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STATICAL CALCULATION 30 – TGD – FANSIPAN, VIETNAM Top station tower Client: Doppelmayr Seilbahnen GmbH Rickenbacherstraße 8 – 10 6961 Wolfurt August 2014 RM Lei Lei Date elaborated checked released Project No.: W1316 total 101 Pages

W1316 Static Top Station Tower

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  • STATICAL CALCULATION

    30 TGD FANSIPAN, VIETNAM

    Top station tower

    Client: Doppelmayr Seilbahnen GmbH Rickenbacherstrae 8 10 6961 Wolfurt

    August 2014 RM Lei Lei Date elaborated checked released

    Project No.: W1316 total 101 Pages

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    CONTENTS

    1. General 42. Basis 42.1. Relevant drawings and documents 42.2. Verifications and calculations 42.3. Materials 52.4. Foundation parameters 52.5. Software 63. Load cases / Combination of load cases 63.1. Tower view 63.2. Support points of the steel plate 73.3. Design criteria 73.4. Safety Factors 83.5. Load cases 83.6. Tower support reactions 93.6.1. Dead load 103.6.2. Earth pressure 103.6.3. RFEM - Documentation of input data 113.6.4. Support reaction in LC: SLS In operation (iB) 123.6.5. Support reaction in LC: SLS Out operation (aB) 123.6.6. Support reaction in LC: SLS Construction (MT) 133.6.7. Support reaction in LC: SLS Seismic (EB) 133.6.8. Support reaction in LC: ULS In operation (iB) 143.6.9. Support reaction in LC: ULS Out operation (aB) 143.6.10. Support reaction in LC: ULS Construction (MT) 153.7. Load combination 154. Stability calculations 164.1. Sliding 164.2. Uplift 164.2.1. Sliding and Uplift Foundation downhill Sn5+6 17

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    4.2.2. Sliding and Uplift Foundation middle Sn3+4 214.2.3. Sliding and Uplift Foundation mountain Sn1+2 244.3. Overturning 274.4. Allowable foundation bearing stress 284.4.1. Max contact stresses Foundation 285. RFEM- Report 296. Verification of load distribution at Sn6 101

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    1. General

    The consulting engineers society BauCon ZT GmbH was authorized by Doppelmayr

    Seilbahnen Ges.m.b.H. to perform the statical calculations of the tower foundations and both

    stations as well as formwork and reinforcement drawings for the project 30 TGD

    Fansipan, Vietnam. The statical calculation of the top station tower is given in the following

    document.

    2. Basis

    2.1. Relevant drawings and documents

    a) Final Report Geology Geotechnics from Geognos Bertle ZL.0912003-01/14 (from

    16.01.2014)

    b) Support reaction top station tower from Doppelmayr, support Number : 009E1465 (from

    26.02.2014)

    c) Design structure of top station from Doppelmayr, drawing Number : 200136931E001101,

    (from 15.04.2014)

    2.2. Verifications and calculations

    The following verifications are to be performed for each single foundation:

    - stability (sliding, overturning, uplifting)

    - design of concrete foundation

    - load distribution into pedestal Sn6

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    The following Codes are used:

    - EN 1990: 2001; EC0 Basic of structural design

    - EC1 EN 1991-1-4 Wind actions

    - EC2 EN 1992-1-1 Design of concrete structures

    - EC7 EN 1997 1 Geotechnical engineering spread foundations

    - TCVN 2737-1995_Loads and Actions-Design Code

    - EN 1998-1: 2005; Design of structures for earthquake resistance.

    - EN 13107 Safety requirements for cableway installations designed to carry persons Civil engineering works

    2.3. Materials

    Blinding concrete MAC 200 (C12/15) concrete

    Foundation tower MAC 250 (C16/20) concrete

    Unit Weight concr. = 25kN/m3 Safety Factor C = 1,50 usual load condition C = 1,30 extreme load condition

    Reinforcement Steel 365S

    Allowed tensile Strength fyk = 365MPa

    Safety Factor S = 1,15 usual load condition S = 1,00 extreme load condition

    2.4. Foundation parameters According to geology report the following foundation parameters are used:

    Unit Weight = 17kN/m Angle of internal friction = 30 Cohesion c = 400kN/m

    Modulus of elasticity E = 7.230MN/m

    Soil bearing capacity z = 1000kN/m

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    2.5. Software

    Dlubal RFEM Version 5.02.0030

    3. Load cases / Combination of load cases 3.1. Tower view

    Bottom station Top station

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    3.2. Support points of the steel plate

    3.3. Design criteria Foundation loads of Doppelmayr (calculation No. 009E1465) provide the base for the

    following combinations

    According to EN 13107 there are 3 combinations of load cases to examine:

    - Permanent design situation

    1j 1i ki

    Q0iQik1QQ1KjGGjDS

    - Combination for accidental design situation

    1j 1i ki

    Q2ik1QKjGGAjDS 1i - Combination due to seismic loads

    1j 1i ki

    Q2iA1KjGDS Ed

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    3.4. Safety Factors

    for dead loads dead_load = 1,35 for live loads live_load = 1,50 for earthquake loads earthquake = 1,00 for all variable actions 0i = 1,00

    3.5. Load cases

    Load cases according structural calculation of Doppelmayr from rope and steel structure:

    - Self weight

    - max. uphill ropes at 30C with full cabins with friction - max. downhill ropes at 30C with full cabins with friction - uphill ropes at 30C and empty cabins with friction - downhill ropes at 30C and empty cabins with friction - uphill iced ropes with friction

    - downhill iced ropes with friction

    - uphill rope empty at 30C - downhill rope empty at 30C - crosswind on uphill ropes with cabins

    - crosswind on downhill ropes with cabins

    - crosswind on empty uphill ropes

    - crosswind on empty downhill ropes

    - crosswind on tower

    - wind line direction on tower

    - snow

    - one full cabin on tower uphill

    - one full cabin on tower downhill

    - rescue vehicles on tower

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    Following combinations of load cases are examined:

    - Combinations of load case ropeway in operation:

    - Combination of load cases out of operation:

    - Combination of load case: Construction

    - Combination of load cases: (in operation: seismic load)

    Each combination is examined for Nmin and Nmax

    Following loads cases are examined in RFEM

    3.6. Tower support reactions

    Below the support reactions for serviceability limit state, ultimate limit state and extraordinary

    limit state are given as calculated by Doppelmayr.

    These loads are reaction forces and have to be transformed into the coordinate system used

    for the column foundations. Forces are shown for each connection point of a foundation,

    therefore the support reactions are divided in halves.

    k Characteristic value d Design value iB In operation aB ..Out of operation MT .Construction EB..Seismic

    CS - Doppelmayr CS - BauCon

    Rz

    Rx

    Ry

    Y

    Z

    X

    X

    Y

    Z Px = Rx

    Py = -Ry

    Pz = Rz Px = + * Rx {Ri Reaction Doppelmayr} Py = - * Ry Pz = + * Rz

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    3.6.1. Dead load

    Dead load from the hole concrete structure in RFEM .

    Unit Weight concr. = 25kN/m3

    3.6.2. Earth pressure

    Backfill unit weight: backfill. = 17kN/m3 Angle of shearing resistance Filling, d = 30 Horizontal component of the earth pressure

    eh_top = 0

    eh_bottom = x h x Kah

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    3.6.3. RFEM - Documentation of input data

    The below table contains the load case identification from the steel dimensioning from

    Doppelmayr as well as their corresponding load case numbers for this calculation

    Loadcasecombination/LoadcasenumbersDoppelmayr BAUCON Abbreviations:

    LFK LC SLSiB+Y 3 iB k CharacteristicvalueSLSiBY 4 iB d DesignvalueSLSaB+Y 5 aB iB InoperationSLSaBY 6 aB aB OutofoperationSLSMT+Y 7 MT MT ConstructionSLSMTY 8 MT EB+Y 9 EB EBY 10 EB

    ULSiB+Y 11 iB ULSiBY 12 iBULSaB+Y 13 aBULSaBY 14 aBULSMT+Y 15 MTULSMTY 16 MT

    Support points in RFEM:

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    3.6.4. Support reaction in LC: SLS In operation (iB)

    loadcase: 3support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 3 80 38 445Sn3 3 58 33 480Sn5 3 235 50 700Sn2 3 50 20 23Sn4 3 100 18 83Sn6 3 20 30 203

    loadcase: 4support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 4 85 23 93Sn3 4 123 18 13Sn5 4 3 33 173Sn2 4 123 40 575Sn4 4 83 30 593Sn6 4 260 50 785

    3.6.5. Support reaction in LC: SLS Out operation (aB)

    loadcase: 5support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 5 193 95 780Sn3 5 193 90 815Sn5 5 378 95 1020Sn2 5 170 80 385Sn4 5 240 78 318Sn6 5 175 80 253

    loadcase: 6support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 6 173 78 360Sn3 6 243 78 303Sn5 6 188 85 253Sn2 6 193 90 753Sn4 6 195 90 798Sn6 6 388 100 1023

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    3.6.6. Support reaction in LC: SLS Construction (MT)

    loadcase: 7support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 7 113 75 540Sn3 7 53 33 615Sn5 7 340 95 935Sn2 7 185 63 415Sn4 7 300 18 163Sn6 7 65 75 5

    loadcase: 8support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 8 185 60 400Sn3 8 85 18 153Sn5 8 70 75 5Sn2 8 185 73 528Sn4 8 300 33 605Sn6 8 345 98 935

    3.6.7. Support reaction in LC: SLS Seismic (EB)

    loadcase: 9support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 9 110 50 535Sn3 9 103 45 565Sn5 9 285 60 763Sn2 9 78 33 73Sn4 9 143 30 20Sn6 9 108 40 385

    loadcase: 10support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 10 108 35 158Sn3 10 165 33 63Sn5 10 63 60 40Sn2 10 143 53 620Sn4 10 125 45 635Sn6 10 38 58 833

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    3.6.8. Support reaction in LC: ULS In operation (iB)

    loadcase: 11support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 11 125 58 680Sn3 11 105 50 718Sn5 11 375 80 1048Sn2 11 88 33 48Sn4 11 160 33 50Sn6 11 5 50 200

    loadcase: 12support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 12 138 38 193Sn3 12 368 118 540Sn5 12 28 53 175Sn2 12 190 63 873Sn4 12 308 133 1170Sn6 12 393 75 1173

    3.6.9. Support reaction in LC: ULS Out operation (aB)

    loadcase: 13support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 13 288 140 1138Sn3 13 305 133 1193Sn5 13 558 143 1503Sn2 13 288 123 633Sn4 13 363 118 555Sn6 13 315 120 538

    loadcase: 14support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 14 260 118 608Sn3 14 368 118 540Sn5 14 328 128 538Sn2 14 288 135 1098Sn4 14 305 133 1170Sn6 14 573 148 1505

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    3.6.10. Support reaction in LC: ULS Construction (MT)

    loadcase: 15support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 15 168 110 800Sn3 15 450 48 888Sn5 15 500 140 1363Sn2 15 275 93 640Sn4 15 448 28 288Sn6 15 115 110 63

    loadcase: 16support LFK Rx[kN] Ry[kN] Rz[kN]Sn1 16 275 90 618Sn3 16 450 28 275Sn5 16 123 140 63Sn2 16 275 108 780Sn4 16 85 48 875Sn6 16 508 145 1363

    3.7. Load combination

    SLS Service ability limit state

    ULS Ultimate limit state

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    4. Stability calculations

    4.1. Sliding

    For each pair of pedestal heads (Sn1+2, Sn3+4, Sn5+6) the verification of safety against

    sliding is to be performed.

