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STATICAL CALCULATION
30 – TGD – FANSIPAN, VIETNAM
FOUNDATION OF TOWER 3
Client:Doppelmayr Seilbahnen GmbHRickenbacherstraße 8 – 106961 Wolfurt
August 2014 STN Lei Lei
Date elaborated checked released
Project No.: W1316 total 157 Pages
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CONTENTS
1. General 4
2. Basis 4
2.1. Relevant drawings and documents 4
2.2. Verifications and calculations 4
2.3. Materials 5
2.4. Foundation parameters 5
2.5. Software 6
3. Load cases / Combination of load cases 6
3.1. Tower view 6
3.2. Support points of the steel plate 7
3.3. Design criteria 7
3.4. Safety Factors 8
3.5. Load cases 8
3.6. Tower support reactions 9
3.6.1. Dead load 10
3.6.2. Earth pressure 10
3.6.3. RFEM - Documentation of input data 11
3.6.4. Support reaction in LC: SLS In operation (iB) 12
3.6.5. Support reaction in LC: SLS Out operation (aB) 12
3.6.6. Support reaction in LC: SLS Extraordinary (AG) 13 3.6.7. Support reaction in LC: ULS In operation (iB) 13
3.6.8. Support reaction in LC: ULS Out operation (aB) 14
3.7. Load combination 14
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4. Stability calculations 15
4.1. Sliding 15 4.2. Uplift 15
4.2.1. Sliding and Uplift Foundation Mountain Left - ML 16
4.2.2. Sliding and Uplift Foundation Mountain Right - MR 20
4.2.3. Sliding and Uplift Foundation Downhill Right - DR 24
4.2.4. Sliding and Uplift Foundation Downhill Left - DL 28
4.3. Overturning 32
4.3.1. Overturning Foundation Mountain Right - DR 32
4.3.2. Overturning Foundation Mountain Left - DL 33
4.3.3. Overturning Foundation Downhill Right - DR 34
4.4. Allowable foundation bearing stress 35
4.4.1. Max contact stresses Foundation Mountain Left - ML 35
4.4.2. Max contact stresses Foundation Mountain Right - DR 36
4.4.3. Max contact stresses Foundation Downhill Right - DR 36
5. RFEM- Report Foundation Mountain Left - ML 37
6.
RFEM- Report Foundation Mountain Right – DR 77
7. RFEM- Report Foundation Downhill Right – DL 117
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1. General
The consulting engineer’s 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 tower 3 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 columns 3 from Doppelmayr, support Number : 004H1450 (from
19.02.2014)
c) Design structure of column 3 from Doppelmayr, drawing Number : 20053257H005300,(from 23.04.2014)
2.2. Verifications and calculations
The following verifications are to be performed for each single foundation:
- stability (sliding, overturning, uplifting)
- design of concrete foundation
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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 γ concr . = 25kN/m3
Safety Factor γC = 1,50 usual load conditionγC = 1,30 extreme load condition
Reinforcement Steel 365S
Allowed tensile Strength f yk = 365MPa
Safety Factor γS = 1,15 usual load condition
γS = 1,00 extreme load condition
2.4. Foundation parameters
According to geology report the following foundation parameters are used:
Unit Weight γ = 17kN/m³
Angle of internal friction φ = 27,5 °
Cohesion c = 150kN/m²
Modulus of elasticity E = 1.195MN/m²
Soil bearing capacity σz = 750kN/m²
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2.5. Software
Dlubal RFEM Version 5.12.0021
Con Dim Version 7.1.3.2
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 (for Tower no., calculation no.) provide the base for the
following combinations
According to EN 13107 there are 3 combinations of load cases to examine:
- Permanent design situation
∑
≥
∑
≥
××+×+×=
1 j 1i
kiQ
0iψ
Qiγ
k1Q
Q1γ
KjG
Gjγ
DS
- Combination for accidental design situation
∑
≥
∑
≥
×+×+×=
1 j 1iki
Q2i
ψk1
QψKj
GGAjγ
DS 1i
- Combination due to seismic loads
∑
≥
∑
≥
×+×+=
1 j 1i
kiQ
2iψA
1γ
KjG
DS Ed
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3.4. Safety FactorsSafety FactorsSafety FactorsSafety Factors
for dead loads γdead_load = 1,35
for live loads γlive_load = 1,50
for earthquake loads γearthquake = 1,00
for all variable actions 0iψ = 1,00
3.5. Load cases
Load cases according structural calculation of Doppelmayr from rope and steel structure:
- Self weight
- max. uphill ropes at ∓30°C with full cabins with friction
- max. downhill ropes at ∓30°C with full cabins with friction
- uphill ropes at ∓30°C and empty cabins with friction
- downhill ropes at ∓30°C and empty cabins with friction
- uphill iced ropes with friction
- downhill iced ropes with friction
- uphill rope empty at ∓30°C
- downhill rope empty at ∓30°C
- 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: Rescue
- Combination of load cases: (in operation: seismic load)
Each combination is examined for Nmin and Nmax
Only one combination (AG) between Rescue and Earthquake is taken into account in RFEM
calculations.
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 valued …… Design valueiB ……In operationaB …..Out of operation AG ….Extraordinary
CS - Doppelmayr CS - BauCon
Rz
Rx
Ry
Y
Z
X
X
YZ
Px = -Rx
Py = Ry
Pz = Rz Px = - ½ * Rx {Ri ≙ Reaction Doppelmayr}Py = + ½ * Ry Pz = + ½ * Rz
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3.6.1. Dead load
Dead load from the hole concrete structure in RFEM .
Unit Weight γ concr . = 25kN/m3
3.6.2. Earth pressure
Backfill unit weight: γ backfill. = 17kN/m3
Angle of shearing resistance φ Filling, d
Live load (snow) sk = 3,0kN/m²
Horizontal component of the earth pressure
eh_top = sk x Kah
eh_bottom = (sk + γ x h) x Kah
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3.6.4. Support reaction in LC: SLS In operation (iB)
Load case: '
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL ' %7 2 27+
*R8*L ' %2'+ -3 %20+
Load case: )
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL ) %7 %2 27+
*R8*L ) %2'+ %-3 %20+
Load case: +
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL + 0' 27' -7+
*R8*L + 2' 27+ )3
Load case: ,
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL , 0' %27' -7+
*R8*L , 2' %27+ )3
3.6.5. Support reaction in LC: SLS Out operation (aB)
Load case: -
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL - %3 22+ %'3'
*R8*L - %'2' 2+ %,73
Load case:
Support LK Rx [kN] Ry [kN] Rz [kN]DR8DL %3 %22+ %'3'
*R8*L %'2' %2+ %,73
Load case: 0
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 0 2'' 73+ 23-3
*R8*L 0 ''' 7'3 ++
Load case: 23
Support LK Rx [kN] R
y [kN] R
z [kN]
DR8DL 23 2'' %73+ 23-3
*R8*L 23 ''' %7'3 ++
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3.6.6. Support reaction in LC: SLS Extraordinary (AG)
Load case: 22
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 22 %+ 27' %)0
*R8*L 22 %'++ 77 %-)
Load case: 27
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 27 %+ %27' %)0
*R8*L 27 %'++ %77 %-)
Load case: 2'
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 2' 2)+ 77' 220'
*R8*L 2' ))3 73 232
Load case: 2)
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 2) 2)+ %77' 220'
*R8*L 2) ))3 %73 232
3.6.7. Support reaction in LC: ULS In operation (iB)
Load case: 2+
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 2+ %,+ - %22'
*R8*L 2+ %7) 2)' %)2+
Load case: 2,
Support LK Rx [kN] Ry [kN] Rz [kN]DR8DL 2, %,+ %- %22'
*R8*L 2, %7) %2)' %)2+
Load case: 2-
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 2- 2+3 733 22'3
*R8*L 2- '33 723 --3
Load case: 2
Support LK Rx [kN] R
y [kN] R
z [kN]
DR8DL 2 2+3 %733 22'3
*R8*L 2 '33 %723 --3
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3.6.8. Support reaction in LC: ULS Out operation (aB)
Load case: 20
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 20 %2' 72+ %-7'
*R8*L 20 %+3+ '3 %23'
Load case: 73
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 73 %2' %72+ %-7'
*R8*L 73 %+3+ %'3 %23'
Load case: 72
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 72 73 '7' 2,'
*R8*L 72 +2 ',3 2'2
Load case: 77
Support LK Rx [kN] Ry [kN] Rz [kN]
DR8DL 77 73 %'7' 2,'
*R8*L 77 +2 %',3 2'2
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 of the single foundations 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 * tanδd) ≤ 1,0
tan δd = tan δk / γφ
tan δk = tan φk / 1,2
Safety factor for loads γφ = 1,3 Angle of internal friction φk
4.2. Uplift
Vdst,d / Gstb,d≤ 1,0
Uplift force Vdst,d = уQ,dst x Vabh
Dead load Gstb,d = уG,stb x Gk
Safety factor for ULS EQU уQ,dst = 1,5
(s.EN1997-1; Annex. A, Tab.A.1) уG,stb = 0,9
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4.2.1. Sliding and Uplift Foundation Mountain Left - ML
Vertical component on base plate :
Fansipan - Tower 3 (Mountain_left) Altitude = 2030 m
γ Filling,d = 17,0 kN/m³ φ Sliding = 27,5°
ha = 5,70 m hd = 7,20 m
hb = 6,20 m he = 7,20 m
hc = 7,20 m hf = 6,80 m
.
