muro de sostenimiento

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Muro de Sostenimiento

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  • DISEO MURO SOSTENIMIENTOs/c = 250 kg/m2F'c= 175 kg/cm2Fy= 4200 kg/cm2 h' e1 = 8.75 c = 0.38 kg/cm2 0.78 kg/cm2

    2400 kg/m3 T1638 kg/m3

    h' = 0.15 mh = 4.00 m h W2e1 = 0.25 m Eae2 = 0.55 mhp = 0.55 mht = 0.40 m W3 YLp = 1.50 mLt = 1.50 md1= 0.40 md2= 0.40 m hp W1 ht

    Estabilidad al volteo Lp e2 LtCw= 0.74Ea= 10379 kg Y= 1.93 mMv= 20039 kg.m

    x(m) x. FW1= 4686 kg 1.78 8318W2= 2400 kg 1.63 3900W3= 1440 kg 1.85 2664T= 11426 kg 2.58 29422

    19952 kg Me = 44304 kg.m 2.22 mFS= 2.21 >1.5 ok

    Estabilidad al deslizamientof = 0.45FS = f * Suma fuerzas vert./ EaFS = 0.86501 < 1.5 Colocar dentelln

    Esfuerzos en el sueloF x' F.x'

    W= 19952 -0.45 -8888.8 Bz = 3.55 m Bz / 6 = 0.59 mEa= 10379 1.93 20039

    11150 e = 0.56 m < Bz / 6M= 11150 kg.m I= 3.72824 m4

    5620.28 + 5308.4 = 10929 kg/m2 = 1.09287 kg/cm2 < 0.78 5620.28 + -5308.4 = 311.882 kg/m2 = 0.03119 kg/cm2

    7617

    312

    c =s =

    xv =

    p =t =

    s =

    t =

  • Area de aceroAcero vertical cara posterior de la elevacinM= 2003865 kg.cm n= 10.58Fs = 2100 kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= 100 cm K= 10.1274Es= 2.1E+06 kg/cm2 d= 44.5 , tomamosEc= 198431 kg/cm2 d= 50 cm

    (cm) A (cm2)As = M/(fs.j.d) = 21 cm2 / m 17 1/2" 1/2" a 0.06 1.27 1.27

    13 5/8" 5/8" a 0.08 1.59 1.9811 3/4" 3/4" a 0.09 1.91 2.858 1" 1" a 0.12 2.54 5.07

    Acero inferior en la punta de la zapataM= 12295 kg.m = 1E+006 kg.cmFs = 2100 kg/cm2 (cm) A (cm2)d = 47.5 cm 0.098 0.01j = 0.9 0.95 0.71As = M/(fs.j.d) = 13.7 cm2 / m 11 1/2" 1/2" a 0.09 1.27 1.27

    9 5/8" 5/8" a 0.12 1.59 1.987 3/4" 3/4" a 0.14 1.91 2.855 1" 1" a 0.19 2.54 5.07

    Acero superior en taln de zapata de la zapataM= 8218.63 kg.m = 821863 kg.cmFs = 2100 kg/cm2 (cm) A (cm2)d = 47.5 cm 0.098 0.01j = 0.9 0.95 0.71As = M/(fs.j.d) = 9.2 cm2 / m 7 1/2" 1/2" a 0.14 1.27 1.27

    6 5/8" 5/8" a 0.17 1.59 1.985 3/4" 3/4" a 0.21 1.91 2.854 1" 1" a 0.28 2.54 5.07

    Asero mnimo = 5 cm2 4 1/2" 1/2" a 0.25 1.27 1.273 5/8" 5/8" a 0.32 1.59 1.983 3/4" 3/4" a 0.38 1.91 2.852 1" 1" a 0.51 2.54 5.07

    h' e1

    h

    hp ht

    p =

  • d1d2

    Lp e2 Lt

  • DISEO MURO DE CONTENCION EN TALUD, BLOCK 1, PABELLON As/c = 250 kg/m2 e1F'c= 175 kg/cm2Fy= 4200 kg/cm2 h' = 8.75 c = 0.38 kg/cm2 0.78 kg/cm2

