.87

    LOAD COMB 23 DL+SIDL+AEP+TF+TF(GRAD)+70 R MID

    1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 9 0.87

    LOAD COMB 24 DL+SIDL+AEP+TF+TF(GRAD)+70 R CORNER

    1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 10 0.87

    LOAD COMB 25 DL+SIDL+AEP+TF+TF(GRAD)+40 T BOGGIE MID

    1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 11 0.87

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    LOAD COMB 26 DL+SIDL+AEP+TF+TF(GRAD)+40 T BOGGIE CORNER

    1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 12 0.87

    PERFORM ANALYSIS

    FINISH

    1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 10 0.87

    LOAD COMB 25 DL+SIDL+AEP+TF+TF(GRAD)+40 T BOGGIE MID

    1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 11 0.87

    LOAD COMB 26 DL+SIDL+AEP+TF+TF(GRAD)+40 T BOGGIE CORNER1 0.87 2 0.87 3 0.87 6 0.87 8 0.87 12 0.87

    PERFORM ANALYSIS

    FINISH

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    CALCULATION OF BASE PRESSURE

    DEAD LOAD

    Top slab = 9.24 t/m

    Bottom slab = 10.92 t/m

    Side wall = 7.06 t/m

    Haunches (4 nos.) = 0.11 t/m

    Soil load due to proj. in the bottom slab = 0 t/m

    Projection in top slab = 0.65 t/m

    Total Weight = 27.97 t/m

    Equivalent upward base pressure = 4.00 t/m^2

    SUPERIMPOSED DEAD LOAD

    Equivalent upward base pressure = 0.2 t/m^2

    DEAD LOAD DUE TO WT. OF CONC. INSIDE THE BOX

    Load due to soil load on bottom slab = 0.00 t/m

    Equivalent upward base pressure = 0.00 t/m^2

    LIVE LOAD (per metre width)

    Maximum upward base pressure due to LL on top slab = 1.86 t/m^2

    Maximum upward base pressure due to LL on bottom slab = 0.0 t/m^2

    Allowable pressure 10.0 t/m^2

    Total base pressur e = 6.06 t/m ^ 2 OK

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    Check for uplift Y4 7 m 1

    depth(bottom slab)= 0.65 m

    width = 7 m load

    length = 17 m

    projection = 0 m

    Ht of side wall= 4.2 m

    C.B. = 0.5 m

    Footpath = 0 m

    Clearence = 1.2 m m X

    load = 40.0 t 17

    ex = 5.84 m

    ey = 2.89 m

    Ixx = 2865.92 m4

    Iyy = 485.92 m4

    Due to LL, Pressure @ 3 2

    1 = 1.86 t/m2 0.65 m

    2 = 0.48 t/m2

    3 = -1.19 t/m2

    4 = 0.20 t/m2

    BOTTOM SLAB

    Minimum pressure due to DL+SIDL+LL

    = 3.01 t/m2 Hence OK

    ex

    ey

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    Top slabBeam Node Env Fx Mton Fy Mton Fz Mton Mx MTon- My MTon- Mz MTon- Mz MTon-

    23 22 +ve 4.166 9.503 0 0 0 5.5

    16 DL+SID13 DL+SID- - - 14 DL+SIDL+AEP+70

    -ve 0 0 0 0 0 0- - - - - -

    23 23 +ve 4.166 8.228 0 0 0 2.42

    16 DL+SID13 DL+SID- - - 18 DL+SIDL+AEP+40

    -ve 0 0 0 0 0 -1.33

    - - - - - 19 DL+SIDL+AEP+TR

    24 23 +ve 4.166 8.228 0 0 0 2.42

    16 DL+SID13 DL+SID- - - 18 DL+SIDL+AEP+40

    -ve 0 0 0 0 0 -1.33

    - - - - - 19 DL+SIDL+AEP+TR

    24 24 +ve 4.166 2.583 0 0 0 0

    16 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -10.65- 17 DL+SID - - - 20 DL+SIDL+AEP+TR

