Top Banner

of 23

Muro de Sostenimiento

Mar 09, 2016

Download

Documents

Nebur Cm

Muro de Sostenimiento
Welcome message from author
This document is posted to help you gain knowledge. Please leave a comment to let me know what you think about it! Share it to your friends and learn new things together.
Transcript
  • 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