    Here the following assumptions are valid:

    Horizontal actions Hk

    Decisive actions at top of the foundations (resulting from x- and y-direction)

    Vertical actions Vk

    Decisive actions at top of the foundations

    Verification according EC7 1997-1

    Hk / (Vk * tand) 1,0

    tan d = tan k / tan k = tan k / 1,2 Safety factor for loads = 1,3 Angle of internal friction k

    4.2. Uplift

    Vdst,d / Gstb,d 1,0

    Uplift force Vdst,d = Q,dst x Vabh Dead load Gstb,d = G,stb x Gk Safety factor for ULS EQU Q,dst = 1,5 (s.EN1997-1; Annex. A, Tab.A.1) G,stb = 0,9

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    4.2.1. Sliding and Uplift Foundation downhill Sn5+6

    Vertical component on base plate: Fansipan - Top station tower Seehhe ~ 2999 m

    Schttung,d = 17,0 kN/m Schttung,d = 30,00

    ha1 = 6,27 m hc1 = 7,04 m ha2 = 4,55 m hc2 = 4,56 m ha3 = 4,90 m hc3 = 6,28 m ha4 = 3,45 m hc4 = 3,84 m ha5 = 3,76 m hc5 = 4,39 m ha6 = 2,42 m hc6 = 1,96 m ha7 = 2,60 m hc7 = 4,39 m

    hb1 = 7,04 m hb2 = 4,70 m hb3 = 6,45 m hb4 = 4,12 m hb5 = 4,84 m hb6 = 2,50 m hb7 = 4,20 m

    hc1,c2hc3,c4

    hc5,c6 hc7

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    Horizontal component of the wall with snow (active earth pressure ) In the lift-axis 1 = -27,00 Across the lift-axis 2 = 0,0 Filling,d = 30,0 In the lift-axis 1 = 19,0 Across the lift-axis 2 = 18,0 = 2/3 x d = 20,0 d = 17,0 kN/m cd = 400,0 h = 4,60 m In the lift-axis b1 = 2,00 m Across the lift-axis b2oben = 2,39 m Across the lift-axis b2unten = 4,47 m

    RFEM: b1Member = 0,65 m b2Member = 0,70 m

    In the lift-axis 1a = 53,18 K1a = 0,86 K1ah = 0,59

    e1h_top = sk x K1ah = 0,0 kN/m

    e1h_top_memb. = e1h_top x b1memb. / 2 = 0,0 kN/m

    e1h_bottom = (sk + x h) x K1ah = 45,8 kN/m e1h_bottom_memb. = e1h_bottom x b1memb. / 2 = 14,9 kN/m

    E1h1 = e1h_top x h x b1 + (e1h_bottom - e1h_top) x b1 x h / 2

    E1h1 = 210,5 kN

    Across the lift-axis 2a = 50,39

    K2a =0,39

    K2ah = 0,37

    e2h_top = sk x K2ah = 0,0 kN/m

    e2h_top_member = e2h_top x b2top/2 = 0,0 kN/m

    e2h_bottom = x h x K2ah = 29,0 kN/m e2h_bottom_member = e2h_bottom x b2member / 2 = 10,1 kN/m

    E2h1 = (b2bottom + b2top) x e2h_bottom x h / 4

    E2h1 = 228,8 kN

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    Horizontal component of the vertical plate (active earth pressure ):

    sk = 0,0 kN/m In the lift-axis 1 = 0,0 Across the lift-axis 2 = 0,0 d = 30,0 In the lift-axis 1 = 19,0 Across the lift-axis 2 = 18,0 = 0,0 d = 17,0 kN/m cd = 400,0 htop = 4,60 m hbottom = 5,30 m

    hPlate = hbottom - htop = 0,70 m In the lift-axis b1 = 9,00 m Across the lift-axis b2 = 9,28 m

    In the lift-axis 1a = 53,91 K1a = 0,43 K1ah = 0,43

    e1h_top = x htop x K1ah = 33,8 kN/m e1h_bottom = x bottom x K1ah = 38,9 kN/m

    e1h_Plate =(e1h_top+e1h_bottom)/2 x hPlate = 25,4 kN/m E1h2 = e1h_top x hPlate x b1 + (e1h_bottom - e1h_top) x b1 x hPlate / 2 E1h2 = 229,0 kN qE1h2 = 25,4 kN/m Across the lift-axis 2a = 54,64 K2a = 0,42 K2ah = 0,42

    e2h_top = x htop x K2ah = 33,1 kN/m e2h_bottom = x hbottom x K2ah = 38,2 kN/m

    e2h_Plate =(e2h_top+e2h_bottom)/2 x hPlate = 25,0 kN/m E2h2 = e2h_top x hPlate x b2 + (e2h_bottom - e2h_top) x b2 x hPlate / 2 E2h2 = 231,6 kN qE2h2 = 25,0 kN/m

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    Safety against sliding and uplift:

    G1 = 3100,0 kN Deadload fundation G2 = 4421,2 kN Deadload filling

    Gk = G1 + G2 = 8082,5 kN Sum Loads Vabh = 0,0 kN Uplift force from the tower

    Vk = Gk - Vabh = 7521,2 kN Sum total vertical forces Rx = 630,0 kN max. horizontal force in lift- axis direction Ry = 370,0 kN max. horizontal force in across lift-axis direction

    HSt = (Rx + Ry)0,5 = 730,6 kN horizontal force from the tower Eh1 = ((2*E1h1) + E2h1)0,5 = 479,1 kN horizontal force from the Earthpressure on the wall

    Eh2 = (E1h2 + E2h2)0,5 = 325,7 kN horizontal force from the Earthpressure on the plate Safety against uplift: Q,dst = 1,50 Safety factor for ULS EQU G,stb = 0,90 (s.EN1997-1; Annex. A, Tab.A.1) Vdst,d = Q,dst x Vabh = 0,0 kN Gstb,d = G,stbxGk = 6769,1 kN Vdst,d / Gstb,d = 0,00 1,0

    Safety against sliding: tan d = tan k / with = 1,30 Safety factor for loads tan k = tan k / 1,2 tan d = 0,35 Hk / (Vk * tand) = 0,59 1,0

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    4.2.2. Sliding and Uplift Foundation middle Sn3+4

    Horizontal component of the wall (active earth pressure ) In the lift-axis 1 = -22,00 Across the lift-axis 2 = 0,0 Filling, d = 30,0 In the lift-axis 1 = 21,0 Across the lift-axis 2 = 22,0 = 2/3 x d = 20,0 d = 17,0 kN/m cd = 400,0 h = 4,66 m In the lift-axis b1 = 2,00 m Across the lift-axis b2top = 2,34 m Across the lift-axis b2bottom = 4,14 m

    RFEM: b1Member = 0,65 m b2Member = 0,70 m

    In the lift-axis 1a = 50,95 K1a = 0,78 K1ah = 0,58

    e1h_top = sk x K1ah = 0,0 kN/m

    e1h_top_member = e1h_top x b1member/2 = 0,0 kN/m

    e1h_bottom = x h x K1ah = 46,0 kN/m e1h_bottom_member = e1h_bottom x b1member/2 = 15,0 kN/m

    E1h1 = e1h_top x h x b1 + (e1h_bottom - e1h_top) x b1 x h / 2

    E1h1 = 214,4 kN

    Across the lift-axis 2a = 47,51 K2a = 0,44

    K2ah = 0,41

    e2h_top = sk x K2ah = 0,0 kN/m

    e2h_top_member = e2h_top x b2top/2 = 0,0 kN/m

    e2h_bottom = x h x K2ah = 32,6 kN/m e2h_bottom_member = e2h_bottom x b2member / 2 = 11,4 kN/m

    E2h1 = (b2bottom + b2top) x e2h_bottom x h / 4

    E2h1 = 246,2 kN

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    Horizontal component of the vertical plate (active earth pressure ):

    sk = 0,0 kN/m In the lift-axis 1 = 0,0 Across the lift-axis 2 = 0,0 d = 30,0 In the lift-axis 1 = 21,0 Across the lift-axis 2 = 22,0 = 0,0 d = 17,0 kN/m cd = 400,0 htop = 4,66 m hbottom = 5,36 m

    hPlate = hbottom - htop = 0,70 m In the lift-axis b1 = 9,00 m Across the lift-axis b2 = 7,59 m

    In the lift-axis 1a = 52,26 K1a = 0,45 K1ah = 0,45

    e1h_top = x htop x K1ah = 35,7 kN/m e1h_bottom = x hbottom x K1ah = 41,1 kN/m

    e1h_Plate =(e1h_top+e1h_bottom)/2 x hPlate = 26,9 kN/m E1h2 = e1h_top x hPlate x b1 + (e1h_bottom - e1h_top) x b1 x hPlate / 2 E1h2 = 242,0 kN qE1h2 = 26,9 kN/m Across the lift-axis 2a = 51,33 K2a = 0,46 K2ah = 0,46

    e2h_top = x htop x K2ah = 36,6 kN/m e2h_bottom = x hbottom x K2ah = 42,1 kN/m

    e2h_Plate =(e2h_top+e2h_bottom)/2 x hPlate = 27,6 kN/m E2h2 = e2h_top x hPlate x b2 + (e2h_bottom - e2h_top) x b2 x hPlate / 2 E2h2 = 209,1 kN qE2h2 = 27,6 kN/m

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    Safety against sliding and uplift :

    G1 = 3000,0 kN Deadload fundation G2 = 4041,3 kN Deadload filling

    Gk = G1 + G2 = 7041,3 kN Sum Loads Vabh = 0,0 kN Uplift force from the tower

    Vk = Gk - Vabh = 7041,3 kN Sum total vertical forces Rx = 660,0 kN max. horizontal force in lift- axis direction Ry = 330,0 kN max. horizontal force in across lift-axis direction

    HSt = (Rx + Ry)0,5 = 737,9 kN horizontal force from the tower Eh1 = ((2*E1h1) + E2h1)0,5 = 494,4 kN horizontal force from the Earthpressure on the wall

    Eh2 = (E1h2 + E2h2)0,5 = 319,9 kN horizontal force from the Earthpressure on the plate Safety against uplift: Q,dst = 1,50 Safety factor for ULS EQU G,stb = 0,90 (s.EN1997-1; Annex. A, Tab.A.1) Vdst,d = Q,dst x Vabh = 0,0 kN Gstb,d = G,stbxGk = 6337,2 kN Vdst,d / Gstb,d = 0,00 1,0

    Safety against sliding: tan d = tan k / with = 1,30 Safety factor for loads for Extraordinary tan k = tan k / 1,2 tan d = 0,35 Hk / (Vk * tand) = 0,63 1,0

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    4.2.3. Sliding and Uplift Foundation mountain Sn1+2

    Horizontal component of the wall (active earth pressure ) In the lift-axis 1 = -13,00 Across the lift-axis 2 = 0,0 Filling, d = 30,0 In the lift-axis 1 = 29,0 Across the lift-axis 2 = 22,0 = 2/3 x d = 20,0 d = 17,0 kN/m cd = 400,0 h = 3,71 m In the lift-axis b1 = 2,00 m Across the lift-axis b2top = 2,31 m Across the lift-axis b2bottom = 3,18 m

    RFEM: b1Member = 0,65 m b2Member = 0,70 m

    In the lift-axis 1a = 37,37 K1a = 0,90 K1ah = 0,76

    e1h_top = sk x K1ah = 0,0 kN/m

    e1h_top_Member = e1h_top x b1Member/2 = 0,0 kN/m

    e1h_bottom = x h x K1ah = 47,7 kN/m e1h_bottom_Member = e1h_bottom x b1Member/2 = 15,5 kN/m

    E1h1 = e1h_top x h x b1 + (e1h_bottom - e1h_top) x b1 x h / 2

    E1h1 = 176,9 kN

    Across the lift-axis 2a = 47,51 K2a = 0,44

    K2ah = 0,41

    e2h_top = sk x K2ah = 0,0 kN/m

    e2h_top_Member = e2h_top x b2top/2 = 0,0 kN/m

    e2h_bottom = x h x K2ah = 26,0 kN/m e2h_bottom_Member = e2h_bottom x b2Member / 2 = 9,1 kN/m

    E2h1 = (b2bottom + b2top) x e2h_bottom x h / 4

    E2h1 = 132,2 kN

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    Horizontal component of the vertical plate (active earth pressure ):

    sk = 0,0 kN/m In the lift-axis 1 = 0,0 Across the lift-axis 2 = 0,0 d = 30,0 In the lift-axis 1 = 29,0 Across the lift-axis 2 = 22,0 = 0,0 d = 17,0 kN/m cd = 400,0 htop = 3,71 m hbottom = 4,41 m

    hPlate = hbottom - htop = 0,70 m In the lift-axis b1 = 9,00 m Across the lift-axis b2 = 7,48 m