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Horizontal component of the wall with snow (active earth pressure )
In the lift-axis 91 = 0,00°
Across the lift-axis 92 = 0,0°
φ Filling,d = 35,0°
In the lift-axis β1 = 0,0°
Across the lift-axis β2 = 34,0°
δ = 2/3 x φd = 23,3°
γd = 17,0 kN/m³
cd = 150,0
h = 7,20 m
In the lift-axis b1 = 2,00 m
Across the lift-axis b2oben = 2,60 m
Across the lift-axis b2unten = 4,60 m
RFEM: b1Member = 0,65 m
b2Member = 0,70 m
In the lift-axis
θ1a = 60,43
K1a = 0,24
K1ah = 0,22
e1h_top = sk x K1ah = 0,0 kN/m²
e1h_top_memb. = e1h_top x b1memb. / 2 = 0,0 kN/m
e1h_bottom = (sk + γ x h) x K1ah = 27,5 kN/m²
e1h_bottom_memb. = e1h_bottom x b1memb. / 2 = 8,9 kN/m
E1h1 = e1h_top x h x b1 + (e1h_bottom - e1h_top) x b1 x h / 2E1h1 = 197,8 kN
Across the lift-axis
θ2a = 41,46
K2a = 0,56
K2ah = 0,52
e2h_top = sk x K2ah = 0,0 kN/m²
e2h_top_member = e2h_top x b2top/2 = 0,0 kN/m
e2h_bottom = γ x h x K2ah = 63,2 kN/m²
e2h_bottom_member = e2h_bottom x b2member / 2 = 22,1 kN/m
E2h1 = (b2bottom + b2top) x e2h_bottom x h / 4
E2h1 = 819,5 kN
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Horizontal component of the vertical plate (active earth pressure ):
sk = 0,0 kN/m²
In the lift-axis α1 = 0,0°
Across the lift-axis α2 = 0,0°
φd = 35,0°
In the lift-axis β1 = 0,0°
Across the lift-axis β2 = 34,0°
δ = 0,0°
γd = 17,0 kN/m³
cd = 150,0
htop = 6,80 m
hbottom = 0,70 m
hPlate = hbottom - htop = 7,50 m
In the lift-axis b1 = 6,50 m Across the lift-axis b2 = 6,50 m
In the lift-axis
θ1a = 64,82
K1a = 0,27
K1ah = 0,27
e1h_top = γ x htop x K1ah = 31,3 kN/m²
e1h_bottom = γ x bottom x K1ah = 34,6 kN/m²
e1h_Plate =(e1h_top+e1h_bottom)/2 x hPlate = 23,1 kN/m
E1h2 = e1h_top x hPlate x b1 + (e1h_bottom - e1h_top) x b1 x hPlate / 2
E1h2 = 149,9 kN qE1h2 = 23,1 kN/m
Across the lift-axis
θ2a = 43,06
K2a = 0,54
K2ah = 0,54
e2h_top = γ x htop x K2ah = 63,0 kN/m²
e2h_bottom = γ x hbottom x K2ah = 69,5 kN/m²
e2h_Plate =(e2h_top+e2h_bottom)/2 x hPlate = 46,3 kN/m
E2h2 = e2h_top x hPlate x b2 + (e2h_bottom - e2h_top) x b2 x hPlate / 2
E2h2 = 301,3 kN qE2h2 = 46,3 kN/m
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Safety against sliding and uplift :
G1 = 3051,9 kN Deadload fundation
G2 = 3773,8 kN Deadload filling
Gk = G1 + G2 = 6825,6 kN Sum Loads
Vabh = 1495,0 kN Uplift force from the tower
Vk = Gk - Vabh = 5330,6 kN Sum total vertical forces
Rx = 710,0 kN max. horizontal force in lift- axis direction
R = 455,0 kN max. horizontal force in across lift-axis direction
HSt = (Rx² + R ²)0,5
= 843,3 kN horizontal force from the tower
Eh1 = (E1h1² + E2h1²)0,5
= 843,0 kN horizontal force from the Earthpressure on the wall
Eh2 = (E1h2² + E2h2²)
0,5
=336,5 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 = 2242,5 kN
Gstb,d = 48stb 6 4. = 6143,1 kN
Vdst,d / Gstb,d = 0,37 ; 1,0
Safety against sliding:
tan <d = tan <k / => with γφ = 1,10 Safety factor for loads for Extraordinary
tan <k = tan >k / 287 tan <d = 0,38
Hk / (Vk * tanδd) = 1,00 ; 1,0
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4.2.2. Sliding and Uplift Foundation Mountain Right - MR
Vertical component on base plate:
Fansipan - Tower 3 (Mountain_right) Altitude = 2034 m
γ Filling,d = 17,0 kN/m³ φ sliding = 27,5°
ha = 3,09 m hd = 7,23 m
hb = 7,10 m he = 7,23 m
hc = 7,23 m hf = 6,87 m
.
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Horizontal component of the wall (active earth pressure )
In the lift-axis α1 = 0,00°
Across the lift-axis α2 = 0,0°
φ Filling, d = 35,0°
In the lift-axis β1 = 0,0°
Across the lift-axis β2 = 23,4°
δ = 2/3 x φd = 23,3°
γd = 17,0 kN/m³
cd = 150,0
h = 7,23 m
In the lift-axis b1 = 2,00 m
Across the lift-axis b2top = 2,60 m
Across the lift-axis b2bottom = 4,00 m
RFEM: b1Member = 0,65 m
b2Member = 0,70 m
In the lift-axis
θ1a = 60,43
K1a = 0,24
K1ah = 0,22
e1h_top = sk x K1ah = 0,0 kN/m²
e1h_top_member = e1h_top x b1member /2 = 0,0 kN/m
e1h_bottom = γ x h x K1ah = 27,6 kN/m²
e1h_bottom_member = e1h_bottom x b1member /2 = 9,0 kN/m
E1h1 = e1h_top x h x b1 + (e1h_bottom - e1h_top) x b1 x h / 2E1h1 = 199,4 kN
Across the lift-axis
θ2a = 52,83
K2a = 0,35
K2ah = 0,32
e2h_top = sk x K2ah = 0,0 kN/m²
e2h_top_member = e2h_top x b2top/2 = 0,0 kN/m
e2h_bottom = γ x h x K2ah = 39,2 kN/m²
e2h_bottom_member = e2h_bottom x b2member / 2 = 13,7 kN/m
E2h1 = (b2bottom + b2top) x e2h_bottom x h / 4
E2h1 = 467,3 kN
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Horizontal component of the vertical plate (active earth pressure ):
sk = 0,0 kN/m²
In the lift-axis α1 = 0,0°
Across the lift-axis α2 = 0,0°
φd = 35,0°
In the lift-axis β1 = 0,0°
Across the lift-axis β2 = 23,4°
δ = 0,0°
γd = 17,0 kN/m³
cd = 150,0
htop = 6,87 m
hbottom = 0,70 m
hPlate = hbottom - htop = 7,57 m
In the lift-axis b1 = 6,50 m Across the lift-axis b2 = 6,50 m
In the lift-axis
θ1a = 64,82
K1a = 0,27
K1ah = 0,27
e1h_top = γ x htop x K1ah = 31,6 kN/m²
e1h_bottom = γ x hbottom x K1ah = 34,9 kN/m²
e1h_Plate =(e1h_top+e1h_bottom)/2 x hPlate = 23,3 kN/m
E1h2 = e1h_top x hPlate x b1 + (e1h_bottom - e1h_top) x b1 x hPlate / 2
E1h2 = 151,3 kN qE1h2 = 23,3 kN/m
Across the lift-axis
θ2a = 56,41
K2a = 0,37
K2ah = 0,37
e2h_top = γ x htop x K2ah = 42,7 kN/m²
e2h_bottom = γ x hbottom x K2ah = 47,0 kN/m²
e2h_Plate =(e2h_top+e2h_bottom)/2 x hPlate = 31,4 kN/m
E2h2 = e2h_top x hPlate x b2 + (e2h_bottom - e2h_top) x b2 x hPlate / 2
E2h2 = 204,2 kN qE2h2 = 31,4 kN/m
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Safety against sliding and uplift:
G1 = 2195,9 kN Deadload fundation
G2 = 3760,4 kN Deadload filling
Gk = G1 + G2 = 5956,2 kN Sum Loads
Vabh = 1495,0 kN Uplift force from the tower
Vk = Gk - Vabh = 4461,2 kN Sum total vertical forces
Rx = 710,0 kN max. horizontal force in lift- axis direction
R = 455,0 kN max. horizontal force in across lift-axis direction
HSt = (Rx² + R ²)0,5
= 843,3 kN horizontal force from the tower
Eh1 = (E1h1² + E2h1²)0,5
= 508,1 kN horizontal force from the Earthpressure on the wall
Eh2 = (E1h2² + E2h2²)
0,5
=254,1 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 = 2242,5 kN
Gstb,d = 48stb 6 4. = 5360,6 kN
Vdst,d / Gstb,d = 0,42 ; 1,0
Safety against sliding:
tan <d = tan <k / => with γφ = 1,10 Safety factor for loads
tan <k = tan >k / 287 tan <d = 0,38
Hk / (Vk * tanδd) = 0,95 ; 1,0
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4.2.3. Sliding and Uplift Foundation Downhill Right - DR
Vertical component on base plate:
Fansipan - Tower 3 (Downhill_right) Altitude = 2031 m
γ Filling,d = 17,0 kN/m³ φ sliding = 27,5°
ha = 4,80 m hd = 5,20 m
hb = 5,20 m he = 5,60 m
hc = 5,20 m hf = 6,00 m
.
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Horizontal component of the wall (active earth pressure )
In the lift-axis α1 = -15,29°
Across the lift-axis α2 = 0,0°
φ Filling, d = 35,0°
In the lift-axis β1 = 19,4°
Across the lift-axis β2 = 18,3°
δ = 2/3 x φd = 23,3°
γd = 17,0 kN/m³
cd = 150,0
h = 5,60 m
In the lift-axis b1 = 2,00 m
Across the lift-axis b2top = 2,60 m
Across the lift-axis b2bottom = 4,00 m
RFEM: b1Member = 0,65 m
b2Member = 0,70 m
In the lift-axis
θ1a = 57,96
K1a = 0,51
K1ah = 0,40
e1h_top = sk x K1ah = 0,0 kN/m²
e1h_top_Member = e1h_top x b1Member /2 = 0,0 kN/m
e1h_bottom = γ x h x K1ah = 38,1 kN/m²
e1h_bottom_Member = e1h_bottom x b1Member /2 = 12,4 kN/m
E1h1 = e1h_top x h x b1 + (e1h_bottom - e1h_top) x b1 x h / 2
E1h1 = 213,6 kN
Across the lift-axis
θ2a = 55,20
K2a = 0,31
K2ah = 0,29
e2h_top = sk x K2ah = 0,0 kN/m²
e2h_top_Member = e2h_top x b2top/2 = 0,0 kN/m
e2h_bottom = γ x h x K2ah = 27,3 kN/m²
e2h_bottom_Member = e2h_bottom x b2Member / 2 = 9,5 kN/m
E2h1 = (b2bottom + b2top) x e2h_bottom x h / 4
E2h1 = 252,1 kN
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Safety against sliding and uplift:
G1 = 1638,0 kN Deadload fundation
G2 = 2538,7 kN Deadload filling
Gk = G1 + G2 = 4176,7 kN Sum Loads
Vabh = 995,0 kN Uplift force from the tower
Vk = Gk - Vabh = 3181,7 kN Sum total vertical forces
Rx = 170,0 kN max. horizontal force in lift- axis direction
R = 245,0 kN max. horizontal force in across lift-axis direction
HSt = (Rx² + R ²)0,5
= 298,2 kN horizontal force from the tower
Eh1 = (E1h1² + E2h1²)0,5
= 330,4 kN horizontal force from the Earthpressure on the wall
Eh2 = (E1h2² + E2h2²)0,5
= 216,2 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 = 1492,5 kN
Gstb,d = 48stb 6 4. = 3759,0 kN
Vdst,d / Gstb,d = 0,40 ; 1,0
Safety against sliding:
tan <d = tan <k / => with γφ = 1,10 Safety factor for loads
tan <k = tan >k / 287
tan <d = 0,38Hk / (Vk * tanδd) = 0,70 ; 1,0
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4.2.4. Sliding and Uplift Foundation Downhill Left - DL
Vertical component on base plate:
Fansipan - Tower 3 (Downhill_left) Altitude = 2027 m
γ Filling,d = 17,0 kN/m³ φ sliding = 27,5°
ha = 7,00 m hd = 7,20 m
hb = 7,20 m he = 7,80 m
hc = 7,20 m hf = 8,20 m
.