    2400 kg/m3 T1638 kg/m3 W2

    h' = 0.01 m hh = 3.75 me1 = 0.25 m Eae2 = 0.60 mhp = 0.40 m W3ht = 0.65 m YLp = 1.70 mLt = 1.30 md1= 0.40 md2= 0.40 m hp W1 ht

    Estabilidad al volteo Lp e2 LtCw= 0.74Ea= 8521 kg Y= 1.65 mMv= 14088 kg.m

    x(m) x. FW1= 5106 kg 1.87 9531W2= 2250 kg 2.18 4894W3= 1575 kg 1.93 3045T= 8007 kg 2.95 23619

    16938 kg Me = 41089 kg.m 2.43 mFS= 2.92 >1.5 ok

    Estabilidad al deslizamientof = 0.45FS = f * Suma fuerzas vert./ EaFS = 0.89448 < 1.5 Colocar dentelln

    Esfuerzos en el sueloF x' F.x'

    W= 16938 -0.63 -10601 Bz = 3.60 m Bz / 6 = 0.60 mEa= 8521 1.65 14088

    3486.56 e = 0.21 m < Bz / 6M= 3486.56 kg.m I= 3.888 m4

    4704.87 + 1614.15 = 6319 kg/m2 = 0.6319 kg/cm2 < 0.78 4704.87 + -1614.1 = 3090.73 kg/m2 = 0.30907 kg/cm2

    6159

    3091

    c =s =

    xv =

    p =t =

    s =

    t =

  • Area de aceroAcero vertical cara posterior de la elevacinM= 854925 kg.cm n= 10.23Fs = 2100 kg/cm2 k= 0.27727fc = 79 kg/cm2 j = 0.90758b= 100 cm K= 9.90833Es= 2.0E+06 kg/cm2 d= 29.4 , tomamosEc= 198431 kg/cm2 d= 52.5 cm

    (cm) A (cm2)As = M/(fs.j.d) = 9 cm2 / m 7 1/2" 1/2" a 0.15 1.27 1.27

    4 5/8" 5/8" a 0.23 1.59 1.983 3/4" 3/4" a 0.33 1.91 2.852 1" 1" a 0.59 2.54 5.07

    Acero inferior en la punta de la zapataM= 913098 kg.cm n= 10.58Fs = 2100 kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= 100 cm K= 10.1274Es= 2.1E+06 kg/cm2 d= 30.0 , tomamosEc= 198431 kg/cm2 d= 57.5 cm

    (cm) A (cm2)As = M/(fs.j.d) = 8 cm2 / m 7 1/2" 1/2" a 0.15 1.27 1.27

    4 5/8" 5/8" a 0.237 1.59 1.983 3/4" 3/4" a 0.34 1.91 2.852 1" 1" a 0.61 2.54 5.07

    Acero superior en taln de zapata de la zapataM= 259259 kg.cm n= 10.58Fs = 2100 kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= 100 cm K= 10.1274Es= 2.1E+06 kg/cm2 d= 16.0 , tomamosEc= 198431 kg/cm2 d= 57.5 cm

    (cm) A (cm2)As = M/(fs.j.d) = 2 cm2 / m 2 1/2" 1/2" a 0.53 1.27 1.27

    1 5/8" 5/8" a 0.83 1.59 1.981 3/4" 3/4" a 1.20 1.91 2.85

    0.5 1" 1" a 2.14 2.54 5.07

    Acero mnimo = 5 cm2 4 1/2" 1/2" a 0.25 1.27 1.273 5/8" 5/8" a 0.40 1.59 1.982 3/4" 3/4" a 0.57 1.91 2.851 1" 1" a 1.01 2.54 5.07

    p =

  • 0.25

    1/2" a .25 1/2" a .15

    3.75

    1/2" a .25

    0.4 0.65

    1/2" a .15

    1.7 0.6 1.3 3.6

  • DISEO MURO DE CONTENCION EN TALUD BLOCKS 2 Y 3, PABELLON A

    s/c = 250 kg/m2 e1F'c= 175 kg/cm2Fy= 4200 kg/cm2 h' = 8.75 c = 0.38 kg/cm2 0.78 kg/cm2