    In the lift-axis 1a = 38,98 K1a = 0,62 K1ah = 0,62

    e1h_top= x htop x K1ah = 39,1 kN/m e1h_bottom = x hbottom x K1ah = 46,5 kN/m

    e1h_Plate =(e1h_top+e1h_bottom)/2 x hPlate = 30,0 kN/m E1h2 = e1h_top x hPlate x b1 + (e1h_bottom - e1h_top) x b1 x hPlate / 2 E1h2 = 269,6 kN qE1h2 = 30,0 kN/m Across the lift-axis 2a = 51,33 K2a = 0,46 K2ah = 0,46

    e2h_top = x htop x K2ah = 29,1 kN/m e2h_bottom = x hbottom x K2ah = 34,6 kN/m

    e2h_Plate =(e2h_top+e2h_bottom)/2 x hPlate= 22,3 kN/m E2h2 = e2h_top x hPlate x b2 + (e2h_bottom - e2h_top) x b2 x hPlate / 2 E2h2 = 167,0 kN qE2h2 = 22,3 kN/m

  • W1316 30-TGD Fansipan Top station tower Page 26

    Project No.: W1316 08.2014

    Safety against sliding and uplift:

    G1 = 3100,0 kN Deadload fundation G2 = 4041,3 kN Deadload filling

    Gk = G1 + G2 = 7141,3 kN Sum Loads Vabh = 0,0 kN Uplift force from the tower

    Vk = Gk - Vabh = 7141,3 kN Sum total vertical forces Rx = 450,0 kN max. horizontal force in lift- axis direction Ry = 350,0 kN max. horizontal force in across lift-axis direction

    HSt = (Rx + Ry)0,5 = 570,1 kN horizontal force from the tower Eh1 = ((2*E1h1) + E2h1)0,5 = 377,7 kN horizontal force from the Earthpressure on the wall

    Eh2 = (E1h2 + E2h2)0,5 = 317,1 kN horizontal force from the Earthpressure on the plate

    Safety against uplift: Q,dst = 1,50 Safety factor for ULS EQU G,stb = 0,90 (s.EN1997-1; Annex. A, Tab.A.1) Vdst,d = Q,dst x Vabh = 0,0 kN Gstb,d = G,stbxGk = 6427,2 kN Vdst,d / Gstb,d = 0,00 1,0

    Safety against sliding: tan d = tan k / with = 1,30 Safety factor for loads tan k = tan k / 1,2 tan d = 0,35 Hk / (Vk * tand) = 0,51 1,0

  • W1316 30-TGD Fansipan Top station tower Page 27

    Project No.: W1316 08.2014

    4.3. Overturning

    Overturning is calculated by finite elements of the foundation slab.

    Compression area at the base 100%

  • W1316 30-TGD Fansipan Top station tower Page 28

    Project No.: W1316 08.2014

    4.4. Allowable foundation bearing stress

    The soil pressure must be lower than the maximal allowable pressure due to the geological

    report.

    Soil bearing capacity z = 1000kN/m

    4.4.1. Max contact stresses Foundation

    Max contact stresses zmax = 600 kN/m < z = 1000kN/m

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    CONTENTS Model - General Data 30 base plate: RF-CONCRETE Surfaces - Required 71 FE Mesh Settings 30 Reinforcement as,1,-z (top), CA1,

    1 Model Isometric Nodes 30 base plate: RF-CONCRETE Surfaces - Required 72 Lines 31 Reinforcement as,2,-z (top), CA1, Materials 33 Isometric Surfaces 34 base plate: RF-CONCRETE Surfaces - Shear 73 Surfaces - Eccentricities 34 Reinforcement asw, CA1, Isometric Surfaces - Integrated Objects 34 CA2 - Wnde Surface Supports 35 General Data 74 Surface Supports - Ineffective 35 Materials 74 Cross-Sections 35 Surfaces 74 Members 35 Reinforcement Group No. 1 74 FE Mesh Refinements 36 Pedestal mountain side: RF-CONCRETE Surfaces - 75 Model, Isometric 37 Required Reinforcement as,1,+z mountain side: Nodes, Isometric 38 (bottom), CA2, Isometric mountain side: Lines, Isometric 38 Pedestal mountain side: RF-CONCRETE Surfaces - 76 mountain side: Surfaces, Isometric 39 Required Reinforcement as,2,+z mountain side: Members, Isometric 39 (bottom), CA2, Isometric mountain side: Axes, Isometric 40 Pedestal mountain side: RF-CONCRETE Surfaces - 77 mountain side: Supports & mesh, Isometric 40 Required Reinforcement as,1,-z (top), Middle: Nodes, Isometric 41 CA2, Isometric Middle: Lines, Isometric 41 Pedestal mountain side: RF-CONCRETE Surfaces - 78 Middle: Surfaces, Isometric 42 Required Reinforcement as,2,-z (top), Middle: Members, Isometric 42 CA2, Isometric Middle: Axes, Isometric 43 Pedestal mountain side: RF-CONCRETE Surfaces - 79 Middle: Supports & mesh, Isometric 43 Shear Reinforcement asw, CA2, Isometric Downhill side: Nodes, Isometric 44 Pedestal middle: RF-CONCRETE Surfaces - Required 80 Downhill side: Lines, Isometric 44 Reinforcement as,1,+z (bottom), CA2, Downhill side: Surfaces, Isometric 45 Isometric Downhill side: Members, Isometric 45 Pedestal middle: RF-CONCRETE Surfaces - Required 81 Downhill side: Axes, Isometric 46 Reinforcement as,2,+z (bottom), CA2, Downhill side: Supports & mesh, Isometric 46 Isometric

    2 Load Cases and Combinations Pedestal middle: RF-CONCRETE Surfaces - Required 82 Load Cases 47 Reinforcement as,1,-z (top), CA2, Load Combinations 47 Isometric Result Combinations 48 Pedestal middle: RF-CONCRETE Surfaces - Required 83

    3 Loads Reinforcement as,2,-z (top), CA2, LC2 - Member Loads 48 Isometric LC2 - Surface Loads 48 Pedestal middle: RF-CONCRETE Surfaces - Shear 84 LC2 - LC2: g_Earth pressure_k, Isometric 50 Reinforcement asw, CA2, Isometric LC3 - Nodal Loads 51 Pedestal downhill side: RF-CONCRETE Surfaces - 85 LC3 - LC3: p_SLS-iB_+y, Isometric 51 Required Reinforcement as,1,+z LC4 - Nodal Loads 51 (bottom), CA2, Isometric LC4 - LC4: p_SLS-iB_-y, Isometric 52 Pedestal downhill side: RF-CONCRETE Surfaces - 86 LC5 - Nodal Loads 52 Required Reinforcement as,2,+z LC5 - LC5: p_SLS-aB_+y, Isometric 52 (bottom), CA2, Isometric LC6 - Nodal Loads 53 Pedestal downhill side: RF-CONCRETE Surfaces - 87 LC6 - LC6: p_SLS-aB_-y, Isometric 53 Required Reinforcement as,1,-z (top), LC7 - Nodal Loads 53 CA2, Isometric LC7 - LC7: p_SLS-MT_+y, Isometric 54 Pedestal downhill side: RF-CONCRETE Surfaces - 88 LC8 - Nodal Loads 54 Required Reinforcement as,2,-z (top), LC8 - LC8: p_SLS-MT_-y, Isometric 54 CA2, Isometric LC9 - Nodal Loads 55 Pedestal downhill side: RF-CONCRETE Surfaces - 89 LC9 - LC9: a_EB_+y, Isometric 55 Shear Reinforcement asw, CA2, Isometric LC10 - Nodal Loads 55 RF-CONCRETE Members LC10 - LC10: a_EB_-y, Isometric 56 CA1 - Sttzenkopf LC11 - Nodal Loads 56 General Data 90 LC11 - LC11: p_ULS-iB_+y, Isometric 56 Settings - Nonlinear Calculation (State II) 90 LC12 - Nodal Loads 57 Materials 90 LC12 - LC12: p_ULS-iB_-y, Isometric 57 Cross-Sections 90 LC13 - Nodal Loads 57 Reinforcement Group No. 1 90 LC13 - LC13: p_ULS-aB_+y, Isometric 58 Pedestal mountain side: RF-CONCRETE Members - 91 LC14 - Nodal Loads 58 Required Reinforcement As,-z LC14 - LC14: p_ULS-aB_-y, Isometric 58 (top), Required Reinforcement LC15 - Nodal Loads 59 As,+z (bottom), CA1, Isometric LC15 - LC15: p_ULS-MT_+y, Isometric 59 Pedestal mountain side: RF-CONCRETE Members - 91 LC16 - Nodal Loads 60 Required Reinforcement LC16 - LC16: p_ULS-MT_-y, Isometric 60 As,T, CA1, Isometric

    4 Results - Load Cases, Load Pedestal mountain side: RF-CONCRETE Members - 92Combinations Required Reinforcement asw,T,link, Results - Summary 61 Required Reinforcement asw,V,link,Results - Result Combinations CA1, Isometric Min. Contact Stresses z, RC1: 65 Pedestal middle: RF-CONCRETE Members - Required 92 SLS, In Z-direction Reinforcement As,-z (top), Required Max. Contact Stresses z, RC1: 65 Reinforcement As,+z (bottom), CA1, SLS, In Z-direction Isometric Min. Global Deformation uZ, RC1: SLS, 66 Pedestal middle: RF-CONCRETE Members - Required 93 In Z-direction Reinforcement As,T, CA1, Isometric Max. Global Deformation uZ, RC1: SLS, 66 Pedestal middle: RF-CONCRETE Members - Required 93 In Z-direction Reinforcement asw,T,link, RequiredRF-CONCRETE Surfaces Reinforcement asw,V,link, CA1,CA1 - Bodenplatte Isometric General Data 67 Pedestal downhill side: RF-CONCRETE Members - 94 Materials 67 Required Reinforcement As,-z (top), Surfaces 67 Required Reinforcement As,+z (bottom), Reinforcement Group No. 1 - Fundament 67 CA1, Isometric base plate: RF-CONCRETE Surfaces - Required 69 CA2 - Sttzen Reinforcement as,1,+z (bottom), CA1, General Data 95 Isometric Settings - Nonlinear Calculation (State II) 95 base plate: RF-CONCRETE Surfaces - Required 70 Materials 95 Reinforcement as,2,+z (bottom), CA1, Cross-Sections 95 Isometric Reinforcement Group No. 1 95

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    CONTENTS Pedestal mountain side: RF-CONCRETE Members - 96 Reinforcement As,T, CA2, Isometric Required Reinforcement As,-z (top), Pedestal middle: RF-CONCRETE Members - Required 98 Required Reinforcement As,+z (bottom), Reinforcement asw,T,link, Required CA2, Isometric Reinforcement asw,V,link, CA2, Pedestal mountain side: RF-CONCRETE Members - 96 Isometric Required Reinforcement As,T, CA2, Pedestal downhill side: RF-CONCRETE Members - 99 Isometric Required Reinforcement As,-z (top), Pedestal mountain side: RF-CONCRETE Members - 97 Required Reinforcement As,+z (bottom), Required Reinforcement asw,T,link, CA2, Isometric Required Reinforcement asw,V,link, Pedestal downhill side: RF-CONCRETE Members - 99 CA2, Isometric Required Reinforcement As,T, CA2, Pedestal middle: RF-CONCRETE Members - Required 97 Isometric Reinforcement As,-z (top), Required Pedestal downhill side: RF-CONCRETE Members - 100 Reinforcement As,+z (bottom), CA2, Required Reinforcement asw,T,link, Isometric Required Reinforcement asw,V,link, Pedestal middle: RF-CONCRETE Members - Required 98 CA2, Isometric

    MODEL - GENERAL DATAGeneral Model name : W1316_Sttze_5_005

    Project name : Sttze 5Type of model : 3DPositive direction of global axis Z : DownwardClassification of load cases and : According to Standard: Nonecombinations National annex: None

    FE MESH SETTINGSGeneral Target length of finite elements I FE : 0.5 m

    Maximum distance between a node and a line : 0.0 mto integrate it into the lineMaximum number of mesh nodes (in thousands) : 500

    Members Number of divisions of members with cable, : 10elastic foundation, taper, or plastic characteristic Activate member divisions for large deformation

    or post-critical analysisUse division for members with node lying on them

    Surfaces Maximum ratio of FE rectangle diagonals D : 1.800Maximum out-of-plane inclination of two finite : 0.50 elements

    Integrate also unutilized objects into surfacesShape direction of finite elements : Triangles and quadrangles

    Same squares where possible

    NODESNode Reference Coordinate Node CoordinatesNo. Node Type Node System X [m] Y [m] Z [m] Comment