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Horizontal component of the vertical plate (active earth pressure ):
sk = 0,0 kN/m²
In the lift-axis α1 = 0,0°
Across the lift-axis α2 = 0,0°
φd = 35,0°
In the lift-axis β1 = 19,0°
Across the lift-axis β2 = 34,0°
δ = 0,0°
γd = 17,0 kN/m³
cd = 150,0
htop = 8,20 m
hbottom = 0,70 m
hPlate = hbottom - htop = 8,90 m
In the lift-axis b1 = 6,50 m
Across the lift-axis b2 = 6,50 m
In the lift-axis
θ1a = 58,73
K1a = 0,34
K1ah = 0,34
e1h_top = γ x htop x K1ah = 47,1 kN/m²
e1h_top = γ x hbottom x K1ah = 51,1 kN/m²
e1h_Plate =(e1h_top+e1h_bottom)/2 x hPlate = 34,4 kN/m
E1h2 = e1h_topx hPlate x b1 + (e1h_bottom - e1h_top) x b1 x hPlate / 2
E1h2 = 223,6 kN qE1h2 = 34,4 kN/m
Quer zur Bahnachse
θ2a = 43,06
K2a = 0,54
K2ah = 0,54
e2h_top = γ x htop x K2ah = 75,9 kN/m²
e2h_bottom = γ x hbottom x K2ah = 82,4 kN/m²
e2h_Plate=(e2h_top+e2h_bottom)/2 x hPlate = 55,4 kN/m
E2h2 = e2h_top x hPlate x b2 + (e2h_bottom - e2h_top) x b2 x hPlate / 2
E2h2 = 360,2 kN qE2h2 = 55,4 kN/m
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Safety against sliding and uplift:
G1 = 2195,9 kN Deadload fundation
G2 = 4176,4 kN Deadload filling
Gk = G1 + G2 = 6372,3 kN Sum Loads
Vabh = 995,0 kN Uplift force from the tower
Vk = Gk - Vabh = 5377,3 kN Sum total vertical forces
Rx = 170,0 kN max. horizontal force in lift- axis direction
R = 245,0 kN max. horizontal force in across lift-axis direction
HSt = (Rx² + R ²)0,5
= 298,2 kN horizontal force from the tower
Eh1 = (E1h1² + E2h1²)0,5
= 1045,8 kN horizontal force from the Earthpressure on the wall
Eh2 = (E1h2² + E2h2²)0,5
= 424,0 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 = 1492,5 kN
Gstb,d = 48stb 6 4. = 5735,1 kN
Vdst,d / Gstb,d = 0,26 ; 1,0
Safety against sliding:
tan <d = tan <k / => with γφ = 1,10 Safety factor for loads
tan <k = tan >k / 287
tan <d = 0,38Hk / (Vk * tanδd) = 0,86 ; 1,0
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4.3. Overturning
Overturning is calculated by finite elements calculation of each foundation slab.
4.3.1. Overturning Foundation Mountain Right - DR
Compression area at the base 100%
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4.3.2. Overturning Foundation Mountain Left - DL
Compression area at the base 100%
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4.3.3. Overturning Foundation Downhill Right - DR
Compression area at the base 60% in Load case Extraordinary
Compression area at the base 100% in Load case in operation
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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 σz = 750kN/m²
4.4.1. Max contact stresses Foundation Mountain Left - ML
Max contact stresses σz
max = 425 kN/m² < σz = 750kN/m²
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4.4.2. Max contact stresses Foundation Mountain Right - DR
Max contact stresses σzmax = 290 kN/m² < σz = 750kN/m²
4.4.3. Max contact stresses Foundation Downhill Right - DR
Max contact stresses σzmax = 360 kN/m² < σz = 750kN/m²
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BAUCON ZT GmbHUngargasse 64-66, Stiege 1, Top 19, 1030 - Wien
Tel: +43/(0)1/8131415-0 - Fax: +43/(0)1/8131415-13
Page: 37/76
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
CONTENTS Model - General Data 37 Global Deformation uZ max, RC1: SLS, 63
FE Mesh Settings 37 In Z-direction1 Model Contact Stresses sz min, RC1: 64
1.1 Nodes 38 SLS, In Z-direction1.2 Lines 38 Contact Stresses sz max, RC1: 64
1.3 Materials 39 SLS, In Z-direction1.4 Surfaces 39 RF-CONCRETE Surfaces1.9 Surface Supports 39 CA1 - Stahlbeton-Bemessung1.13 Cross-Sections 39 1.1 General Data 651.17 Members 39 1.2 Materials 651.21 Sets of Members 40 1.3 Surfaces 65
Model, Isometric 40 1.4 Reinforcement Group No. 1 65 Lines, Isometric 41 RF-CONCRETE Surfaces - Required Reinforcement 66 Surfaces, Isometric 41 as,1,-z (top), CA1, In
Local axes, Isometric 42 Z-direction Members, Isometric 42 RF-CONCRETE Surfaces - Required Reinforcement 66 Supports and FE-mesh, Isometric 43 as,2,-z (top), CA1, In
2 Load Cases and Combinations Z-direction Nodes, Isometric 43 RF-CONCRETE Surfaces - Required Reinforcement 67
2.1 Load Cases 44 as,1,+z (bottom), CA1,
2.5 Load Combinations 44 In Z-direction2.6 Result Combinations 45 RF-CONCRETE Surfaces - Required Reinforcement 673 Loads as,2,+z (bottom), CA1,
LC1 - 3.8 Free Rectangular Loads 45 In Z-direction LC2 - 3.2 Member Loads 45 RF-CONCRETE Surfaces - Required Reinforcement 68 LC2 - 3.3 Line Loads 45 as,1,-z (top), CA1,
LC2 - 3.4 Surface Loads 45 Isometric LC2 - 3.8 Free Rectangular Loads 45 RF-CONCRETE Surfaces - Required Reinforcement 68 LC2 - LC2: g_Earth pressure, Isometric 46 as,2,-z (top), CA1,
LC3 - 3.1 Nodal Loads 47 Isometric LC3 - LC3: p_SLS-iB_min_+y, Isometric 47 RF-CONCRETE Surfaces - Required Reinforcement 69 LC4 - 3.1 Nodal Loads 47 as,1,+z (bottom), CA1,
LC4 - LC4: p_SLS-iB_min_-y, Isometric 47 Isometric LC5 - 3.1 Nodal Loads 48 RF-CONCRETE Surfaces - Required Reinforcement 69 LC5 - LC5: p_SLS-iB_max_+y, Isometric 48 as,2,+z (bottom), CA1,
LC6 - 3.1 Nodal Loads 48 Isometric LC6 - LC6: p_SLS-iB_max_-y, Isometric 48 RF-CONCRETE Surfaces - Shear Reinforcement 70 LC7 - 3.1 Nodal Loads 49 asw, CA1, In Z-direction
LC7 - LC7: p_SLS-aB_min_+y, Isometric 49 RF-CONCRETE Members LC8 - 3.1 Nodal Loads 49 CA1 - Stützenkopf LC8 - LC8: p_SLS-aB_min_-y, Isometric 49 1.1 General Data 71 LC9 - 3.1 Nodal Loads 50 1.1 Settings - Nonlinear Calculation (State II) 71 LC9 - LC9: p_SLS-aB_max_+y, Isometric 50 1.2 Materials 71 LC10 - 3.1 Nodal Loads 50 1.3 Cross-Sections 71 LC10 - LC10: p_SLS-aB_max_-y, Isometric 50 1.6 Reinforcement Group No. 1 71 LC11 - 3.1 Nodal Loads 51 RF-CONCRETE Members - Required 72 LC11 - LC11: p_AG_min_+y, Isometric 51 Reinforcement As,-z
LC12 - 3.1 Nodal Loads 51 (top), Required Reinforcement LC12 - LC12: p_AG_min_-y, Isometric 51 As,+z (bottom), CA1, Isometric
LC13 - 3.1 Nodal Loads 52 RF-CONCRETE Members - Required 72 LC13 - LC13: p_AG_max_+y, Isometric 52 Reinforcement As,T, CA1,
LC14 - 3.1 Nodal Loads 52 Isometric LC14 - LC14: p_AG_max_-y, Isometric 52 RF-CONCRETE Members - Required 73 LC15 - 3.1 Nodal Loads 53 Reinforcement LC15 - LC15: p_ULS-iB_min_+y, Isometric 53 2*asw,T,link +
LC16 - 3.1 Nodal Loads 53 asw,V,link, CA1, Isometric
LC16 - LC16: p_ULS-iB_min_-y, Isometric 53 CA2 - Stützen LC17 - 3.1 Nodal Loads 54 1.1 General Data 73 LC17 - LC17: p_ULS-iB_max_+y, Isometric 54 1.1 Settings - Nonlinear Calculation (State II) 73 LC18 - 3.1 Nodal Loads 54 1.2 Materials 73 LC18 - LC18: p_ULS-iB_max_-y, Isometric 54 1.3 Cross-Sections 73 LC19 - 3.1 Nodal Loads 55 1.6 Reinforcement Group No. 1 73 LC19 - LC19: p_ULS-aB_min_+y, Isometric 55 RF-CONCRETE Members - Required 75 LC20 - 3.1 Nodal Loads 55 Reinforcement As,-z (top),
LC20 - LC20: p_ULS-aB_min_-y, Isometric 55 CA2, Isometric LC21 - 3.1 Nodal Loads 56 RF-CONCRETE Members - Required 75 LC21 - LC21: p_ULS-aB_max_+y, Isometric 56 Reinforcement As,+z (bottom),
LC22 - 3.1 Nodal Loads 56 CA2, Isometric LC22 - LC22: p_ULS-aB_max_-y, Isometric 56 RF-CONCRETE Members - Required 76
4 Results - Load Cases, Load Reinforcement As,T, CA2,Combinations Isometric
4.0 Results - Summary 57 RF-CONCRETE Members - Required 76Results - Result Combinations Reinforcement Global Deformation uZ min, RC1: SLS, 63 2*asw,T,link +
In Z-direction asw,V,link, CA2, Isometric
MODEL - GENERAL DATAGeneral Model name : W1316_Tower_3_ML_002
Project name : Tower 3Folder : D:\DlubalProjects\W1316\Tower 3Type 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 f in ite elements I FE : 0.3 m
Maximum distance between a node and a line e : 0.0 mto integrate it into the lineMaximum number of mesh nodes (in thousands) : 500
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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BAUCON ZT GmbHUngargasse 64-66, Stiege 1, Top 19, 1030 - Wien
Tel: +43/(0)1/8131415-0 - Fax: +43/(0)1/8131415-13
Page: 38/76
MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
FE MESH SETTINGS
Members Number of divisions of members with cable, : 10elastic foundation, taper, or plastic characteristic
Activate member divisions for large deformationor post-critical analysis
Use division for members with node lying on them
Surfaces Maximum ratio of FE rectangle diagonals DD : 1.800
Maximum out-of-plane inclination of two finite a : 0.50 °elements