    2400 kg/m3 T1638 kg/m3 W2

    h' = 0.45 m hh = 3.00 me1 = 0.25 m Eae2 = 0.53 mhp = 0.30 m W3ht = 0.50 m YLp = 1.27 mLt = 1.00 md1= 0.40 md2= 0.40 m hp W1 ht

    Estabilidad al volteo Lp e2 LtCw= 0.74Ea= 7052 kg Y= 1.42 mMv= 9981 kg.m

    x(m) x. FW1= 3055 kg 1.46 4446W2= 1800 kg 1.68 3015W3= 1008 kg 1.46 1468T= 5651 kg 2.30 12998

    11514 kg Me = 21927 kg.m 1.90 mFS= 2.20 >1.5 ok

    Estabilidad al deslizamientof = 0.45FS = f * Suma fuerzas vert./ EaFS = 0.73476 < 1.5 Colocar dentelln

    Esfuerzos en el sueloF x' F.x'

    W= 11514 -0.50 -5806.8 Bz = 2.80 m Bz / 6 = 0.47 mEa= 7052 1.42 9981.09

    4174.3 e = 0.36 m < Bz / 6M= 4174.3 kg.m I= 1.82933 m4

    4112.25 + 3194.61 = 7306.86 kg/m2 = 0.73069 kg/cm2 < 0.78 4112.25 + -3194.6 = 917.635 kg/m2 = 0.09176 kg/cm2

    5651

    c =s =

    xv =

    p =t =

    s =

  • 918

    Area de aceroAcero vertical cara posterior de la elevacinM= 645516 kg.cm n= 10.23Fs = 2100 kg/cm2 k= 0.27727fc = 79 kg/cm2 j = 0.90758b= 100 cm K= 9.90833Es= 2.0E+06 kg/cm2 d= 25.5 , tomamosEc= 198431 kg/cm2 d= 45.5 cm

    (cm) A (cm2)As = M/(fs.j.d) = 7 cm2 / m 6 1/2" 1/2" a 0.17 1.27 1.27

    4 5/8" 5/8" a 0.27 1.59 1.983 3/4" 3/4" a 0.38 1.91 2.851 1" 1" a 0.68 2.54 5.07

    Acero inferior en la punta de la zapataM= 589262 kg.cm n= 10.58Fs = 2100 kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= 100 cm K= 10.1274Es= 2.1E+06 kg/cm2 d= 24.1 , tomamosEc= 198431 kg/cm2 d= 42.5 cm

    (cm) A (cm2)As = M/(fs.j.d) = 7 cm2 / m 6 1/2" 1/2" a 0.17 1.27 1.27

    4 5/8" 5/8" a 0.271 1.59 1.983 3/4" 3/4" a 0.39 1.91 2.851 1" 1" a 0.69 2.54 5.07

    Acero superior en taln de zapata de la zapataM= 236673 kg.cm n= 10.58Fs = 2100 kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= 100 cm K= 10.1274Es= 2.1E+06 kg/cm2 d= 15.3 , tomamosEc= 198431 kg/cm2 d= 42.5 cm

    (cm) A (cm2)As = M/(fs.j.d) = 3 cm2 / m 2 1/2" 1/2" a 0.43 1.27 1.27

    1 5/8" 5/8" a 0.68 1.59 1.981 3/4" 3/4" a 0.97 1.91 2.851 1" 1" a 1.73 2.54 5.07

    Acero mnimo = 5 cm2 4 1/2" 1/2" a 0.25 1.27 1.273 5/8" 5/8" a 0.40 1.59 1.982 3/4" 3/4" a 0.57 1.91 2.851 1" 1" a 1.01 2.54 5.07

    t =p =

  • 0.25

    1/2" a .25 1/2" a .17

    3.00

    1/2" a .25 1/2" a .25

    0.3 0.50

    1/2" a .17

    1.27 0.53 1 2.8

  • DISEO MURO DE CONTENCION EN TALUD, BLOCK 1, PABELLON As/c = ### kg/m2 e1F'c= ### kg/cm2Fy= ## kg/cm2 h' = 9 c = 0.4 kg/cm2 1 kg/cm2