    1 Standard - Cartesian -2.350 1.945 4.2402 Standard - Cartesian 11.170 8.870 -2.2803 Standard - Cartesian 0.000 1.945 4.2404 Standard - Cartesian 0.000 4.020 -0.3205 Standard - Cartesian 0.000 7.520 -0.3206 Standard - Cartesian 4.080 4.020 4.2407 Standard - Cartesian 0.000 5.370 -0.3208 Standard - Cartesian -2.350 10.945 4.2409 Standard - Cartesian 0.000 5.370 0.97010 Standard - Cartesian 0.000 7.520 4.24011 Standard - Cartesian 2.413 5.370 0.97012 Standard - Cartesian 4.080 5.370 4.24013 Standard - Cartesian 1.394 4.020 -1.03014 Standard - Cartesian 1.394 5.370 -1.03015 Standard - Cartesian 0.000 4.020 0.97016 Standard - Cartesian 0.000 8.870 -0.32017 Standard - Cartesian 4.080 1.945 4.24018 Standard - Cartesian 0.000 8.870 0.97019 Standard - Cartesian 11.170 4.020 -2.28020 Standard - Cartesian 4.080 7.520 4.24021 Standard - Cartesian 6.590 1.945 4.24022 Standard - Cartesian 6.590 1.945 1.24023 Standard - Cartesian 4.080 8.870 4.24024 Standard - Cartesian 1.394 7.520 -1.03025 Standard - Cartesian 1.394 8.870 -1.03026 Standard - Cartesian 0.000 7.520 0.97027 Standard - Cartesian 2.413 4.020 0.97028 Standard - Cartesian 2.413 7.520 0.97029 Standard - Cartesian 4.080 10.945 4.24030 Standard - Cartesian 0.000 4.020 4.24031 Standard - Cartesian 0.000 5.370 4.24032 Standard - Cartesian 0.637 4.020 -0.64533 Standard - Cartesian 0.637 5.370 -0.64534 Standard - Cartesian 6.590 10.945 4.24035 Standard - Cartesian 0.000 8.870 4.24036 Standard - Cartesian 0.637 7.520 -0.64537 Standard - Cartesian 19.790 8.870 -5.57038 Standard - Cartesian 0.000 10.945 4.24039 Standard - Cartesian 6.590 10.945 1.240

    Cartesian

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    NODESNode Reference Coordinate Node CoordinatesNo. Node Type Node System X [m] Y [m] Z [m] Comment40 Standard - Cartesian 8.940 1.945 1.24041 Standard - Cartesian 8.940 4.020 -3.57042 Standard - Cartesian 8.940 7.520 -3.57043 Standard - Cartesian 12.590 4.020 1.24044 Standard - Cartesian 8.940 5.370 -3.57045 Standard - Cartesian 16.530 6.445 -2.76046 Standard - Cartesian 8.940 5.370 -2.28047 Standard - Cartesian 8.940 7.520 1.24048 Standard - Cartesian 11.170 5.370 -2.28049 Standard - Cartesian 12.590 5.370 1.24050 Standard - Cartesian 10.410 4.020 -4.16451 Standard - Cartesian 10.410 5.370 -4.16452 Standard - Cartesian 8.940 4.020 -2.28053 Standard - Cartesian 8.940 8.870 -3.57054 Standard - Cartesian 12.590 1.945 1.24055 Standard - Cartesian 8.940 8.870 -2.28057 Standard - Cartesian 12.590 7.520 1.24058 Standard - Cartesian 14.530 1.945 1.24059 Standard - Cartesian 14.530 1.945 -2.76060 Standard - Cartesian 12.590 8.870 1.24061 Standard - Cartesian 10.410 7.520 -4.16462 Standard - Cartesian 10.410 8.870 -4.16463 Standard - Cartesian 8.940 7.520 -2.28064 Standard - Cartesian 2.413 8.870 0.97065 Standard - Cartesian 11.170 7.520 -2.28066 Standard - Cartesian 12.590 10.945 1.24067 Standard - Cartesian 8.940 4.020 1.24068 Standard - Cartesian 8.940 5.370 1.24069 Standard - Cartesian 9.622 4.020 -3.84670 Standard - Cartesian 9.622 5.370 -3.84671 Standard - Cartesian 14.530 10.945 1.24072 Standard - Cartesian 8.940 8.870 1.24073 Standard - Cartesian 9.622 7.520 -3.84674 Standard - Cartesian 16.530 1.945 -2.76075 Standard - Cartesian 8.940 10.945 1.24076 Standard - Cartesian 14.530 10.945 -2.76077 Standard - Cartesian 16.530 10.945 -2.76078 Standard - Cartesian 17.880 1.945 -2.76079 Standard - Cartesian 17.880 4.020 -6.86080 Standard - Cartesian 17.880 7.520 -6.86081 Standard - Cartesian 20.349 4.020 -2.76082 Standard - Cartesian 17.880 5.370 -6.86083 Standard - Cartesian 17.880 5.370 -5.57084 Standard - Cartesian 17.880 7.520 -2.76085 Standard - Cartesian 19.790 5.370 -5.57086 Standard - Cartesian 20.349 5.370 -2.76087 Standard - Cartesian 19.460 4.020 -7.23088 Standard - Cartesian 19.460 5.370 -7.23089 Standard - Cartesian 17.880 4.020 -5.57090 Standard - Cartesian 17.880 8.870 -6.86091 Standard - Cartesian 20.349 1.945 -2.76092 Standard - Cartesian 17.880 8.870 -5.57094 Standard - Cartesian 20.349 7.520 -2.76095 Standard - Cartesian 22.709 1.945 -2.76097 Standard - Cartesian 20.349 8.870 -2.76098 Standard - Cartesian 19.460 7.520 -7.23099 Standard - Cartesian 19.460 8.870 -7.230100 Standard - Cartesian 17.880 7.520 -5.570101 Standard - Cartesian 19.790 4.020 -5.570102 Standard - Cartesian 19.790 7.520 -5.570103 Standard - Cartesian 20.349 10.945 -2.760104 Standard - Cartesian 17.880 4.020 -2.760105 Standard - Cartesian 17.880 5.370 -2.760106 Standard - Cartesian 18.639 4.020 -7.038107 Standard - Cartesian 18.639 5.370 -7.038108 Standard - Cartesian 22.709 10.945 -2.760109 Standard - Cartesian 17.880 8.870 -2.760110 Standard - Cartesian 18.639 7.520 -7.038112 Standard - Cartesian 17.880 10.945 -2.760135 Standard - Cartesian 17.880 6.445 -2.760136 Standard - Cartesian 20.349 6.445 -2.760137 Standard - Cartesian 22.709 6.445 -2.760138 Standard - Cartesian 14.530 6.445 -2.760141 Standard - Cartesian 18.639 8.870 -7.038142 Standard - Cartesian 0.637 8.870 -0.645143 Standard - Cartesian 9.622 8.870 -3.846

    LINESLine Line Length No. Line Type Nodes No. L [m] Comment

    1 Polyline 21,22 3.000 Z2 Polyline 3,1 2.350 X3 Polyline 34,39 3.000 Z4 Polyline 30,3 2.075 Y5 Polyline 15,4 1.290 Z6 Polyline 74,45 4.500 Y7 Polyline 4,7 1.350 Y8 Polyline 31,30 1.350 Y9 Polyline 77,112 1.350 X10 Polyline 74,59 2.000 X11 Polyline 26,5 1.290 Z

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    LINESLine Line Length No. Line Type Nodes No. L [m] Comment12 Polyline 9,7 1.290 Z13 Polyline 10,31 2.150 Y14 Polyline 31,12 4.080 X15 Polyline 30,6 4.080 X16 Polyline 4,32 0.715 XZ17 Polyline 7,33 0.715 XZ18 Polyline 14,13 1.350 Y19 Polyline 14,11 2.245 XZ20 Polyline 6,27 3.670 XZ21 Polyline 17,3 4.080 X22 Polyline 45,77 4.500 Y23 Polyline 45,135 1.350 X24 Polyline 10,20 4.080 X25 Polyline 5,16 1.350 Y27 Polyline 35,10 1.350 Y29 Polyline 18,16 1.290 Z30 Polyline 21,17 2.510 X31 Polyline 58,59 4.000 Z32 Polyline 35,23 4.080 X33 Polyline 15,27 2.413 X34 Polyline 9,11 2.413 X35 Polyline 35,38 2.075 Y36 Polyline 5,36 0.715 XZ37 Polyline 40,22 2.350 X39 Polyline 20,12 2.150 Y40 Polyline 16,142 0.715 XZ41 Polyline 11,12 3.670 XZ42 Polyline 27,13 2.245 XZ43 Polyline 6,17 2.075 Y44 Polyline 25,24 1.350 Y45 Polyline 30,15 3.270 Z46 Polyline 31,9 3.270 Z47 Polyline 25,64 2.245 XZ48 Polyline 20,28 3.670 XZ49 Polyline 32,13 0.850 XZ50 Polyline 33,14 0.850 XZ52 Polyline 26,28 2.413 X53 Polyline 18,64 2.413 X54 Polyline 64,23 3.670 XZ55 Polyline 28,24 2.245 XZ56 Polyline 10,26 3.270 Z57 Polyline 35,18 3.270 Z58 Polyline 36,24 0.850 XZ59 Polyline 142,25 0.850 XZ60 Polyline 23,29 2.075 Y61 Polyline 38,29 4.080 X62 Polyline 1,8 9.000 Y63 Polyline 8,38 2.350 X65 Polyline 34,29 2.510 X67 Polyline 71,76 4.000 Z68 Polyline 67,40 2.075 Y69 Polyline 52,41 1.290 Z70 Polyline 41,44 1.350 Y72 Polyline 63,42 1.290 Z73 Polyline 46,44 1.290 Z74 Polyline 47,68 2.150 Y75 Polyline 68,49 3.650 X76 Polyline 67,43 3.650 X77 Polyline 41,69 0.736 XZ78 Polyline 44,70 0.736 XZ79 Polyline 51,50 1.350 Y80 Polyline 51,48 2.031 XZ81 Polyline 43,19 3.796 XZ82 Polyline 54,40 3.650 X83 Polyline 47,57 3.650 X84 Polyline 42,53 1.350 Y87 Polyline 55,53 1.290 Z88 Polyline 58,54 1.940 X89 Polyline 72,60 3.650 X90 Polyline 52,19 2.230 X91 Polyline 46,48 2.230 X92 Polyline 72,75 2.075 Y93 Polyline 42,73 0.736 XZ94 Polyline 57,49 2.150 Y95 Polyline 53,143 0.736 XZ96 Polyline 48,49 3.796 XZ97 Polyline 19,50 2.031 XZ98 Polyline 43,54 2.075 Y99 Polyline 62,61 1.350 Y100 Polyline 67,52 3.520 Z101 Polyline 68,46 3.520 Z102 Polyline 62,2 2.031 XZ103 Polyline 57,65 3.796 XZ104 Polyline 69,50 0.849 XZ105 Polyline 70,51 0.849 XZ107 Polyline 63,65 2.230 X108 Polyline 55,2 2.230 X109 Polyline 2,60 3.796 XZ110 Polyline 65,61 2.031 XZ111 Polyline 47,63 3.520 Z112 Polyline 72,55 3.520 Z113 Polyline 73,61 0.849 XZ114 Polyline 143,62 0.849 XZ115 Polyline 60,66 2.075 Y