Integrate also unutilized objects into surfacesShape direction of finite elements : Triangles and quadrangles
Same squares where possible
1.1 NODESNode Reference Coordinate Node Coordinates
No. Node Type Node System X [m] Y [m] Z [m] Comment2 Standard - Cartesian -1.168 1.675 -2.0414 Standard - Cartesian -1.168 0.325 -2.0416 Standard - Cartesian -1.332 1.675 -2.6417 Standard - Cartesian -1.332 0.325 -2.641
27 Standard - Cartesian -2.589 0.325 -4.01830 Standard - Cartesian -3.236 1.675 -3.84132 Standard - Cartesian -1.769 1.675 -4.24234 Standard - Cartesian -3.236 0.325 -3.84135 Standard - Cartesian -1.769 0.325 -4.24236 Standard - Cartesian -3.236 1.675 5.21137 Standard - Cartesian -3.236 0.325 5.21138 Standard - Cartesian 0.815 1.675 5.21139 Standard - Cartesian 0.815 0.325 5.21143 Standard - Cartesian -4.585 4.250 5.21249 Standard - Cartesian -4.585 -2.250 5.21251 Standard - Cartesian -3.236 4.250 5.21153 Standard - Cartesian -3.236 -2.250 5.21164 Standard - Cartesian 1.914 4.250 5.21165 Standard - Cartesian 1.914 -2.250 5.21167 Standard - Cartesian 0.815 4.250 5.21168 Standard - Cartesian 0.815 -2.250 5.21169 Standard - Cartesian 0.815 1.000 5.21170 Standard - Cartesian -2.589 1.675 -4.01871 Standard - Cartesian -3.236 1.675 -2.04172 Standard - Cartesian -3.236 0.325 -2.04173 Standard - Cartesian -4.585 -0.250 5.21274 Standard - Cartesian -3.236 1.675 -2.641
75 Standard - Cartesian -3.236 0.325 -2.641
Cartesian
1.2 LINESLine Line Length
No. Line Type Nodes No. L [m] Comment1 Polyline 2,2 0.000
2 Polyline 69,38 0.675 Y3 Polyline 68,53 4.051 X4 Polyline 67,51 4.051 X5 Polyline 35,32 1.350 Y6 Polyline 72,72 0.0007 Polyline 37,72 7.252 Z8 Polyline 36,71 7.252 Z9 Polyline 6,32 1.660 XZ
11 Polyline 7,35 1.660 XZ12 Polyline 75,74 1.350 Y13 Polyline 71,71 0.00014 Polyline 37,36 1.350 Y16 Polyline 27,35 0.850 XZ
17 Polyline 7,6 1.350 Y18 Polyline 39,4 7.519 XZ19 Polyline 39,69 0.675 Y20 Polyline 38,2 7.519 XZ21 Polyline 38,67 2.575 Y22 Polyline 2,71 2.068 X23 Polyline 39,37 4.051 X24 Polyline 2,6 0.622 XZ25 Polyline 4,72 2.068 X26 Polyline 4,7 0.622 XZ32 Polyline 38,36 4.051 X36 Polyline 4,4 0.00037 Polyline 34,30 1.350 Y40 Polyline 37,37 0.00045 Polyline 39,39 0.00056 Polyline 39,68 2.575 Y59 Polyline 53,37 2.575 Y61 Polyline 49,73 2.000 Y62 Polyline 36,51 2.575 Y63 Polyline 51,43 1.350 X64 Polyline 49,53 1.350 X65 Polyline 65,64 6.500 Y
66 Polyline 64,67 1.099 X67 Polyline 65,68 1.099 X68 Polyline 70,32 0.850 XZ69 Polyline 71,74 0.600 Z
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
1.2 LINESLine Line Length
No. Line Type Nodes No. L [m] Comment70 Polyline 72,75 0.600 Z
71 Polyline 73,43 4.500 Y72 Polyline 34,27 0.670 XZ73 Polyline 30,70 0.670 XZ74 Polyline 74,30 1.200 Z75 Polyline 75,34 1.200 Z
1.3 MATERIALSMatl. Modulus Modulus Poisson's Ratio Spec. Weight Coeff. of Th. Ex Partial Factor Material
No. E [kN/cm2] G [kN/cm2] n [-] g [kN/m3] a [1/K] gM [-] 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 Beton C16/20_weightless | EN 1992-1-1:2004/AC:20102900.00 1208.33 0.200 0.00E+00 1.00E-05 1.00 Isotropic Linear Elastic
Benutzerdefiniertes Material
1.4 SURFACESSurface Surface Type Matl. Thickness Area Weight
No. Geometry Stiffness Boundary Lines No. No. Type d [cm] A [m2] W [kg]1 Plane Standard 7,14,8,69,12,70 1 Constant 70.00 10.601 18551.3
3 Plane Standard 14,59,64,61,71,63,62 1 Constant 70.00 8.772 15351.74 Plane Standard 21,32,62,4 1 Constant 70.00 10.430 18252.75 Plane Standard 67,65,66,21,2,19,56 1 Constant 70.00 7.147 12506.46 Plane Standard 32,14,23,19,2 1 Constant 70.00 5.468 9569.47 Plane Standard 23,59,3,56 1 Constant 70.00 10.430 18252.78 Plane Standard 24,17,26,18,19,2,20 1 Constant 70.00 10.990 19232.09 Plane Standard 5,9,17,11 1 Constant 70.00 2.240 3920.7
10 Plane Standard 12,74,37,75 1 Constant 70.00 1.620 2835.011 Plane Standard 8,32,20,22 1 Constant 70.00 22.187 38826.412 Plane Standard 18,25,7,23 1 Constant 70.00 22.187 38826.4
1.9 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 yz
1 3-7 - 5000.000 5000.000 200000.000
1.13 CROSS-SECTIONSSection Matl. J [cm4] Iy [cm4] Iz [cm4] Principal Axes Rotation Overall Dimensions [cm]
No. No. A [cm2] Ay [cm2] Az [cm2] a [°] a' [°] Width b Height h
3 Rectangle 65/70 1 2889322.00 1857916.75 1601979.19 0.00 0.00 65.00 70.00
4550.00 3791.67 3791.675 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 Rectangle 65/70
1.17 MEMBERS
Mbr. Line Rotation Cross-Section Release No. Ecc. Div. LengthNo. No. Member Type b[°] Start End Start End No. No. L [m]
1 9 Beam Angle 0.00 5 5 - - - - 1.660 XZ3 11 Beam Angle 0.00 5 5 - - - - 1.660 XZ5 7 Beam Angle 0.00 3 3 - - - - 7.252 Z6 26 Beam Angle 0.00 5 5 - - - - 0.622 XZ9 24 Beam Angle 0.00 5 5 - - - - 0.622 XZ
15 20 Beam Angle 0.00 5 5 - - - - 7.519 XZ19 8 Beam Angle 0.00 3 3 - - - - 7.252 Z23 18 Beam Angle 0.00 5 5 - - - - 7.519 XZ24 69 Beam Angle 0.00 5 5 - - - - 0.600 Z25 70 Beam Angle 0.00 5 5 - - - - 0.600 Z26 72 Beam Angle 0.00 3 3 - - - - 0.670 XZ27 73 Beam Angle 0.00 3 3 - - - - 0.670 XZ28 74 Beam Angle 0.00 3 3 - - - - 1.200 Z29 75 Beam Angle 0.00 3 3 - - - - 1.200 Z30 16 Beam Angle 0.00 3 3 - - - - 0.850 XZ31 68 Beam Angle 0.00 3 3 - - - - 0.850 XZ
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
1.21 SETS OF MEMBERSSet Set of Members Length
No. Description Type Member No. [m] Comment1 Riegel_rechts Contin. member 27,31 1.520
2 Riegel_links Contin. member 26,30 1.5203 Stütze_3 Contin. member 5,25,29 9.0524 Stütze_4 Contin. member 19,24,28 9.0525 Stütze_5 Contin. member 3,6,23 9.8006 Stütze_6 Contin. member 15,9,1 9.800
MODEL, ISOMETRIC
Z
XY
Isometric
MODEL, ISOMETRIC
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LINES, ISOMETRIC
6461
35940
14 6771 23 563262 4563 19
6
2
25
4
Z
XY
12
65
13 36
37
21
22
17
1
5
66
IsometricLine Numbering
LINES, ISOMETRIC
SURFACES, ISOMETRIC
S3 S7
S6
S1
S12
S4 S5
S11
Y X
ZS8
S10S9
IsometricSurface Numbering
SURFACES, ISOMETRIC
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LOCAL AXES, ISOMETRIC
z
xy x
z
y
y
z
x
y
x
z y
z x
z
y x
z
xy
z x
y Y
Z
X
x
z
y
y
x
z
x
z
y
Isometric
LOCAL AXES, ISOMETRIC
MEMBERS, ISOMETRIC
M5
M19
M23
M25
M29
Z
Y X
M26
M15
M24 M6
M30
M28 M3
M27
M9
M31
M1
IsometricMember Numbering
MEMBERS, ISOMETRIC
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SUPPORTS AND FE-MESH, ISOMETRIC
Z
XY
Isometric
SUPPORTS AND FE-MESH, ISOMETRIC
NODES, ISOMETRIC
49
53
73
3768
36 65
4339
6951
72
75
38
34
Z
Y X
71 4
27
74 7
30
35
67
2
70
6
32
64
IsometricNode Numbering
NODES, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
2.1 LOAD CASESLoad Load Case No Standard Self-Weight - Factor in Direction
Case Description Action Category Active X Y ZLC1 g_Dead load Permanent 0.00 0.00 1.00
LC2 g_Earth pressure PermanentLC3 p_SLS-iB_min_+y ImposedLC4 p_SLS-iB_min_-y ImposedLC5 p_SLS-iB_max_+y ImposedLC6 p_SLS-iB_max_-y ImposedLC7 p_SLS-aB_min_+y ImposedLC8 p_SLS-aB_min_-y ImposedLC9 p_SLS-aB_max_+y Imposed
LC10 p_SLS-aB_max_-y ImposedLC11 p_AG_min_+y AccidentalLC12 p_AG_min_-y AccidentalLC13 p_AG_max_+y AccidentalLC14 p_AG_max_-y AccidentalLC15 p_ULS-iB_min_+y ImposedLC16 p_ULS-iB_min_-y ImposedLC17 p_ULS-iB_max_+y ImposedLC18 p_ULS-iB_max_-y ImposedLC19 p_ULS-aB_min_+y ImposedLC20 p_ULS-aB_min_-y ImposedLC21 p_ULS-aB_max_+y ImposedLC22 p_ULS-aB_max_-y Imposed
2.5 LOAD COMBINATIONSLoad Load Combination
Combin. DS Description No. Factor Load CaseCO1 SLS_iB_min_+y 1 1.00 LC1 g_Dead load
2 1.00 LC2 g_Earth pressure3 1.00 LC3 p_SLS-iB_min_+y
CO2 SLS_iB_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC4 p_SLS-iB_min_-y
CO3 SLS_iB_max_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC5 p_SLS-iB_max_+y
CO4 SLS_iB_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC6 p_SLS-iB_max_-y
CO5 SLS_aB_min_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC7 p_SLS-aB_min_+y
CO6 SLS_aB_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure
3 1.00 LC8 p_SLS-aB_min_-yCO7 SLS_aB_max_+y 1 1.00 LC1 g_Dead load
2 1.00 LC2 g_Earth pressure3 1.00 LC9 p_SLS-aB_max_+y
CO8 SLS_aB_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC10 p_SLS-aB_max_-y
CO9 SLS_AG_min_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC11 p_AG_min_+y
CO10 SLS_AG_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC12 p_AG_min_-y
CO11 SLS_AG_max_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC13 p_AG_max_+y
CO12 SLS_AG_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC14 p_AG_max_-y