    ## kg/m3 T## kg/m3 W2

    h' = ### m hh = ### me1 = ### m Eae2 = ### mhp = ### m W3ht = ### m YLp = ### mLt = ### md1= ### md2= ### m hp W1 ht

    Estabilidad al volteo Lp e2 LtCw= ###Ea= ## kg Y= ### mMv= # kg.m

    x(m) x. FW1= ## kg 1.87 11097W2= ## kg 2.18 4698W3= ## kg 2.42 3654T= ## kg 3.13 20789

    # kg Me = 40237 kg.m 2.48 mFS= 3.20 >1.5 ok

    Estabilidad al deslizamientof = 0.5FS = f * Suma fuerzas vert./ EaFS = 1 < 1.5 Colocar dentelln

    Esfuerzos en el sueloF x' F.x'

    W= # -0.68 -10983 Bz = 3.60 m Bz / 6 0.60 mEa= ## 1.60 12594

    1610.26 e = 0.10 m < Bz / 6M= 1610.26 kg.m I= 3.888 m4

    ### + 745.491 = 5260 kg/m2 = 0.526 kg/cm < 0.78 ### + -745.49 = 3769 kg/m2 = 0.3769 kg/cm2

    7002

    3769

    c =s =

    xv =

    p =t =

    s =

    t =p =

  • Area de aceroAcero vertical cara posterior de la elevacinM= ### kg.cm n= 10.23Fs = ## kg/cm2 k= 0.27727fc = 79 kg/cm2 j = 0.90758b= ### cm K= 9.90833Es= ### kg/cm2 d= 25.2 , tomamosEc= ### kg/cm2 d= 52.5 cm

    (cm) A (cm2)As = M/(fs.j.d) 6 cm2 / m 5 1/2" 1/2" a 0.20 1.27 1.27

    3 5/8" 5/8" a 0.31 1.59 1.982 3/4" 3/4" a 0.45 1.91 2.851 1" 1" a 0.80 2.54 5.07

    Acero inferior en la punta de la zapataM= ### kg.cm n= 10.58Fs = ## kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= ### cm K= 10.1274Es= ### kg/cm2 d= 33.0 , tomamosEc= ### kg/cm2 d= 72.5 cm

    (cm) A (cm2)As = M/(fs.j.d) 8 cm2 / m 6 1/2" 1/2" a ### 1.27 1.27

    4 5/8" 5/8" a 0.25 1.59 1.983 3/4" 3/4" a 0.36 1.91 2.852 1" 1" a 0.63 2.54 5.07

    Acero superior en taln de zapata de la zapataM= ### kg.cm n= 10.58Fs = ## kg/cm2 k= 0.28411fc = 79 kg/cm2 j = 0.9053b= ### cm K= 10.1274Es= ### kg/cm2 d= 12.0 , tomamosEc= ### kg/cm2 d= 72.5 cm

    (cm) A (cm2)As = M/(fs.j.d) 1 cm2 / m 1 1/2" 1/2" a 1.20 1.27 1.27

    1 5/8" 5/8" a 1.87 1.59 1.980.4 3/4" 3/4" a 2.69 1.91 2.850.2 1" 1" a 4.79 2.54 5.07

    Acero mnimo 5 cm2 4 1/2" 1/2" a 0.25 1.27 1.273 5/8" 5/8" a 0.40 1.59 1.982 3/4" 3/4" a 0.57 1.91 2.851 1" 1" a 1.01 2.54 5.07

  • 0.25

    1/2" a .25

    1/2" a .20

    3.60

    1/2" a .25

    0.4 0.80

    1/2" a .150.4

    2.05 0.6 0.95 3.6

  • 0.25

    1/2" a .25 1/2" a .17

    2.55

    1/2" a .25 1/2" a .25

    0.30.50

    1/2" a .20

  • 1.00 0.53 0.80 2.33

    m1muro plataforma 1muro talud blocks 2 y 3muro eje 15MC-1