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    MODEL

    Date: 11.08.2014 Project: W1316 Model: Top station tower

    LINESLine Line Length No. Line Type Nodes No. L [m] Comment116 Polyline 75,66 3.650 X118 Polyline 39,75 2.350 X120 Polyline 71,66 1.940 X122 Polyline 78,74 1.350 X123 Polyline 12,6 1.350 Y125 Polyline 104,78 2.075 Y126 Polyline 89,79 1.290 Z127 Polyline 79,82 1.350 Y129 Polyline 100,80 1.290 Z130 Polyline 83,82 1.290 Z131 Polyline 84,135 1.075 Y132 Polyline 105,86 2.470 X133 Polyline 104,81 2.470 X134 Polyline 79,106 0.780 XZ135 Polyline 82,107 0.780 XZ136 Polyline 88,87 1.350 Y137 Polyline 88,85 1.693 XZ138 Polyline 81,101 2.865 XZ139 Polyline 91,78 2.470 X140 Polyline 84,94 2.470 X141 Polyline 80,90 1.350 Y143 Polyline 86,81 1.350 Y144 Polyline 92,90 1.290 Z145 Polyline 95,91 2.360 X146 Polyline 109,97 2.470 X147 Polyline 89,101 1.910 X148 Polyline 83,85 1.910 X149 Polyline 109,112 2.075 Y150 Polyline 80,110 0.780 XZ151 Polyline 94,136 1.075 Y152 Polyline 90,141 0.780 XZ153 Polyline 85,86 2.865 XZ154 Polyline 101,87 1.693 XZ155 Polyline 81,91 2.075 Y156 Polyline 99,98 1.350 Y157 Polyline 104,89 2.810 Z158 Polyline 105,83 2.810 Z159 Polyline 99,37 1.693 XZ160 Polyline 94,102 2.865 XZ161 Polyline 106,87 0.843 XZ162 Polyline 107,88 0.843 XZ163 Polyline 97,94 1.350 Y164 Polyline 100,102 1.910 X165 Polyline 92,37 1.910 X166 Polyline 37,97 2.865 XZ167 Polyline 102,98 1.693 XZ168 Polyline 84,100 2.810 Z169 Polyline 109,92 2.810 Z170 Polyline 110,98 0.843 XZ171 Polyline 141,99 0.843 XZ172 Polyline 97,103 2.075 Y173 Polyline 112,103 2.470 X174 Polyline 76,77 2.000 X175 Polyline 95,137 4.500 Y176 Polyline 108,103 2.360 X179 Polyline 68,67 1.350 Y188 Polyline 72,47 1.350 Y191 Polyline 23,20 1.350 Y202 Polyline 105,104 1.350 Y203 Polyline 109,84 1.350 Y208 Polyline 49,43 1.350 Y209 Polyline 60,57 1.350 Y222 Polyline 59,138 4.500 Y225 Polyline 22,39 9.000 Y227 Polyline 21,34 9.000 Y229 Polyline 58,71 9.000 Y230 Polyline 135,105 1.075 Y231 Polyline 136,86 1.075 Y232 Polyline 137,108 4.500 Y233 Polyline 138,76 4.500 Y234 Polyline 138,45 2.000 X235 Polyline 135,136 2.470 X236 Polyline 136,137 2.360 X

    MATERIALSMatl. Modulus Modulus Poisson's Ratio Spec. Weight Coeff. of Th. Ex Partial Factor MaterialNo. E [kN/cm2] G [kN/cm2] [-] [kN/m3] [1/K] M [-] Model

    1 Concrete C16/20 | EN 1992-1-1:2004/AC:20102900.00 1208.33 0.200 25.00 1.00E-05 1.00 Isotropic Linear Elastic

    2 Concrete C16/20 | EN 1992-1-1:2004/AC:20102900.00 1208.33 0.200 25.00 1.00E-05 1.00 Isotropic Linear Elastic

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    SURFACESSurface Surface Type Matl. Thickness Area Weight

    No. Geometry Stiffness Boundary Lines No. No. Type d [cm] A [m2] W [kg]1 Plane Standard 8,45,5,7,12,46 1 Constant 70.00 6.156 10773.02 Plane Standard 19,41,123,20,42,18 1 Constant 70.00 7.986 13974.73 Plane Standard 27,13,8,4,2,62,63,35 1 Constant 70.00 21.150 37012.54 Plane Standard 27,56,11,25,29,57 1 Constant 70.00 6.156 10773.05 Plane Standard 30,227,65,60,191,39,123,43 1 Constant 70.00 22.590 39532.56 Plane Standard 47,54,191,48,55,44 1 Constant 70.00 7.986 13974.77 Quadrangle Standard 227,1,225,3 1 Constant 70.00 27.000 47250.08 Plane Standard 4,21,43,15 1 Constant 70.00 8.466 14814.99 Plane Standard 8,15,123,14 1 Constant 70.00 5.508 9638.610 Plane Standard 13,14,39,24 1 Constant 70.00 8.772 15350.311 Plane Standard 14,41,34,46 1 Constant 70.00 10.616 18578.712 Plane Standard 33,45,15,20 1 Constant 70.00 10.616 18578.713 Plane Standard 27,24,191,32 1 Constant 70.00 5.508 9638.614 Plane Standard 32,54,53,57 1 Constant 70.00 10.616 18578.715 Plane Standard 52,56,24,48 1 Constant 70.00 10.616 18578.716 Plane Standard 60,32,35,61 1 Constant 70.00 8.466 14814.917 Plane Standard 179,100,69,70,73,101 1 Constant 70.00 6.493 11363.618 Plane Standard 80,96,208,81,97,79 1 Constant 70.00 7.867 13766.519 Plane Standard 188,74,179,68,37,225,118,92 1 Constant 70.00 21.150 37012.520 Plane Standard 188,111,72,84,87,112 1 Constant 70.00 6.493 11363.621 Plane Standard 88,229,120,115,209,94,208,

    981 Constant 70.00 17.460 30555.0

    22 Plane Standard 102,109,209,103,110,99 1 Constant 70.00 7.867 13766.523 Quadrangle Standard 229,31,222,233,67 1 Constant 70.00 36.000 63000.024 Plane Standard 68,82,98,76 1 Constant 70.00 7.573 13253.425 Plane Standard 179,76,208,75 1 Constant 70.00 4.927 8622.726 Plane Standard 74,75,94,83 1 Constant 70.00 7.847 13732.527 Plane Standard 75,96,91,101 1 Constant 70.00 10.348 18109.728 Plane Standard 90,100,76,81 1 Constant 70.00 10.348 18109.729 Plane Standard 188,83,209,89 1 Constant 70.00 4.927 8622.730 Plane Standard 89,109,108,112 1 Constant 70.00 10.348 18109.731 Plane Standard 107,111,83,103 1 Constant 70.00 10.348 18109.732 Plane Standard 115,89,92,116 1 Constant 70.00 7.573 13253.433 Plane Standard 202,157,126,127,130,158 1 Constant 70.00 5.535 9686.234 Plane Standard 137,153,143,138,154,136 1 Constant 70.00 6.153 10767.636 Plane Standard 203,168,129,141,144,169 1 Constant 70.00 5.535 9686.238 Plane Standard 159,166,163,160,167,156 1 Constant 70.00 6.153 10767.640 Plane Standard 125,139,155,133 1 Constant 70.00 5.125 8968.541 Plane Standard 202,133,143,132 1 Constant 70.00 3.334 5835.043 Plane Standard 132,153,148,158 1 Constant 70.00 6.154 10770.044 Plane Standard 147,157,133,138 1 Constant 70.00 6.154 10770.045 Plane Standard 203,140,163,146 1 Constant 70.00 3.334 5835.046 Plane Standard 146,166,165,169 1 Constant 70.00 6.154 10770.047 Plane Standard 164,168,140,160 1 Constant 70.00 6.154 10770.048 Plane Standard 172,146,149,173 1 Constant 70.00 5.125 8968.553 Plane Standard 9,22,23,131,203,149 1 Constant 70.00 6.075 10631.255 Plane Standard 176,232,236,151,163,172 1 Constant 70.00 10.620 18585.056 Plane Standard 6,23,230,202,125,122 1 Constant 70.00 6.075 10631.258 Plane Standard 231,143,155,145,175,236 1 Constant 70.00 10.620 18585.059 Plane Standard 131,235,151,140 1 Constant 70.00 2.655 4646.460 Plane Standard 230,132,231,235 1 Constant 70.00 2.655 4646.461 Plane Standard 233,174,22,6,10,222 1 Constant 70.00 18.000 31500.0

    SURFACES - ECCENTRICITIESSurface Eccentricity

    No. ez [cm] Comment3 -35.005 -35.008 -35.009 -35.0010 -35.0013 -35.0016 -35.0019 -35.0021 -35.0024 -35.0025 -35.0026 -35.0029 -35.0032 -35.0040 -35.0041 -35.0045 -35.0048 -35.0053 -35.0055 -35.0056 -35.0058 -35.0059 -35.0060 -35.0061 -35.00

    SURFACES - INTEGRATED OBJECTSSurface Integrated Objects No.

    No. Nodes Lines Openings Comment61 234

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    MODEL

    Date: 11.08.2014 Project: W1316 Model: Top station tower

    SURFACE SUPPORTSFound. Spring Constants Translation Support or Spring [kN/m3] Shear Spring [kN/m]

    No. On Surfaces No. RF-SOILIN ux uy uz v xz v yz1 3,5,8-10,13,16,21,

    24-26,29,32,40,41,45,48,53,55,56,58-60

    - 15000.000 15000.000 1000000.000

    SURFACE SUPPORTS - INEFFECTIVEFound. Ineffective support under Yielding from contact stress Coefficient of friction

    No. On Surfaces No. z z' [kN/m2] z [-]1 3,5,8-10,13,16,21,

    24-26,29,32,40,41,45,48,53,55,56,

    58-60

    Negative

    CROSS-SECTIONSSection Matl. J [cm4] Iy [cm4] Iz [cm4] Principal Axes Rotation Overall Dimensions [cm]

    No. No. A [cm2] Ay [cm2] Az [cm2] [] ' [] Width b Height h1 Rectangle 65/70

    2 2889322.00 1857916.75 1601979.19 0.00 0.00 65.00 70.004550.00 3791.67 3791.67

    Rectangle 65/70

    MEMBERSMbr. Line Rotation Cross-Section Release No. Ecc. Div. LengthNo. No. Member Type [] Start End Start End No. No. L [m]

    1 5 Beam Angle 0.00 1 1 - - - - 1.290 Z2 45 Beam Angle 0.00 1 1 - - - - 3.270 Z3 12 Beam Angle 0.00 1 1 - - - - 1.290 Z4 46 Beam Angle 0.00 1 1 - - - - 3.270 Z5 16 Beam Angle 0.00 1 1 - - - - 0.715 XZ6 17 Beam Angle 0.00 1 1 - - - - 0.715 XZ7 49 Beam Angle 0.00 1 1 - - - - 0.850 XZ8 50 Beam Angle 0.00 1 1 - - - - 0.850 XZ9 42 Beam Angle 0.00 1 1 - - - - 2.245 XZ10 19 Beam Angle 0.00 1 1 - - - - 2.245 XZ11 20 Beam Angle 0.00 1 1 - - - - 3.670 XZ12 41 Beam Angle 0.00 1 1 - - - - 3.670 XZ13 11 Beam Angle 0.00 1 1 - - - - 1.290 Z14 56 Beam Angle 0.00 1 1 - - - - 3.270 Z15 29 Beam Angle 0.00 1 1 - - - - 1.290 Z16 57 Beam Angle 0.00 1 1 - - - - 3.270 Z17 36 Beam Angle 0.00 1 1 - - - - 0.715 XZ18 40 Beam Angle 0.00 1 1 - - - - 0.715 XZ19 58 Beam Angle 0.00 1 1 - - - - 0.850 XZ20 59 Beam Angle 0.00 1 1 - - - - 0.850 XZ21 55 Beam Angle 0.00 1 1 - - - - 2.245 XZ22 47 Beam Angle 0.00 1 1 - - - - 2.245 XZ23 48 Beam Angle 0.00 1 1 - - - - 3.670 XZ24 54 Beam Angle 0.00 1 1 - - - - 3.670 XZ25 69 Beam Angle 0.00 1 1 - - - - 1.290 Z26 100 Beam Angle 0.00 1 1 - - - - 3.520 Z27 73 Beam Angle 0.00 1 1 - - - - 1.290 Z28 101 Beam Angle 0.00 1 1 - - - - 3.520 Z29 77 Beam Angle 0.00 1 1 - - - - 0.736 XZ30 78 Beam Angle 0.00 1 1 - - - - 0.736 XZ31 104 Beam Angle 0.00 1 1 - - - - 0.849 XZ32 105 Beam Angle 0.00 1 1 - - - - 0.849 XZ33 97 Beam Angle 0.00 1 1 - - - - 2.031 XZ34 80 Beam Angle 0.00 1 1 - - - - 2.031 XZ35 81 Beam Angle 0.00 1 1 - - - - 3.796 XZ36 96 Beam Angle 0.00 1 1 - - - - 3.796 XZ37 72 Beam Angle 0.00 1 1 - - - - 1.290 Z38 111 Beam Angle 0.00 1 1 - - - - 3.520 Z39 87 Beam Angle 0.00 1 1 - - - - 1.290 Z40 112 Beam Angle 0.00 1 1 - - - - 3.520 Z41 93 Beam Angle 0.00 1 1 - - - - 0.736 XZ42 95 Beam Angle 0.00 1 1 - - - - 0.736 XZ43 113 Beam Angle 0.00 1 1 - - - - 0.849 XZ44 114 Beam Angle 0.00 1 1 - - - - 0.849 XZ45 110 Beam Angle 0.00 1 1 - - - - 2.031 XZ46 102 Beam Angle 0.00 1 1 - - - - 2.031 XZ47 103 Beam Angle 0.00 1 1 - - - - 3.796 XZ48 109 Beam Angle 0.00 1 1 - - - - 3.796 XZ49 126 Beam Angle 0.00 1 1 - - - - 1.290 Z50 157 Beam Angle 0.00 1 1 - - - - 2.810 Z51 130 Beam Angle 0.00 1 1 - - - - 1.290 Z52 158 Beam Angle 0.00 1 1 - - - - 2.810 Z53 134 Beam Angle 0.00 1 1 - - - - 0.780 XZ54 135 Beam Angle 0.00 1 1 - - - - 0.780 XZ55 161 Beam Angle 0.00 1 1 - - - - 0.843 XZ56 162 Beam Angle 0.00 1 1 - - - - 0.843 XZ57 154 Beam Angle 0.00 1 1 - - - - 1.693 XZ58 137 Beam Angle 0.00 1 1 - - - - 1.693 XZ59 138 Beam Angle 0.00 1 1 - - - - 2.865 XZ60 153 Beam Angle 0.00 1 1 - - - - 2.865 XZ