CO13 ULS_iB_min_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC15 p_ULS-iB_min_+y
CO14 ULS_iB_min_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC16 p_ULS-iB_min_-y
CO15 ULS_iB_max_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC17 p_ULS-iB_max_+y
CO16 ULS_iB_max_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC18 p_ULS-iB_max_-y
CO17 ULS_aB_min_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC19 p_ULS-aB_min_+y
CO18 ULS_aB_min_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC20 p_ULS-aB_min_-y
CO19 ULS_aB_max_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC21 p_ULS-aB_max_+y
CO20 ULS_aB_max_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC22 p_ULS-aB_max_-y
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
2.6 RESULT COMBINATIONSResult Result Combination Alternate
Combin. DS Description No. Factor Loading Criterion GroupRC1 SLS 1 1.00 CO1 SLS_iB_min_+y Permanent 1
2 1.00 CO2 SLS_iB_min_-y Permanent 13 1.00 CO3 SLS_iB_max_+y Permanent 14 1.00 CO4 SLS_iB_max_-y Permanent 15 1.00 CO5 SLS_aB_min_+y Permanent 16 1.00 CO6 SLS_aB_min_-y Permanent 17 1.00 CO7 SLS_aB_max_+y Permanent 18 1.00 CO8 SLS_aB_max_-y Permanent 19 1.00 CO9 SLS_AG_min_+y Permanent 1
10 1.00 CO10 SLS_AG_min_-y Permanent 111 1.00 CO11 SLS_AG_max_+y Permanent 112 1.00 CO12 SLS_AG_max_-y Permanent 1
RC2 ULS 1 1.00 CO13 ULS_iB_min_+y Permanent 12 1.00 CO14 ULS_iB_min_-y Permanent 13 1.00 CO15 ULS_iB_max_+y Permanent 14 1.00 CO16 ULS_iB_max_-y Permanent 15 1.00 CO17 ULS_aB_min_+y Permanent 16 1.00 CO18 ULS_aB_min_-y Permanent 17 1.00 CO19 ULS_aB_max_+y Permanent 18 1.00 CO20 ULS_aB_max_-y Permanent 19 1.00 CO9 SLS_AG_min_+y Permanent 1
10 1.00 CO10 SLS_AG_min_-y Permanent 111 1.00 CO11 SLS_AG_max_+y Permanent 112 1.00 CO12 SLS_AG_max_-y Permanent 1
RC3 SLS_iB 1 1.00 CO1 SLS_iB_min_+y Permanent 12 1.00 CO2 SLS_iB_min_-y Permanent 13 1.00 CO3 SLS_iB_max_+y Permanent 14 1.00 CO4 SLS_iB_max_-y Permanent 1
3.8 FREE RECTANGULAR LOADS LC1: g_Dead load
Load Load Magnitude Load Position
No. On Surfaces No. Project. Distribution Direction Symbol Value Unit X [m] Y [m] Z [m]1 3,5,7 XY Uniform ZL p 62.50 kN/m2 1.914 -2.250
-4.585 -0.250
LC1
g_Dead load
3.2 MEMBER LOADS LC2: g_Earth pressure
Reference On Members Load Load Load Reference Load Parameters Over Tot.
No. to No. Type Distribution Direction Length Symbol Value Unit Length1 Members 5,19 Force Trapezoidal XP Projected
Lengthp1 8.90 kN/m
p2 0.68 kN/m2 Members 15,19 Force Trapezoidal YP Projected
Lengthp1 -22.10 kN/m
p2 -1.62 kN/m
3 Members 24,25 Force Trapezoidal XP ProjectedLength
p1 0.68 kN/m
p2 0.00 kN/m
4 Members 9,24 Force Trapezoidal YP ProjectedLength
p1 -6.62 kN/m
p2 0.00 kN/m
LC2
g_Earth pressure
3.3 LINE LOADS LC2: g_Earth pressure
Reference Load Load Load Load Parameters
No. to On Lines No. Type Distribution Direction Symbol Value Unit1 Lines 61,71 Force Uniform XL p 23.10 kN/m
2 Lines 4,63,66 Force Uniform YL p -46.30 kN/m
3.4 SURFACE LOADS LC2: g_Earth pressure
Load Load Load Load Parameters On Node
No. On Surfaces No. Type Distribution Direction Symbol Value Unit No.7 1 Force Linear in Z XP p1 0.00 kN/m2 75
p2 27.50 kN/m2 37
8 11 Force Linear in Z z p1 0.00 kN/m2 74
p2 -63.20 kN/m2 36
3.8 FREE RECTANGULAR LOADS LC2: g_Earth pressure
Load Load Magnitude Load Position
No. On Surfaces No. Project. Distribution Direction Symbol Value Unit X [m] Y [m] Z [m]1 3-5,7 XY Linear X ZL p1 92.00 kN/m2 1.914 -2.250
p2 112.00 kN/m2 -4.585 4.250
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LC2: G_EARTH PRESSURE, ISOMETRIC
112.00
23.10
107.85107.85
112.00
8.9027.50
23.10
95.3895.38
8.90
92.00
22.10
63.20112.00112.00
0.680.68
107.85107.85
46.30
22.10
X
Z
Y
0.680.68 1.62
4.83
6.62
46.30
95.3895.38
1.626.62
92.0092.00
46.30
IsometricLC2: g_Earth pressure
LC2: G_EARTH PRESSURE, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC3: p_SLS-iB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -135.00 70.00 -195.00 0.00 0.00 0.00
LC3
p_SLS-iB_min_+y
LC3: P_SLS-IB_MIN_+Y, ISOMETRIC
135.00
135.00
195.00
70.00
195.00
70.00
IsometricLC3: p_SLS-iB_min_+y
LC3: P_SLS-IB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC4: p_SLS-iB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -135.00 -70.00 -195.00 0.00 0.00 0.00
LC4
p_SLS-iB_min_-y
LC4: P_SLS-IB_MIN_-Y, ISOMETRIC
135.00
135.00
195.00
195.00
70.00
70.00
IsometricLC4: p_SLS-iB_min_-y
LC4: P_SLS-IB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC5: p_SLS-iB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 183.00 125.00 480.00 0.00 0.00 0.00
LC5
p_SLS-iB_max_+y
LC5: P_SLS-IB_MAX_+Y, ISOMETRIC
125.00
125.00
480.00
183.00
480.00
183.00
IsometricLC5: p_SLS-iB_max_+y
LC5: P_SLS-IB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC6: p_SLS-iB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 183.00 -125.00 480.00 0.00 0.00 0.00
LC6
p_SLS-iB_max_-y
LC6: P_SLS-IB_MAX_-Y, ISOMETRIC
125.00
480.00
183.00 125.00
480.00
183.00
IsometricLC6: p_SLS-iB_max_-y
LC6: P_SLS-IB_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC7: p_SLS-aB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -313.00 185.00 -620.00 0.00 0.00 0.00
LC7
p_SLS-aB_min_+y
LC7: P_SLS-AB_MIN_+Y, ISOMETRIC
313.00
620.00
313.00185.00
620.00
185.00
IsometricLC7: p_SLS-aB_min_+y
LC7: P_SLS-AB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC8: p_SLS-aB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -313.00 -185.00 -620.00 0.00 0.00 0.00
LC8
p_SLS-aB_min_-y
LC8: P_SLS-AB_MIN_-Y, ISOMETRIC
313.00
620.00
313.00
620.00
185.00
185.00
IsometricLC8: p_SLS-aB_min_-y
LC8: P_SLS-AB_MIN_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC9: p_SLS-aB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 333.00 230.00 855.00 0.00 0.00 0.00
LC9
p_SLS-aB_max_+y
LC9: P_SLS-AB_MAX_+Y, ISOMETRIC
230.00
230.00
855.00
333.00
855.00
333.00
IsometricLC9: p_SLS-aB_max_+y
LC9: P_SLS-AB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC10: p_SLS-aB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 333.00 -230.00 855.00 0.00 0.00 0.00
LC10
p_SLS-aB_max_-y
LC10: P_SLS-AB_MAX_-Y, ISOMETRIC
230.00
855.00
230.00333.00
855.00
333.00
IsometricLC10: p_SLS-aB_max_-y
LC10: P_SLS-AB_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC11: p_AG_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -355.00 228.00 -748.00 0.00 0.00 0.00
LC11
p_AG_min_+y
LC11: P_AG_MIN_+Y, ISOMETRIC
355.00
748.00
355.00228.00
748.00
228.00
IsometricLC11: p_AG_min_+y
LC11: P_AG_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC12: p_AG_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -355.00 -228.00 -748.00 0.00 0.00 0.00
LC12
p_AG_min_-y
LC12: P_AG_MIN_-Y, ISOMETRIC
355.00
748.00
355.00
748.00
228.00
228.00
IsometricLC12: p_AG_min_-y
LC12: P_AG_MIN_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC13: p_AG_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 440.00 280.00 1018.00 0.00 0.00 0.00
LC13
p_AG_max_+y
LC13: P_AG_MAX_+Y, ISOMETRIC
280.00
280.00
1018.00
440.00
1018.00
440.00
IsometricLC13: p_AG_max_+y
LC13: P_AG_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC14: p_AG_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 440.00 -280.00 1018.00 0.00 0.00 0.00
LC14
p_AG_max_-y
LC14: P_AG_MAX_-Y, ISOMETRIC
280.00
1018.00
280.00440.00
1018.00
440.00
IsometricLC14: p_AG_max_-y
LC14: P_AG_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC15: p_ULS-iB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -248.00 143.00 -415.00 0.00 0.00 0.00
LC15
p_ULS-iB_min_+y
LC15: P_ULS-IB_MIN_+Y, ISOMETRIC
248.00
415.00
248.00
143.00
415.00
143.00
IsometricLC15: p_ULS-iB_min_+y
LC15: P_ULS-IB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC16: p_ULS-iB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -248.00 -143.00 -415.00 0.00 0.00 0.00
LC16
p_ULS-iB_min_-y
LC16: P_ULS-IB_MIN_-Y, ISOMETRIC
248.00
415.00
248.00
415.00
143.00
143.00
IsometricLC16: p_ULS-iB_min_-y
LC16: P_ULS-IB_MIN_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC17: p_ULS-iB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 300.00 210.00 770.00 0.00 0.00 0.00
LC17
p_ULS-iB_max_+y
LC17: P_ULS-IB_MAX_+Y, ISOMETRIC
210.00
210.00
770.00
300.00
770.00
300.00
IsometricLC17: p_ULS-iB_max_+y
LC17: P_ULS-IB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC18: p_ULS-iB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 300.00 -210.00 770.00 0.00 0.00 0.00