    25 24 +ve 4.166 2.583 0 0 0 0

    16 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -10.65

    - 17 DL+SID - - - 20 DL+SIDL+AEP+TR

    25 25 +ve 4.166 0 0 0 0 1.74

    16 DL+SID - - - - 17 DL+SIDL+AEP+40

    -ve 0 -12.999 0 0 0 -4.71

    - 18 DL+SID - - - 22 DL+SIDL+AEP+TR

    26 25 +ve 4.166 0 0 0 0 1.74

    16 DL+SID - - - - 17 DL+SIDL+AEP+40

    -ve 0 -12.999 0 0 0 -4.71

    - 18 DL+SID - - - 22 DL+SIDL+AEP+TR

    26 26 +ve 4.166 0 0 0 0 5.29

    16 DL+SID - - - - 14 DL+SIDL+AEP+70

    -ve 0 -17.846 0 0 0 0

    - 18 DL+SID - - - -

    Bottom slabBeam Node Env Fx Mton Fy Mton Fz Mton Mx MTon- My MTon- Mz MTon-m

    1 1 +ve 30.175 0 0 0 0 0

    16 DL+SID - - - - -

    -ve 0 -16.351 0 0 0 -27.52- 13 DL+SID - - - 16 DL+SIDL+EPR

    1 45 +ve 30.175 0 0 0 0 0

    16 DL+SID - - - - -

    -ve 0 -16.651 0 0 0 -24.29

    - 13 DL+SID - - - 16 DL+SIDL+EPR

    13 13 +ve 30.175 4.479 0 0 0 9.38

    16 DL+SID 16 DL+SID - - - 18 DL+SIDL+AEP+40

    -ve 0 0 0 0 0 -4.07

    - - - - - 16 DL+SIDL+EPR

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    13 48 +ve 30.175 1.297 0 0 0 8.38

    16 DL+SID 16 DL+SID - - - 18 DL+SIDL+AEP+40

    -ve 0 -0.589 0 0 0 -6.96

    - 18 DL+SID - - - 16 DL+SIDL+EPR

    33 45 +ve 30.175 0 0 0 0 0

    16 DL+SID - - - - -

    -ve 0 -13.31 0 0 0 -24.29

    - 13 DL+SID - - - 16 DL+SIDL+EPR

    33 46 +ve 30.175 0 0 0 0 0

    16 DL+SID - - - - -

    -ve 0 -14.742 0 0 0 -18.86

    - 13 DL+SID - - - 16 DL+SIDL+EPR

    34 46 +ve 30.175 0 0 0 0 0

    16 DL+SID - - - - -

    -ve 0 -7.885 0 0 0 -18.86

    - 18 DL+SID - - - 16 DL+SIDL+EPR

    34 47 +ve 30.175 0 0 0 0 4.8

    16 DL+SID - - - - 18 DL+SIDL+AEP+40

    -ve 0 -12.021 0 0 0 -6.96

    - 18 DL+SID - - - 16 DL+SIDL+EPR

    35 47 +ve 30.175 0 0 0 0 4.816 DL+SID - - - - 18 DL+SIDL+AEP+40

    -ve 0 -2.986 0 0 0 -6.96

    - 18 DL+SID - - - 16 DL+SIDL+EPR

    35 13 +ve 30.175 0 0 0 0 9.38

    16 DL+SID - - - - 18 DL+SIDL+AEP+40

    -ve 0 -6.167 0 0 0 -4.07

    - 18 DL+SID - - - 16 DL+SIDL+EPR

    36 48 +ve 30.175 11.796 0 0 0 8.38

    16 DL+SID18 DL+SID- - - 18 DL+SIDL+AEP+40

    -ve 0 0 0 0 0 -6.96

    - - - - - 16 DL+SIDL+EPR

    36 49 +ve 30.175 7.66 0 0 0 016 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -18.86