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    MODEL

    Date: 11.08.2014 Project: W1316 Model: Top station tower

    MEMBERSMbr. Line Rotation Cross-Section Release No. Ecc. Div. LengthNo. No. Member Type [] Start End Start End No. No. L [m] 61 129 Beam Angle 0.00 1 1 - - - - 1.290 Z62 168 Beam Angle 0.00 1 1 - - - - 2.810 Z63 144 Beam Angle 0.00 1 1 - - - - 1.290 Z64 169 Beam Angle 0.00 1 1 - - - - 2.810 Z65 150 Beam Angle 0.00 1 1 - - - - 0.780 XZ66 152 Beam Angle 0.00 1 1 - - - - 0.780 XZ67 170 Beam Angle 0.00 1 1 - - - - 0.843 XZ68 171 Beam Angle 0.00 1 1 - - - - 0.843 XZ69 167 Beam Angle 0.00 1 1 - - - - 1.693 XZ70 159 Beam Angle 0.00 1 1 - - - - 1.693 XZ71 160 Beam Angle 0.00 1 1 - - - - 2.865 XZ72 166 Beam Angle 0.00 1 1 - - - - 2.865 XZ

    FE MESH REFINEMENTSRefinem FE Mesh Refinement Number Sphere Target FE-Length [m]

    No. applied to Nodes No. Divisions Radius [m] Inner Outer Comment1 Nodes - Circular 6,10,12,

    20,23,30,31,35,43,47,49,57,60,67,68,72,81,84,86,94,97,104,105,109

    1.000 0.080 0.300

    2 Surfaces 2,6,12,17,18,20,22,30,33,36,43,46

    0.400

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    MODEL, ISOMETRIC

    Z

    XY

    Isom

    etric

    MODEL, ISOMETRIC

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    MOUNTAIN SIDE: NODES, ISOMETRIC

    108

    103137

    97

    9411213695

    86

    37

    109 7781

    102

    84

    99

    13591

    9285

    105

    141

    76

    98

    100

    90

    45

    101

    104

    11088

    80

    83

    78

    10787

    89

    138

    82106

    74

    79

    2

    65

    59

    62

    14361

    5373

    42

    51

    7050

    IsometricNode NumberingMOUNTAIN SIDE: NODES, ISOMETRIC

    MOUNTAIN SIDE: LINES, ISOMETRIC

    232176

    172173236175

    163146151

    149 9140231235143

    203132145

    165

    174

    67

    155 131 22133

    164

    230

    156

    23202

    148

    141

    139 233234

    147

    125 6

    136

    122

    127

    222

    10

    99

    8479

    IsometricLine NumberingMOUNTAIN SIDE: LINES, ISOMETRIC

    RFEM 5.02.0030 - General 3D structures solved using FEM www.dlubal.com

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    MOUNTAIN SIDE: SURFACES, ISOMETRIC

    S55

    S48

    S58 S45

    S46

    S38

    S59S60

    S47

    S53S41

    S36

    S43

    S34

    S40

    S44

    S56S61

    S33

    IsometricSurface NumberingMOUNTAIN SIDE: SURFACES, ISOMETRIC

    MOUNTAIN SIDE: MEMBERS, ISOMETRIC

    M72

    M71

    M64

    M70

    M69

    M60

    M68

    M62M59

    M63

    M66M67

    M61

    M52

    M65

    M58

    M57

    M56

    M50

    M51

    M54M55

    M49

    M53

    M46

    M45

    M44

    M39

    M42M43

    M34M41M32

    M31

    IsometricMember NumberingMOUNTAIN SIDE: MEMBERS, ISOMETRIC

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    MOUNTAIN SIDE: AXES, ISOMETRIC

    x y

    z

    z

    yx

    y

    z

    x

    z

    yx

    x

    z

    y

    z

    y

    x

    z

    yx

    zx

    y

    x y

    z z

    x y

    y

    xz

    yx

    z

    y

    z

    x

    y

    x

    z

    x

    z

    y

    x z

    yz

    y

    x

    z

    x y x

    z

    y

    IsometricMOUNTAIN SIDE: AXES, ISOMETRIC

    MOUNTAIN SIDE: SUPPORTS & MESH, ISOMETRICIsometric

    MOUNTAIN SIDE: SUPPORTS & MESH, ISOMETRIC

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    MIDDLE: NODES, ISOMETRIC

    71

    66

    76

    6057

    138

    7549

    58

    2

    43 72

    65

    3947

    62

    54

    59

    55

    143

    48

    61

    53

    68

    63

    73

    19

    42

    67

    51

    46

    7050

    44

    40

    52

    69

    41

    22

    IsometricNode NumberingMIDDLE: NODES, ISOMETRIC

    MIDDLE: LINES, ISOMETRIC

    120

    67

    115229116

    233

    20989

    9483 92 118208

    222

    75

    108

    18888

    31

    9876

    107

    99

    74

    84

    91

    179 22582

    90

    68

    79

    70

    37

    IsometricLine NumberingMIDDLE: LINES, ISOMETRIC

    RFEM 5.02.0030 - General 3D structures solved using FEM www.dlubal.com

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    MIDDLE: SURFACES, ISOMETRIC

    S21

    S23

    S32

    S29

    S30

    S22

    S26

    S31

    S25

    S20

    S27

    S18

    S24

    S28

    S19

    S17

    IsometricSurface NumberingMIDDLE: SURFACES, ISOMETRIC

    MIDDLE: MEMBERS, ISOMETRIC

    M48

    M47

    M46

    M40

    M36

    M45

    M35

    M44

    M38

    M39

    M42M43

    M37

    M41M34

    M28

    M33

    M32

    M26

    M27

    M30M31

    M25

    M29

    IsometricMember NumberingMIDDLE: MEMBERS, ISOMETRIC

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    MIDDLE: AXES, ISOMETRICIsometric

    MIDDLE: AXES, ISOMETRIC

    MIDDLE: SUPPORTS & MESH, ISOMETRICIsometric

    MIDDLE: SUPPORTS & MESH, ISOMETRIC

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    DOWNHILL SIDE: NODES, ISOMETRIC

    34

    39

    29

    2338

    20

    835

    64

    1210

    28 18

    25

    6

    142

    16

    21

    26

    24

    36

    31

    11

    5

    22

    1730

    27 9

    14

    33

    7

    15

    13

    3

    32

    4

    1

    X

    Z

    Y

    IsometricNode NumberingDOWNHILL SIDE: NODES, ISOMETRIC

    DOWNHILL SIDE: LINES, ISOMETRIC

    3

    65

    60 61227

    191 32 63

    225

    35

    2439

    53

    27123 14

    52

    44

    13

    25

    621543

    1

    30

    34

    8

    33

    21 4

    18

    7

    2

    X

    Z

    Y

    IsometricLine NumberingDOWNHILL SIDE: LINES, ISOMETRIC

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    DOWNHILL SIDE: SURFACES, ISOMETRIC

    S16

    S7

    S5S13

    S14

    S6

    S15

    S10

    S4

    S9

    S11

    S3

    S2

    S8

    S12

    S1

    X

    Z

    Y

    IsometricSurface NumberingDOWNHILL SIDE: SURFACES, ISOMETRIC

    DOWNHILL SIDE: MEMBERS, ISOMETRIC

    M24

    M23

    M16

    M22

    M14

    M21M15

    M20

    M12

    M18

    M11

    M13

    M19

    M17

    M4

    M10

    M2

    M9M3

    M8

    M6

    M1

    M7

    M5

    X

    Z

    Y

    IsometricMember NumberingDOWNHILL SIDE: MEMBERS, ISOMETRIC

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    DOWNHILL SIDE: AXES, ISOMETRIC

    Z

    X Y

    IsometricDOWNHILL SIDE: AXES, ISOMETRIC

    DOWNHILL SIDE: SUPPORTS & MESH, ISOMETRIC

    Z

    X Y

    IsometricDOWNHILL SIDE: SUPPORTS & MESH, ISOMETRIC

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    LOADS

    Date: 11.08.2014 Project: W1316 Model: Top station tower

    LOAD CASESLoad Load Case No Standard Self-Weight - Factor in DirectionCase Description Action Category Active X Y ZLC1 g_Dead load_k Permanent 0.00 0.00 1.00LC2 g_Earth pressure_k PermanentLC3 p_SLS-iB_+y ImposedLC4 p_SLS-iB_-y ImposedLC5 p_SLS-aB_+y ImposedLC6 p_SLS-aB_-y ImposedLC7 p_SLS-MT_+y ImposedLC8 p_SLS-MT_-y ImposedLC9 a_EB_+y ImposedLC10 a_EB_-y ImposedLC11 p_ULS-iB_+y ImposedLC12 p_ULS-iB_-y ImposedLC13 p_ULS-aB_+y ImposedLC14 p_ULS-aB_-y ImposedLC15 p_ULS-MT_+y ImposedLC16 p_ULS-MT_-y Imposed

    LOAD COMBINATIONSLoad Load Combination

    Combin. DS Description No. Factor Load CaseCO1 SLS_iB_+y 1 1.00 LC1 g_Dead load_k

    2 1.00 LC2 g_Earth pressure_k3 1.00 LC3 p_SLS-iB_+y

    CO2 SLS_iB_-y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC4 p_SLS-iB_-y

    CO3 SLS_aB_+y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC5 p_SLS-aB_+y

    CO4 SLS_aB_-y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC6 p_SLS-aB_-y

    CO5 SLS_MT_+y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC7 p_SLS-MT_+y

    CO6 SLS_MT_-y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC8 p_SLS-MT_-y

    CO7 EB_+y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC9 a_EB_+y

    CO8 EB_-y 1 1.00 LC1 g_Dead load_k2 1.00 LC2 g_Earth pressure_k3 1.00 LC10 a_EB_-y

    CO9 ULS_iB_+y 1 1.35 LC1 g_Dead load_k2 1.35 LC2 g_Earth pressure_k3 1.50 LC11 p_ULS-iB_+y

    CO10 ULS_iB_-y 1 1.35 LC1 g_Dead load_k2 1.35 LC2 g_Earth pressure_k3 1.50 LC12 p_ULS-iB_-y

    CO11 ULS_aB_+y 1 1.35 LC1 g_Dead load_k2 1.35 LC2 g_Earth pressure_k3 1.50 LC13 p_ULS-aB_+y

    CO12 ULS_aB_-y 1 1.35 LC1 g_Dead load_k2 1.35 LC2 g_Earth pressure_k3 1.50 LC14 p_ULS-aB_-y

    CO13 ULS_MT_+y 1 1.35 LC1 g_Dead load_k2 1.35 LC2 g_Earth pressure_k3 1.50 LC15 p_ULS-MT_+y

    CO14 ULS_MT_-y 1 1.35 LC1 g_Dead load_k2 1.35 LC2 g_Earth pressure_k3 1.50 LC16 p_ULS-MT_-y

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    RESULT COMBINATIONSResult Result Combination Alternate

    Combin. DS Description No. Factor Loading Criterion GroupRC1 SLS 1 1.00 CO1 SLS_iB_+y Permanent 1

    2 1.00 CO2 SLS_iB_-y Permanent 13 1.00 CO3 SLS_aB_+y Permanent 14 1.00 CO4 SLS_aB_-y Permanent 15 1.00 CO5 SLS_MT_+y Permanent 16 1.00 CO6 SLS_MT_-y Permanent 17 1.00 CO7 EB_+y Permanent 18 1.00 CO8 EB_-y Permanent 1

    RC2 ULS 1 1.00 CO7 EB_+y Permanent 12 1.00 CO8 EB_-y Permanent 13 1.00 CO9 ULS_iB_+y Permanent 14 1.00 CO10 ULS_iB_-y Permanent 15 1.00 CO11 ULS_aB_+y Permanent 16 1.00 CO12 ULS_aB_-y Permanent 17 1.00 CO13 ULS_MT_+y Permanent 18 1.00 CO14 ULS_MT_-y Permanent 1

    MEMBER LOADS LC2: g_Earth pressure_kReference On Members Load Load Load Reference Load Parameters Over Tot.