LC18
p_ULS-iB_max_-y
LC18: P_ULS-IB_MAX_-Y, ISOMETRIC
210.00
770.00
300.00 210.00
770.00
300.00
IsometricLC18: p_ULS-iB_max_-y
LC18: P_ULS-IB_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC19: p_ULS-aB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -505.00 308.00 -1038.00 0.00 0.00 0.00
LC19
p_ULS-aB_min_+y
LC19: P_ULS-AB_MIN_+Y, ISOMETRIC
505.00
1038.00
505.00308.00
1038.00
308.00
IsometricLC19: p_ULS-aB_min_+y
LC19: P_ULS-AB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC20: p_ULS-aB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -505.00 -308.00 -1038.00 0.00 0.00 0.00
LC20
p_ULS-aB_min_-y
LC20: P_ULS-AB_MIN_-Y, ISOMETRIC
Z
X
Y
505.00
1038.00
505.00
1038.00
308.00308.00
IsometricLC20: p_ULS-aB_min_-y
LC20: P_ULS-AB_MIN_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
3.1 NODAL LOADS LC21: p_ULS-aB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 518.00 360.00 1318.00 0.00 0.00 0.00
LC21
p_ULS-aB_max_+y
LC21: P_ULS-AB_MAX_+Y, ISOMETRIC
360.00
360.00
1318.00
518.00
1318.00
518.00
IsometricLC21: p_ULS-aB_max_+y
LC21: P_ULS-AB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC22: p_ULS-aB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 518.00 -360.00 1318.00 0.00 0.00 0.00
LC22
p_ULS-aB_max_-y
LC22: P_ULS-AB_MAX_-Y, ISOMETRIC
360.00
1318.00
360.00518.00
1318.00
518.00
IsometricLC22: p_ULS-aB_max_-y
LC22: P_ULS-AB_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentCO1 - SLS_iB_min_+y
Sum of loads in X 95.80 kNSum of support reactions in X 95.80 kN Deviation 0.00%Sum of loads in Y -1164.80 kNSum of support reactions in Y -1164.80 kN Deviation 0.00%Sum of loads in Z 6364.20 kNSum of support reactions in Z 6364.20 kN Deviation 0.00%Resultant of reactions about X 114.59 kNm At center of gravity of model (X:-1.73, Y:1.00, Z:2.60 m)Resultant of reactions about Y 551.94 kNm At center of gravity of modelResultant of reactions about Z -436.85 kNm At center of gravity of modelMax. displacement in X -1.1 mm FE Node No. 1106 (X: -1.769, Y: 1.225, Z: -4.242 m)Max. displacement in Y -6.8 mm FE Node No. 1106 (X: -1.769, Y: 1.225, Z: -4.242 m)Max. displacement in Z 1.2 mm FE Node No. 49 (X: -4.585, Y: -2.250, Z: 5.212 m)Max. vector displacement 6.9 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. rotation about X -0.2 mrad FE Node No. 1414 (X: -1.717, Y: 1.675, Z: 4.211 m)Max. rotation about Y 0.2 mrad Member No. 29, x: 0.300 mMax. rotation about Z 0.0 mrad FE Node No. 1310 (X: -0.230, Y: 1.675, Z: 3.020 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO2 - SLS_iB_min_-ySum of loads in X 95.80 kNSum of support reactions in X 95.80 kN Deviation 0.00%Sum of loads in Y -1444.80 kNSum of support reactions in Y -1444.80 kN Deviation 0.00%Sum of loads in Z 6364.20 kNSum of support reactions in Z 6364.20 kN Deviation 0.00%Resultant of reactions about X -1737.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 552.5 kNm At center of gravity of modelResultant of reactions about Z -195.4 kNm At center of gravity of modelMax. displacement in X 1.3 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. displacement in Y -11.1 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.4 mm FE Node No. 49 (X: -4.585, Y: -2.250, Z: 5.212 m)Max. vector displacement 11.2 mm Member No. 26, x: 0.000 mMax. rotation about X -0.5 mrad Member No. 27, x: 0.084 mMax. rotation about Y 0.2 mrad Member No. 28, x: 0.450 mMax. rotation about Z 0.3 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO3 - SLS_iB_max_+ySum of loads in X 731.80 kNSum of support reactions in X 731.80 kN Deviation 0.00%Sum of loads in Y -1054.80 kNSum of support reactions in Y -1054.80 kN Deviation 0.00%Sum of loads in Z 7714.20 kNSum of support reactions in Z 7714.20 kN Deviation 0.00%Resultant of reactions about X 842.3 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2493.5 kNm At center of gravity of modelResultant of reactions about Z -531.5 kNm At center of gravity of modelMax. displacement in X 4.4 mm Member No. 31, x: 0.472 mMax. displacement in Y -5.3 mm Member No. 23, x: 4.762 mMax. displacement in Z 1.2 mm Member No. 23, x: 0.000 mMax. vector displacement 6.9 mm Member No. 1, x: 1.422 mMax. rotation about X -0.2 mrad FE Node No. 631 (X: 1.640, Y: 3.243, Z: 5.211 m)Max. rotation about Y -0.2 mrad Member No. 28, x: 1.050 mMax. rotation about Z -0.1 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO4 - SLS_iB_max_-ySum of loads in X 731.80 kNSum of support reactions in X 731.80 kN Deviation 0.00%Sum of loads in Y -1554.80 kNSum of support reactions in Y -1554.80 kN Deviation 0.00%Sum of loads in Z 7714.20 kNSum of support reactions in Z 7714.20 kN Deviation 0.00%Resultant of reactions about X -2473.5 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2492.5 kNm At center of gravity of modelResultant of reactions about Z -98.3 kNm At center of gravity of modelMax. displacement in X 4.6 mm Member No. 30, x: 0.378 mMax. displacement in Y -12.8 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.5 mm FE Node No. 731 (X: 0.562, Y: -0.448, Z: 5.211 m)Max. vector displacement 13.7 mm Member No. 26, x: 0.000 mMax. rotation about X -0.6 mrad Member No. 26, x: 0.084 mMax. rotation about Y -0.2 mrad Member No. 29, x: 1.050 mMax. rotation about Z 0.4 mrad Member No. 30, x: 0.756 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentNumber of load increments 6
Number of iterations 2CO5 - SLS_aB_min_+ySum of loads in X -260.20 kNSum of support reactions in X -260.20 kN Deviation 0.00%Sum of loads in Y -934.77 kNSum of support reactions in Y -934.77 kN Deviation 0.00%Sum of loads in Z 5514.20 kNSum of support reactions in Z 5514.20 kN Deviation 0.00%Resultant of reactions about X 1634.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 2172.5 kNm At center of gravity of modelResultant of reactions about Z -635.1 kNm At center of gravity of modelMax. displacement in X -4.2 mm Member No. 3, x: 1.660 mMax. displacement in Y -5.2 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.2 mm FE Node No. 336 (X: -4.585, Y: 0.750, Z: 5.212 m)Max. vector displacement 5.5 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X -0.2 mrad FE Node No. 543 (X: 1.640, Y: -1.494, Z: 5.211 m)Max. rotation about Y 0.4 mrad Member No. 29, x: 0.720 mMax. rotation about Z -0.3 mrad Member No. 30, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 7CO6 - SLS_aB_min_-ySum of loads in X -260.20 kNSum of support reactions in X -260.20 kN Deviation 0.00%Sum of loads in Y -1674.80 kNSum of support reactions in Y -1674.80 kN Deviation 0.00%Sum of loads in Z 5514.20 kNSum of support reactions in Z 5514.20 kN Deviation 0.00%Resultant of reactions about X -3255.2 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 2171.1 kNm At center of gravity of modelResultant of reactions about Z -0.1 kNm At center of gravity of modelMax. displacement in X -5.3 mm Member No. 3, x: 1.660 mMax. displacement in Y -18.3 mm Member No. 31, x: 0.850 mMax. displacement in Z 1.8 mm FE Node No. 49 (X: -4.585, Y: -2.250, Z: 5.212 m)Max. vector displacement 19.1 mm Member No. 30, x: 0.850 mMax. rotation about X -0.8 mrad Member No. 27, x: 0.251 mMax. rotation about Y 0.5 mrad Member No. 28, x: 0.720 mMax. rotation about Z -0.2 mrad FE Node No. 43 (X: -4.585, Y: 4.250, Z: 5.212 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 11CO7 - SLS_aB_max_+ySum of loads in X 1031.80 kNSum of support reactions in X 1031.80 kN Deviation 0.00%Sum of loads in Y -844.77 kNSum of support reactions in Y -844.77 kN Deviation 0.00%Sum of loads in Z 8464.20 kNSum of support reactions in Z 8464.20 kN Deviation 0.00%Resultant of reactions about X 2237.0 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3834.6 kNm At center of gravity of modelResultant of reactions about Z -713.8 kNm At center of gravity of modelMax. displacement in X 7.1 mm Member No. 31, x: 0.850 mMax. displacement in Y -4.8 mm FE Node No. 559 (X: 1.915, Y: -0.750, Z: 5.211 m)Max. displacement in Z 1.5 mm FE Node No. 599 (X: 1.915, Y: 1.250, Z: 5.211 m)Max. vector displacement 7.5 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. rotation about X 0.3 mrad Member No. 27, x: 0.168 mMax. rotation about Y -0.3 mrad Member No. 28, x: 1.050 mMax. rotation about Z -0.3 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO8 - SLS_aB_max_-ySum of loads in X 1031.80 kNSum of support reactions in X 1031.80 kN Deviation 0.00%Sum of loads in Y -1764.80 kNSum of support reactions in Y -1764.80 kN Deviation 0.00%Sum of loads in Z 8464.20 kNSum of support reactions in Z 8464.20 kN Deviation 0.00%Resultant of reactions about X -3872.8 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3832.6 kNm At center of gravity of modelResultant of reactions about Z 85.1 kNm At center of gravity of modelMax. displacement in X 7.3 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -16.2 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.8 mm FE Node No. 566 (X: 0.815, Y: -0.190, Z: 5.211 m)Max. vector displacement 17.8 mm Member No. 29, x: 1.200 mMax. rotation about X -0.9 mrad Member No. 26, x: 0.084 mMax. rotation about Y -0.3 mrad Member No. 29, x: 0.960 mMax. rotation about Z 0.6 mrad Member No. 30, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentConsider favorable effects of tensile forces