    - - - - - 16 DL+SIDL+EPR

    37 49 +ve 30.175 20.425 0 0 0 0

    16 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -18.86

    - - - - - 16 DL+SIDL+EPR

    37 50 +ve 30.175 18.994 0 0 0 0

    16 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -24.29

    - - - - - 16 DL+SIDL+EPR

    38 50 +ve 30.175 24.534 0 0 0 0

    16 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -24.29

    - - - - - 16 DL+SIDL+EPR

    38 2 +ve 30.175 24.233 0 0 0 0

    16 DL+SID18 DL+SID- - - -

    -ve 0 0 0 0 0 -27.52

    - - - - - 16 DL+SIDL+EPR

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    Side wall

    Beam Node Env Fx Mton Fy Mton Fz Mton Mx MTon- My MTon- Mz MTon-m

    41 51 +ve 14.914 0 0 0 0 0

    13 DL+SID - - - - -

    -ve 0 -1.676 0 0 0 -25.66

    - 16 DL+SID - - - 16 DL+SIDL+EPR

    41 59 +ve 10.769 0 0 0 0 6.81

    13 DL+SID - - - - 14 DL+SIDL+AEP+70

    -ve 0 -15.045 0 0 0 0

    - 16 DL+SID - - - -

    42 52 +ve 25.394 1.676 0 0 0 25.66

    18 DL+SID 16 DL+SID - - - 16 DL+SIDL+EPR

    -ve 0 0 0 0 0 0

    - - - - - -

    42 60 +ve 21.25 15.045 0 0 0 0

    18 DL+SID 16 DL+SID - - - -

    -ve 0 0 0 0 0 -7.92- - - - - 18 DL+SIDL+AEP+40

    43 53 +ve 19.599 27.769 0 0 0 20.28

    13 DL+SID 16 DL+SID - - - 16 DL+SIDL+EPR

    -ve 0 0 0 0 0 0

    - - - - - -

    43 55 +ve 19.059 23.595 0 0 0 8.73

    13 DL+SID 16 DL+SID - - - 16 DL+SIDL+EPR

    -ve 0 0 0 0 0 0

    - - - - - -

    44 54 +ve 30.08 0 0 0 0 0

    18 DL+SID - - - - -

    -ve 0 -27.769 0 0 0 -20.28- 16 DL+SID - - - 16 DL+SIDL+EPR

    44 56 +ve 29.539 0 0 0 0 0

    18 DL+SID - - - - -

    -ve 0 -23.595 0 0 0 -9.72

    - 16 DL+SID - - - 18 DL+SIDL+AEP+40

    45 55 +ve 19.059 23.595 0 0 0 8.73

    13 DL+SID 16 DL+SID - - - 16 DL+SIDL+EPR

    -ve 0 0 0 0 0 0

    - - - - - -

    45 51 +ve 14.914 0 0 0 0 0

    13 DL+SID - - - - -

    -ve 0 -1.676 0 0 0 -25.66

    - 16 DL+SID - - - 16 DL+SIDL+EPR46 56 +ve 29.539 0 0 0 0 0

    18 DL+SID - - - - -

    -ve 0 -23.595 0 0 0 -9.72

    - 16 DL+SID - - - 18 DL+SIDL+AEP+40

    46 52 +ve 25.394 1.676 0 0 0 25.66

    18 DL+SID 16 DL+SID - - - 16 DL+SIDL+EPR

    -ve 0 0 0 0 0 0

    - - - - - -

    49 59 +ve 10.769 0 0 0 0 6.81

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    13 DL+SID - - - - 14 DL+SIDL+AEP+70

    -ve 0 -15.045 0 0 0 0

    - 16 DL+SID - - - -

    49 57 +ve 10.229 0 0 0 0 13.58

    13 DL+SID - - - - 16 DL+SIDL+EPR

    -ve 0 -15.911 0 0 0 0

    - 16 DL+SID - - - -

    50 60 +ve 21.25 15.045 0 0 0 0

    18 DL+SID 16 DL+SID - - - -

    -ve 0 0 0 0 0 -7.92

    - - - - - 18 DL+SIDL+AEP+40

    50 58 +ve 20.709 15.911 0 0 0 0

    18 DL+SID 16 DL+SID - - - -

    -ve 0 0 0 0 0 -13.58

    - - - - - 16 DL+SIDL+EPR

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    CORNER

    T BOGGIE CORNER

    +TR(GRAD)+70 R MID

    T BOGGIE CORNER

    +TR(GRAD)+70 R MID

    +TR(GRAD)+70 R CORNER

    +TR(GRAD)+70 R CORNER

    T BOGGIE MID

    +TR(GRAD)+40 T BOGGIE CORNER

    T BOGGIE MID

    +TR(GRAD)+40 T BOGGIE CORNER

    CORNER

    T BOGGIE CORNER

    - 18 DL+SID

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    T BOGGIE CORNER

    20.425

    T BOGGIE CORNER

    T BOGGIE CORNER

    T BOGGIE CORNER

    T BOGGIE CORNER

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    CORNER

    T BOGGIE CORNER

    T BOGGIE CORNER

    T BOGGIE CORNER

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    CORNER

    T BOGGIE CORNER

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