    No. to No. Type Distribution Direction Length Symbol Value Unit Length1 List of

    members9,11 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.00 kN/m2 List of

    members10,12 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.00 kN/m3 List of

    members21,23 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.00 kN/m4 List of

    members22,24 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.00 kN/m5 List of

    members33,35 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.10 kN/m6 List of

    members34,36 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.10 kN/m7 List of

    members45,47 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.10 kN/m8 List of

    members46,48 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.10 kN/m9 List of

    members57,59 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.90 kN/m10 List of

    members58,60 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.90 kN/m11 List of

    members69,71 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.90 kN/m12 List of

    members70,72 Force Trapezoidal XP Projected

    Lengthp1 0.00 kN/m

    p2 -21.90 kN/m13 Members 2,11 Force Trapezoidal YP Projected

    Lengthp1 14.30 kN/m

    p2 0.00 kN/mA 0.000 %B 100.000 %

    14 Members 26,35 Force Trapezoidal YP Projected Length

    p1 16.10 kN/m

    p2 0.00 kN/mA 0.000 %B 100.000 %

    15 Members 50,59 Force Trapezoidal YP Projected Length

    p1 12.80 kN/m

    p2 0.00 kN/mA 0.000 %B 100.000 %

    LC2g_Earth pressure_k

    SURFACE LOADS LC2: g_Earth pressure_kLoad Load Load Load Parameters On Node

    No. On Surfaces No. Type Distribution Direction Symbol Value Unit No.9 6 Force Linear in Z XP p1 0.00 kN/m2 14

    p2 -64.60 kN/m2 1210 18,22 Force Linear in Z XP p1 0.00 kN/m2 51

    p2 -64.90 kN/m2 4911 34,38 Force Linear in Z XP p1 0.00 kN/m2 88

    p2 -67.30 kN/m2 8612 2 Force Linear in Z XP p1 0.00 kN/m2 14

    p2 -64.60 kN/m2 1213 55,58 Force Linear ZP p1 150.50 kN/m2 95

    p2 109.20 kN/m2 108

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    SURFACE LOADS LC2: g_Earth pressure_kLoad Load Load Load Parameters On Node

    No. On Surfaces No. Type Distribution Direction Symbol Value Unit No.p3 117.60 kN/m2 91

    14 40,48,59,60 Force Linear ZP p1 117.60 kN/m2 91p2 82.80 kN/m2 103p3 90.20 kN/m2 78

    15 53,56 Force Linear ZP p1 90.20 kN/m2 78p2 58.10 kN/m2 112p3 62.40 kN/m2 59

    16 21 Force Linear ZP p1 169.00 kN/m2 58p2 112.80 kN/m2 71p3 154.80 kN/m2 54

    17 24,26,32 Force Linear ZP p1 154.80 kN/m2 54p2 98.90 kN/m2 66p3 116.20 kN/m2 40

    18 19 Force Linear ZP p1 116.20 kN/m2 40p2 60.00 kN/m2 75p3 100.80 kN/m2 22

    19 5 Force Linear ZP p1 169.00 kN/m2 21p2 109.40 kN/m2 34p3 150.70 kN/m2 17

    20 8,10,16 Force Linear ZP p1 150.70 kN/m2 17p2 92.20 kN/m2 29p3 105.40 kN/m2 3

    21 3 Force Linear ZP p1 105.40 kN/m2 3p2 47.00 kN/m2 38p3 105.40 kN/m2 1

    22 12 Force Linear in Z YP p1 0.00 kN/m2 15p2 40.90 kN/m2 30

    23 28 Force Linear in Z YP p1 0.00 kN/m2 52p2 46.00 kN/m2 67

    24 44 Force Linear in Z YP p1 0.00 kN/m2 89p2 36.70 kN/m2 104

    25 61 Force Linear ZP p1 79.00 kN/m2 74p2 46.90 kN/m2 77p3 62.40 kN/m2 59

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    LC2: G_EARTH PRESSURE_K, ISOMETRIC

    21.

    10

    98.

    60

    76.

    30

    21.

    90

    64.

    90

    21.

    00

    91.

    10

    55.

    40

    60.

    30

    67.

    30

    46.

    90

    64.

    60

    46.

    90

    44.

    60

    30.

    30

    21.

    10

    47.

    00

    21.

    90

    21.

    00

    24.

    99

    111

    .79

    90.

    82

    22.

    63

    105

    .69

    24.

    52

    21.

    10

    21.

    90

    64.

    90

    21.

    00

    68.

    64

    67.

    30

    81.

    57

    64.

    60

    69.

    16

    129

    .85

    100

    .20

    21.

    10

    96.

    95

    74.

    15

    21.

    90

    72.

    80

    21.

    00

    62.

    95

    24.

    99

    22.

    63 1

    33.5

    3

    104

    .36

    24.

    52 1

    28.4

    4

    82.

    18

    103

    .31

    36.

    70 1

    2.80

    46.

    00 1

    6.10

    91.

    91

    14.

    30 4

    0.90

    12.

    80

    16.

    10

    14.

    30

    150

    .50

    169

    .00

    117

    .60

    169

    .00

    154

    .80

    90.

    20 7

    9.00

    150

    .70

    116

    .20

    105

    .40

    X

    Z

    Y

    Isom

    etric

    LC2:

    g_E

    arth

    pre

    ssur

    e_k

    LC2: G_EARTH PRESSURE_K, ISOMETRIC

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    NODAL LOADS LC3: p_SLS-iB_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 80.00 38.00 445.00 0.00 0.00 0.00

    Sn12 73,143 58.00 33.00 480.00 0.00 0.00 0.00

    Sn33 36,142 235.00 50.00 700.00 0.00 0.00 0.00

    Sn54 106,107 -50.00 20.00 23.00 0.00 0.00 0.00

    Sn25 69,70 -100.00 18.00 83.00 0.00 0.00 0.00

    Sn46 32,33 20.00 30.00 203.00 0.00 0.00 0.00

    Sn6

    LC3p_SLS-iB_+y

    LC3: P_SLS-IB_+Y, ISOMETRIC

    80.00

    445.00

    38.00

    58.00

    80.00480.00

    445.00

    33.00

    38.00

    58.00

    235.00

    50.00480.00

    50.00

    33.00 700.00

    23.00

    235.00

    100.00

    20.0050.00

    50.00

    700.0083.00

    23.00

    100.0018.00

    20.00

    20.00

    83.00

    203.00

    30.00

    18.00

    20.00

    203.00

    30.00

    X

    Z

    Y

    IsometricLC3: p_SLS-iB_+yLC3: P_SLS-IB_+Y, ISOMETRIC

    NODAL LOADS LC4: p_SLS-iB_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -85.00 -23.00 -93.00 0.00 0.00 0.00

    Sn12 73,143 -123.00 -18.00 13.00 0.00 0.00 0.00

    Sn33 36,142 -3.00 -33.00 173.00 0.00 0.00 0.00

    Sn54 106,107 123.00 -40.00 575.00 0.00 0.00 0.00

    Sn25 69,70 83.00 -30.00 593.00 0.00 0.00 0.00

    Sn46 32,33 260.00 -50.00 785.00 0.00 0.00 0.00

    Sn6

    LC4p_SLS-iB_-y

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    LC4: P_SLS-IB_-Y, ISOMETRIC

    23.00

    93.00

    85.00

    18.00

    23.00

    123.00

    93.00

    85.00

    33.00

    18.00

    13.00

    3.00

    123.00

    40.00

    33.00

    13.00

    173.00

    3.00

    30.00

    40.00123.00

    173.00

    575.00

    50.00

    30.0083.00

    123.00 593.00

    575.00

    50.00

    83.00

    260.00

    593.00

    785.00

    260.00

    785.00

    X

    Z

    Y

    IsometricLC4: p_SLS-iB_-yLC4: P_SLS-IB_-Y, ISOMETRIC

    NODAL LOADS LC5: p_SLS-aB_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 193.00 95.00 780.00 0.00 0.00 0.00

    Sn12 73,143 193.00 90.00 815.00 0.00 0.00 0.00

    Sn33 36,142 378.00 95.00 1020.00 0.00 0.00 0.00

    Sn54 106,107 -170.00 80.00 -385.00 0.00 0.00 0.00

    Sn25 69,70 -240.00 78.00 -318.00 0.00 0.00 0.00

    Sn46 32,33 -175.00 80.00 -253.00 0.00 0.00 0.00

    Sn6

    LC5p_SLS-aB_+y

    LC5: P_SLS-AB_+Y, ISOMETRIC

    193.0095.00

    193.00

    193.00

    90.00

    815.00

    780.00

    95.00

    385.00

    378.00

    193.00

    170.00

    95.00

    90.00

    815.00

    1020.00

    318.00

    385.00

    378.00

    240.00

    80.00170.00

    95.00

    1020.00

    253.00

    318.00

    175.00

    240.0078.00

    80.00

    253.00

    175.0080.00

    78.00

    80.00

    X

    Z

    Y

    IsometricLC5: p_SLS-aB_+yLC5: P_SLS-AB_+Y, ISOMETRIC

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    NODAL LOADS LC6: p_SLS-aB_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -173.00 -78.00 -360.00 0.00 0.00 0.00

    Sn12 73,143 -243.00 -78.00 -303.00 0.00 0.00 0.00

    Sn33 36,142 -188.00 -85.00 -253.00 0.00 0.00 0.00

    Sn54 106,107 193.00 -90.00 753.00 0.00 0.00 0.00

    Sn25 69,70 195.00 -90.00 798.00 0.00 0.00 0.00

    Sn46 32,33 388.00 -100.00 1023.00 0.00 0.00 0.00

    Sn6

    LC6p_SLS-aB_-y

    LC6: P_SLS-AB_-Y, ISOMETRIC

    78.00

    360.00

    173.00

    78.00

    78.00

    303.00

    360.00

    243.00

    173.00

    85.00

    78.00

    253.00

    303.00

    188.00

    243.00

    90.00

    85.00

    253.00

    188.00

    90.00

    90.00193.00

    753.00

    100.00

    90.00195.00

    193.00 798.00

    753.00

    100.00388.00

    195.00

    798.00

    1023.00

    388.00

    1023.00

    X

    Z

    Y

    IsometricLC6: p_SLS-aB_-yLC6: P_SLS-AB_-Y, ISOMETRIC

    NODAL LOADS LC7: p_SLS-MT_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 113.00 75.00 540.00 0.00 0.00 0.00

    Sn12 73,143 53.00 33.00 615.00 0.00 0.00 0.00

    Sn33 36,142 340.00 95.00 935.00 0.00 0.00 0.00

    Sn54 106,107 -185.00 63.00 -415.00 0.00 0.00 0.00

    Sn25 69,70 -300.00 18.00 -163.00 0.00 0.00 0.00

    Sn46 32,33 -65.00 75.00 5.00 0.00 0.00 0.00

    Sn6

    LC7p_SLS-MT_+y

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    LC7: P_SLS-MT_+Y, ISOMETRIC

    113.00

    540.00

    75.00

    53.00

    113.00615.00

    540.00

    33.00

    75.00

    415.00

    53.00

    340.00

    185.00615.00

    33.00935.00

    95.00

    415.00

    163.00

    300.00

    340.00

    185.0063.00

    935.00

    95.00

    163.00

    300.00

    65.00

    18.00

    63.00

    5.00

    65.00

    18.00

    75.005.00

    75.00

    X

    Z

    Y

    IsometricLC7: p_SLS-MT_+yLC7: P_SLS-MT_+Y, ISOMETRIC

    NODAL LOADS LC8: p_SLS-MT_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -185.00 -60.00 -400.00 0.00 0.00 0.00