Divide results by CO factor Number of load increments 6Number of iterations 6CO9 - SLS_AG_min_+ySum of loads in X -344.20 kNSum of support reactions in X -344.20 kN Deviation 0.00%Sum of loads in Y -848.77 kNSum of support reactions in Y -848.77 kN Deviation 0.00%Sum of loads in Z 5258.20 kNSum of support reactions in Z 5258.20 kN Deviation 0.00%Resultant of reactions about X 2201.2 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 2507.0 kNm At center of gravity of modelResultant of reactions about Z -709.2 kNm At center of gravity of modelMax. displacement in X -5.1 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -5.6 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.3 mm Member No. 28, x: 0.000 mMax. vector displacement 6.3 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X 0.3 mrad Member No. 26, x: 0.168 mMax. rotation about Y 0.5 mrad Member No. 29, x: 0.720 mMax. rotation about Z -0.5 mrad Member No. 30, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 9CO10 - SLS_AG_min_-ySum of loads in X -344.20 kNSum of support reactions in X -344.20 kN Deviation 0.00%Sum of loads in Y -1760.80 kNSum of support reactions in Y -1760.80 kN Deviation 0.00%Sum of loads in Z 5258.20 kNSum of support reactions in Z 5258.20 kN Deviation 0.00%Resultant of reactions about X -3821.2 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 2504.1 kNm At center of gravity of modelResultant of reactions about Z 73.0 kNm At center of gravity of modelMax. displacement in X -7.5 mm Member No. 3, x: 1.660 mMax. displacement in Y -23.3 mm Member No. 31, x: 0.850 mMax. displacement in Z -2.6 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. vector displacement 24.5 mm Member No. 3, x: 1.660 mMax. rotation about X -1.1 mrad Member No. 27, x: 0.168 mMax. rotation about Y 0.7 mrad Member No. 28, x: 0.720 mMax. rotation about Z -0.2 mrad FE Node No. 1348 (X: -2.476, Y: 1.675, Z: 2.460 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 11CO11 - SLS_AG_max_+ySum of loads in X 1245.80 kNSum of support reactions in X 1245.80 kN Deviation 0.00%Sum of loads in Y -744.77 kNSum of support reactions in Y -744.77 kN Deviation 0.00%Sum of loads in Z 8790.20 kNSum of support reactions in Z 8790.20 kN Deviation 0.00%Resultant of reactions about X 2902.6 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -4971.9 kNm At center of gravity of modelResultant of reactions about Z -800.9 kNm At center of gravity of modelMax. displacement in X 9.1 mm Member No. 31, x: 0.850 mMax. displacement in Y -4.6 mm FE Node No. 549 (X: 1.915, Y: -1.250, Z: 5.211 m)Max. displacement in Z 1.8 mm FE Node No. 599 (X: 1.915, Y: 1.250, Z: 5.211 m)Max. vector displacement 9.2 mm Member No. 1, x: 1.660 mMax. rotation about X 0.5 mrad Member No. 27, x: 0.168 mMax. rotation about Y -0.5 mrad Member No. 28, x: 0.900 m
Max. rotation about Z -0.5 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO12 - SLS_AG_max_-ySum of loads in X 1245.80 kNSum of support reactions in X 1245.80 kN Deviation 0.00%Sum of loads in Y -1864.80 kNSum of support reactions in Y -1864.80 kN Deviation 0.00%Sum of loads in Z 8790.20 kNSum of support reactions in Z 8790.20 kN Deviation 0.00%Resultant of reactions about X -4542.1 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -4969.0 kNm At center of gravity of modelResultant of reactions about Z 174.0 kNm At center of gravity of modelMax. displacement in X 9.8 mm Member No. 30, x: 0.850 mMax. displacement in Y -19.0 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.1 mm FE Node No. 569 (X: 1.915, Y: -0.250, Z: 5.211 m)Max. vector displacement 21.4 mm Member No. 26, x: 0.000 mMax. rotation about X -1.0 mrad Member No. 26, x: 0.084 mMax. rotation about Y -0.5 mrad Member No. 29, x: 0.900 mMax. rotation about Z 0.9 mrad Member No. 30, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentInternal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 8CO13 - ULS_iB_min_+ySum of loads in X -2.18 kNSum of support reactions in X -2.18 kN Deviation 0.00%Sum of loads in Y -1475.40 kNSum of support reactions in Y -1475.40 kN Deviation 0.00%Sum of loads in Z 8288.10 kNSum of support reactions in Z 8288.10 kN Deviation 0.00%Resultant of reactions about X 796.2 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 1352.9 kNm At center of gravity of modelResultant of reactions about Z -673.6 kNm At center of gravity of modelMax. displacement in X -2.6 mm Member No. 3, x: 1.660 mMax. displacement in Y -7.8 mm FE Node No. 1108 (X: -1.769, Y: 1.450, Z: -4.242 m)Max. displacement in Z 1.6 mm FE Node No. 342 (X: -4.585, Y: -0.750, Z: 5.212 m)Max. vector displacement 8.2 mm Member No. 30, x: 0.850 mMax. rotation about X -0.2 mrad FE Node No. 558 (X: 1.640, Y: -0.739, Z: 5.211 m)Max. rotation about Y 0.4 mrad Member No. 29, x: 0.450 mMax. rotation about Z -0.1 mrad Member No. 30, x: 0.756 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MTStiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO14 - ULS_iB_min_-ySum of loads in X -2.18 kNSum of support reactions in X -2.18 kN Deviation 0.00%Sum of loads in Y -2047.40 kNSum of support reactions in Y -2047.40 kN Deviation 0.00%Sum of loads in Z 8288.10 kNSum of support reactions in Z 8288.10 kN Deviation 0.00%Resultant of reactions about X -2985.2 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 1354.4 kNm At center of gravity of modelResultant of reactions about Z -180.5 kNm At center of gravity of modelMax. displacement in X -2.8 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -16.5 mm Member No. 28, x: 1.200 mMax. displacement in Z 2.0 mm FE Node No. 49 (X: -4.585, Y: -2.250, Z: 5.212 m)Max. vector displacement 16.8 mm Member No. 28, x: 1.200 mMax. rotation about X -0.7 mrad Member No. 27, x: 0.168 mMax. rotation about Y 0.4 mrad Member No. 28, x: 0.480 m
Max. rotation about Z 0.5 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 5CO15 - ULS_iB_max_+ySum of loads in X 1093.80 kNSum of support reactions in X 1093.80 kN Deviation 0.00%Sum of loads in Y -1341.40 kNSum of support reactions in Y -1341.40 kN Deviation 0.00%Sum of loads in Z 10658.00 kNSum of support reactions in Z 10658.00 kN Deviation 0.00%Resultant of reactions about X 1684.9 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3858.3 kNm At center of gravity of modelResultant of reactions about Z -789.2 kNm At center of gravity of modelMax. displacement in X 7.0 mm Member No. 31, x: 0.850 mMax. displacement in Y -6.9 mm FE Node No. 549 (X: 1.915, Y: -1.250, Z: 5.211 m)Max. displacement in Z 1.7 mm FE Node No. 589 (X: 1.915, Y: 0.750, Z: 5.211 m)Max. vector displacement 9.2 mm Member No. 1, x: 1.245 m
Max. rotation about X -0.3 mrad FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. rotation about Y -0.3 mrad Member No. 28, x: 1.050 mMax. rotation about Z -0.3 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO16 - ULS_iB_max_-ySum of loads in X 1093.80 kNSum of support reactions in X 1093.80 kN Deviation 0.00%Sum of loads in Y -2181.40 kNSum of support reactions in Y -2181.40 kN Deviation 0.00%Sum of loads in Z 10658.00 kNSum of support reactions in Z 10658.00 kN Deviation 0.00%Resultant of reactions about X -3893.6 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3856.0 kNm At center of gravity of modelResultant of reactions about Z -59.4 kNm At center of gravity of modelMax. displacement in X 7.2 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -18.6 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.1 mm FE Node No. 731 (X: 0.562, Y: -0.448, Z: 5.211 m)Max. vector displacement 20.0 mm Member No. 26, x: 0.000 mMax. rotation about X -0.9 mrad Member No. 26, x: 0.251 mMax. rotation about Y -0.3 mrad Member No. 29, x: 0.960 m