    Sn12 73,143 -85.00 -18.00 -153.00 0.00 0.00 0.00

    Sn33 36,142 -70.00 -75.00 5.00 0.00 0.00 0.00

    Sn54 106,107 -185.00 -73.00 528.00 0.00 0.00 0.00

    Sn25 69,70 -300.00 -33.00 605.00 0.00 0.00 0.00

    Sn46 32,33 345.00 -98.00 935.00 0.00 0.00 0.00

    Sn6

    LC8p_SLS-MT_-y

    LC8: P_SLS-MT_-Y, ISOMETRIC

    60.00

    400.00

    185.00

    18.00

    60.00

    400.00

    153.00

    85.00

    185.00

    75.00

    18.00

    153.00

    70.00

    85.00

    73.00

    75.005.00

    185.00

    70.00

    33.00

    73.00

    5.00

    300.00

    528.00

    185.00

    98.00

    33.00300.00

    605.00

    528.00

    98.00 345.00

    605.00

    935.00

    345.00

    935.00

    X

    Z

    Y

    IsometricLC8: p_SLS-MT_-yLC8: P_SLS-MT_-Y, ISOMETRIC

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    NODAL LOADS LC9: a_EB_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 110.00 50.00 535.00 0.00 0.00 0.00

    Sn12 73,143 103.00 45.00 565.00 0.00 0.00 0.00

    Sn33 36,142 285.00 60.00 763.00 0.00 0.00 0.00

    Sn54 106,107 -78.00 33.00 -73.00 0.00 0.00 0.00

    Sn25 69,70 -143.00 30.00 -20.00 0.00 0.00 0.00

    Sn46 32,33 108.00 40.00 385.00 0.00 0.00 0.00

    Sn6

    LC9a_EB_+y

    LC9: A_EB_+Y, ISOMETRIC

    110.0050.00

    103.00

    110.00565.00

    45.00

    535.00

    50.00

    103.00

    285.00

    73.00

    78.00 565.00

    60.00

    45.00763.00

    285.00

    143.0020.00

    73.00

    78.0033.00

    60.00

    763.00143.00

    20.00

    30.00

    33.00

    108.00

    385.00

    40.00

    30.00

    108.00

    385.00

    40.00

    X

    Z

    Y

    IsometricLC9: a_EB_+yLC9: A_EB_+Y, ISOMETRIC

    NODAL LOADS LC10: a_EB_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -108.00 -35.00 -158.00 0.00 0.00 0.00

    Sn12 73,143 -165.00 -33.00 -63.00 0.00 0.00 0.00

    Sn33 36,142 -63.00 60.00 40.00 0.00 0.00 0.00

    Sn54 106,107 143.00 -53.00 620.00 0.00 0.00 0.00

    Sn25 69,70 125.00 -45.00 635.00 0.00 0.00 0.00

    Sn46 32,33 -38.00 -58.00 833.00 0.00 0.00 0.00

    Sn6

    LC10a_EB_-y

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    LC10: A_EB_-Y, ISOMETRIC

    35.00

    158.00

    108.00

    33.00

    35.00

    63.00

    165.00

    158.00

    108.00

    33.00

    63.00

    63.00

    165.00

    53.00

    40.00

    63.0060.00

    45.00

    53.00143.00

    40.00

    620.00

    58.0060.00

    45.00125.00

    143.00

    38.00

    635.00

    620.00

    58.00

    125.00

    38.00

    635.00

    833.00833.00

    X

    Z

    Y

    IsometricLC10: a_EB_-yLC10: A_EB_-Y, ISOMETRIC

    NODAL LOADS LC11: p_ULS-iB_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 125.00 58.00 680.00 0.00 0.00 0.00

    Sn12 73,143 105.00 50.00 718.00 0.00 0.00 0.00

    Sn33 36,142 375.00 80.00 1048.00 0.00 0.00 0.00

    Sn54 106,107 -88.00 33.00 -48.00 0.00 0.00 0.00

    Sn25 69,70 -160.00 33.00 50.00 0.00 0.00 0.00

    Sn46 32,33 -5.00 50.00 200.00 0.00 0.00 0.00

    Sn6

    LC11p_ULS-iB_+y

    LC11: P_ULS-IB_+Y, ISOMETRIC

    125.00

    680.00

    58.00

    105.00

    125.00718.00

    680.00

    50.00

    58.00

    105.00

    375.00

    48.00

    88.00718.00

    80.00

    1048.0050.00

    375.00

    160.00

    48.00

    88.0033.00

    80.00

    1048.0050.00

    5.00

    160.0033.00

    33.00

    200.00

    50.00

    5.0050.00

    33.00

    200.00

    50.00

    X

    Z

    Y

    IsometricLC11: p_ULS-iB_+yLC11: P_ULS-IB_+Y, ISOMETRIC

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    NODAL LOADS LC12: p_ULS-iB_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -138.00 -38.00 -193.00 0.00 0.00 0.00

    Sn12 73,143 -368.00 -118.00 -540.00 0.00 0.00 0.00

    Sn33 36,142 -28.00 -53.00 175.00 0.00 0.00 0.00

    Sn54 106,107 190.00 -63.00 873.00 0.00 0.00 0.00

    Sn25 69,70 308.00 -133.00 1170.00 0.00 0.00 0.00

    Sn46 32,33 393.00 -75.00 1173.00 0.00 0.00 0.00

    Sn6

    LC12p_ULS-iB_-y

    LC12: P_ULS-IB_-Y, ISOMETRIC

    38.00

    193.00

    138.00

    118.00

    38.00

    540.00

    368.00

    193.00

    138.00

    118.00

    53.00540.00

    368.00

    28.00

    63.00

    53.00

    175.00

    133.00

    28.00

    63.00190.00

    175.00

    873.00

    75.00

    133.00308.00

    190.00

    873.00

    1170.00

    75.00 393.00

    308.00 1173.00

    1170.00

    393.00

    1173.00

    X

    Z

    Y

    IsometricLC12: p_ULS-iB_-yLC12: P_ULS-IB_-Y, ISOMETRIC

    NODAL LOADS LC13: p_ULS-aB_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 288.00 140.00 1138.00 0.00 0.00 0.00

    Sn12 73,143 305.00 133.00 1193.00 0.00 0.00 0.00

    Sn33 36,142 558.00 143.00 1503.00 0.00 0.00 0.00

    Sn54 106,107 288.00 123.00 -633.00 0.00 0.00 0.00

    Sn25 69,70 -363.00 118.00 -555.00 0.00 0.00 0.00

    Sn46 32,33 -315.00 120.00 -538.00 0.00 0.00 0.00

    Sn6

    LC13p_ULS-aB_+y

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    LC13: P_ULS-AB_+Y, ISOMETRIC

    288.00140.00

    305.00

    288.00

    133.00

    1193.00

    1138.00

    140.00

    633.00

    558.00

    305.00

    143.00

    133.00

    1193.00

    1503.00

    288.00

    555.00

    633.00

    558.00

    363.00

    123.00

    143.00

    1503.00

    288.00

    538.00

    555.00

    315.00

    363.00118.00

    123.00

    538.00

    315.00120.00

    118.00

    120.00

    X

    Z

    Y

    IsometricLC13: p_ULS-aB_+yLC13: P_ULS-AB_+Y, ISOMETRIC

    NODAL LOADS LC14: p_ULS-aB_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -260.00 -118.00 -608.00 0.00 0.00 0.00

    Sn12 73,143 -368.00 -118.00 -540.00 0.00 0.00 0.00

    Sn33 36,142 -328.00 -128.00 -538.00 0.00 0.00 0.00

    Sn54 106,107 288.00 -135.00 1098.00 0.00 0.00 0.00

    Sn25 69,70 305.00 -133.00 1170.00 0.00 0.00 0.00

    Sn46 32,33 573.00 -148.00 1505.00 0.00 0.00 0.00

    Sn6

    LC14p_ULS-aB_-y

    LC14: P_ULS-AB_-Y, ISOMETRIC

    118.00

    608.00

    260.00

    118.00

    118.00

    540.00

    608.00

    368.00

    260.00

    128.00

    118.00

    538.00

    540.00

    328.00

    368.00

    135.00

    128.00

    538.00

    328.00

    133.00

    135.00288.00

    1098.00

    148.00

    133.00305.00

    288.00 1170.00

    1098.00

    148.00573.00

    305.00

    1170.00

    1505.00

    573.00

    1505.00

    X

    Z

    Y

    IsometricLC14: p_ULS-aB_-yLC14: P_ULS-AB_-Y, ISOMETRIC

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    NODAL LOADS LC15: p_ULS-MT_+yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 168.00 110.00 800.00 0.00 0.00 0.00

    Sn12 73,143 -450.00 48.00 888.00 0.00 0.00 0.00

    Sn33 36,142 500.00 140.00 1363.00 0.00 0.00 0.00

    Sn54 106,107 -275.00 93.00 -640.00 0.00 0.00 0.00

    Sn25 69,70 -448.00 28.00 -288.00 0.00 0.00 0.00

    Sn46 32,33 -115.00 110.00 -63.00 0.00 0.00 0.00

    Sn6

    LC15p_ULS-MT_+y

    LC15: P_ULS-MT_+Y, ISOMETRIC

    168.00

    450.00

    800.00

    110.00168.00

    450.00

    888.00

    800.00

    48.00

    110.00

    640.00

    500.00

    275.00888.00

    48.00

    140.00

    1363.00640.00

    288.00

    448.00

    500.00

    275.0093.00

    140.00

    1363.00

    288.00

    63.00

    448.00

    115.00

    28.00

    93.00

    63.00115.00

    28.00

    110.00110.00

    X

    Z

    Y

    IsometricLC15: p_ULS-MT_+yLC15: P_ULS-MT_+Y, ISOMETRIC

    RFEM 5.02.0030 - General 3D structures solved using FEM www.dlubal.com

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    Date: 11.08.2014 Project: W1316 Model: Top station tower

    NODAL LOADS LC16: p_ULS-MT_-yForce [kN] Moment [kNm]

    No. On Nodes No. PX PY PZ MX MY MZ1 110,141 -275.00 -90.00 -618.00 0.00 0.00 0.00

    Sn12 73,143 -450.00 -28.00 -275.00 0.00 0.00 0.00

    Sn33 36,142 -123.00 140.00 -63.00 0.00 0.00 0.00

    Sn54 106,107 -275.00 -108.00 780.00 0.00 0.00 0.00

    Sn25 69,70 85.00 -48.00 875.00 0.00 0.00 0.00

    Sn46 32,33 508.00 -145.00 1363.00 0.00 0.00 0.00

    Sn6

    LC16p_ULS-MT_-y

    LC16: P_ULS-MT_-Y, ISOMETRIC

    90.00

    618.00

    275.00

    28.00

    90.00

    618.00

    275.00

    450.00

    275.00

    28.00

    275.00

    63.00

    450.00

    123.00

    108.00275.00

    63.00

    123.00140.00

    48.00

    108.00

    780.00

    275.00

    145.00

    85.00

    140.00

    48.00

    875.00

    780.00

    145.00

    85.00

    508.00

    875.00

    1363.00

    508.00

    1363.00

    X

    Z

    Y

    IsometricLC16: p_ULS-MT_-yLC16: P_ULS-MT_-Y, ISOMETRIC

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    RESULTS

    Date: 11.08.2014 Project: W1316 Model: Top station tower

    RESULTS - SUMMARYDescription Value Unit Comment

    CO1 - SLS_iB_+ySum of loads in X -1498.40 kNSum of support reactions in X -1498.40 kN Deviation 0.00%Sum of loads in Y 1133.40 kNSum of support reactions in Y 1133.40 kN Deviation 0.00%Sum of loads in Z 32964.00 kNSum of support reactions in Z 32964.00 kN Deviation 0.00%Resultant of reactions about X -2977.92 kNm At center of gravity of model (X:9.92, Y:6.45, Z:-0.10 m)Resultant of reactions about Y 477.24 kNm At center of gravity of modelResultant of reactions about Z -2978.18 kNm At center of gravity of modelMax. displacement in X -1.2 mm Member No. 33, x: 2.031 mMax. displacement in Y 0.7 mm Member No. 8, x: 0.000 mMax. displacement in Z 0.5 mm FE Node No. 3599 (X: 8.011, Y: 5.210, Z: 1.240 m)Max. vector displacement 1.3 mm FE Node No. 50 (X: 10.410, Y: 4.020, Z: -4.164 m)Max. r