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentMax. rotation about Z 0.6 mrad Member No. 30, x: 0.661 m
Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO17 - ULS_aB_min_+ySum of loads in X -516.18 kNSum of support reactions in X -516.18 kN Deviation 0.00%Sum of loads in Y -1145.40 kNSum of support reactions in Y -1145.40 kN Deviation 0.00%Sum of loads in Z 7042.10 kNSum of support reactions in Z 7042.10 kN Deviation 0.00%Resultant of reactions about X 2971.5 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 3675.0 kNm At center of gravity of modelResultant of reactions about Z -958.2 kNm At center of gravity of modelMax. displacement in X -7.6 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -7.9 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.8 mm Member No. 28, x: 0.000 mMax. vector displacement 9.1 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X 0.4 mrad Member No. 26, x: 0.168 mMax. rotation about Y 0.7 mrad Member No. 29, x: 0.720 m
Max. rotation about Z -0.7 mrad Member No. 30, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 9CO18 - ULS_aB_min_-ySum of loads in X -516.18 kNSum of support reactions in X -516.18 kN Deviation 0.00%Sum of loads in Y -2377.40 kNSum of support reactions in Y -2377.40 kN Deviation 0.00%Sum of loads in Z 7042.10 kNSum of support reactions in Z 7042.10 kN Deviation 0.00%Resultant of reactions about X -5158.3 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y 3668.6 kNm At center of gravity of modelResultant of reactions about Z 96.5 kNm At center of gravity of modelMax. displacement in X -11.3 mm Member No. 3, x: 1.660 mMax. displacement in Y -32.5 mm Member No. 31, x: 0.850 mMax. displacement in Z -4.0 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. vector displacement 34.5 mm Member No. 30, x: 0.850 m
Max. rotation about X -1.5 mrad Member No. 27, x: 0.168 mMax. rotation about Y 1.0 mrad Member No. 28, x: 0.720 mMax. rotation about Z -0.3 mrad FE Node No. 1347 (X: -2.476, Y: 1.675, Z: 2.210 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 11CO19 - ULS_aB_max_+ySum of loads in X 1529.80 kNSum of support reactions in X 1529.80 kN Deviation 0.00%Sum of loads in Y -1041.40 kNSum of support reactions in Y -1041.40 kN Deviation 0.00%Sum of loads in Z 11754.00 kNSum of support reactions in Z 11754.00 kN Deviation 0.00%Resultant of reactions about X 3682.6 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -5804.1 kNm At center of gravity of modelResultant of reactions about Z -1050.8 kNm At center of gravity of modelMax. displacement in X 10.8 mm Member No. 31, x: 0.850 mMax. displacement in Y -6.3 mm FE Node No. 554 (X: 1.915, Y: -1.000, Z: 5.211 m)
Max. displacement in Z 2.2 mm FE Node No. 599 (X: 1.915, Y: 1.250, Z: 5.211 m)Max. vector displacement 11.0 mm Member No. 31, x: 0.850 mMax. rotation about X 0.6 mrad Member No. 27, x: 0.084 mMax. rotation about Y -0.6 mrad Member No. 28, x: 0.960 mMax. rotation about Z -0.6 mrad Member No. 31, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO20 - ULS_aB_max_-ySum of loads in X 1529.80 kNSum of support reactions in X 1529.80 kN Deviation 0.00%Sum of loads in Y -2481.40 kNSum of support reactions in Y -2481.40 kN Deviation 0.00%Sum of loads in Z 11754.00 kNSum of support reactions in Z 11754.00 kN Deviation 0.00%Resultant of reactions about X -5901.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -5799.5 kNm At center of gravity of modelResultant of reactions about Z 205.3 kNm At center of gravity of modelMax. displacement in X 11.3 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -24.2 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.7 mm FE Node No. 566 (X: 0.815, Y: -0.190, Z: 5.211 m)Max. vector displacement 26.7 mm Member No. 26, x: 0.000 m
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentMax. rotation about X -1.3 mrad Member No. 26, x: 0.251 m
Max. rotation about Y -0.6 mrad Member No. 29, x: 0.960 mMax. rotation about Z 1.0 mrad Member No. 30, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 7SummaryOther Settings Number of 1D finite elements : 154
Number of 2D finite elements : 1776Number of 3D finite elements : 0Number of FE mesh nodes : 1830Number of equations : 10980Max. number of iterations : 100Number of divisions for member results : 10Division of cable/foundation/tapered members : 10Number of member divisions for searching maximum values : 10Subdivisions of FE mesh for graphical results : 0Percentage of iterations according to Picard method in combination withNewton-Raphson method
: 5 %
Activate ineffective supports :
Options Activate shear stiffness of members (Ay, Az) Activate member divisions for large deformation or post-critical analysis Activate entered stiffness modificationsIgnore rotational degrees of freedomCheck of critical forces of members
Method for the system of equations DirectIteration
Plate bending theory MindlinKirchhoff
Solver version 32-bit64-bit
Precision and Tolerance Change default setting
Nonlinear effects - Activate Support and elastic foundations
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
GLOBAL DEFORMATION UZ
MIN, RC1: SLS, IN Z-DIRECTION
Z
X
Y
-2.6
Global Deformation
uZ [mm]
0.8
0.5
0.2
-0.1
-0.4
-0.7
-1.0
-1.4
-1.7
-2.0
-2.3
-2.6
Max : 0.8Min : -2.6
IsometricRC1: SLSu-Z
Factor of deformations: 34.00Max u-Z: 0.8, Min u-Z: -2.6 [mm]
GLOBAL DEFORMATION UZ
MIN, RC1: SLS, IN Z-DIRECTION
GLOBAL DEFORMATION UZ
MAX, RC1: SLS, IN Z-DIRECTION
2.1
Y Z
X
Global Deformation
uZ [mm]
2.1
2.0
1.9
1.8
1.6
1.5
1.4
1.3
1.2
1.0
0.9
0.8
Max : 2.1Min : 0.8
IsometricRC1: SLSu-Z
Factor of deformations: 34.00Max u-Z: 2.1, Min u-Z: 0.8 [mm]
GLOBAL DEFORMATION UZ
MAX, RC1: SLS, IN Z-DIRECTION
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CONTACT STRESSES sz MIN, RC1: SLS, IN Z-DIRECTION
X
Y
Contact Stressess-z [kN/m2]
166.10
151.00
135.90
120.80
105.70
90.60
75.50
60.40
45.30
30.20
15.10
0.00
Max : 166.10Min : 0.00
In Z-directionRC1: SLSSurfaces Sigma-z
Surfaces Max Sigma-z: 166.10, Min Sigma-z: 0.00 [kN/m2]1.723 m
CONTACT STRESSES sz MIN, RC1: SLS, IN Z-DIRECTION
CONTACT STRESSES sz MAX, RC1: SLS, IN Z-DIRECTION
X
Y
Contact Stressess-z [kN/m2]
422.71
398.77
374.83
350.88
326.94
303.00
279.06
255.12
231.18
207.23
183.29
159.35
Max : 422.71Min : 159.35
In Z-directionRC1: SLSSurfaces Sigma-z
Surfaces Max Sigma-z: 422.71, Min Sigma-z: 159.35 [kN/m2]1.723 m
CONTACT STRESSES sz MAX, RC1: SLS, IN Z-DIRECTION
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RF-CONCRETE Surfaces
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
1.1 GENERAL DATA
Design according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATE
Result combination for design: RC2 ULSPersistent and Transient
DETAILS Analysis Method for Reinforcement Envelope Mixed Apply the averaged internal forces in the definedaverage region for the ULS calculation and for theanalytic method of SLS calculation.
Apply the internal forces without the rib components
1.2 MATERIALSMaterial Material Description
No. Concrete Strength Class Steel Description Comment1 Concrete C16/20 B 365 / 270
1.3 SURFACES
Surface Matl. Thickness ThicknessNo. No. Type [cm] Notes Comment
1 1 Constant 70.003 1 Constant 70.004 1 Constant 70.005 1 Constant 70.006 1 Constant 70.007 1 Constant 70.008 1 Constant 70.009 1 Constant 70.00
10 1 Constant 70.0011 1 Constant 70.0012 1 Constant 70.00
1.4 REINFORCEMENT GROUP NO. 1 Applied to surfaces: All
REINFORCEMENT RATIOMinimum secondary reinforcement 20.0 %
Basic minimum reinforcement 0.0 %Minimum compression reinforcement 0.0 %Minimum tension reinforcement 0.0 %Maximum reinforcement percentage 4.0 %Minimum shear reinforcement percentage 0.0 %Concrete cover acc. to Standard
BASIC REINFORCEMENT LAYOUT - TOP (-z)Number of directions 2Cover to rebar centroid d-1: 5.70, d-2: 7.10 cmDirections of reinforcement Phi-1: 0.000°, Phi-2: 90.000°Reinforcement area As-1,-z (top): 10.26, As-2,-z (top): 10.26 cm2/m
BASIC REINFORCEMENT LAYOUT - BOTTOM (+z)Number of directions 2Cover to rebar centroid d-1: 5.70, d-2: 7.10 cmDirections of reinforcement Phi-1: 0.000°, Phi-2: 90.000°Reinforcement area As-1,+z (bottom): 10.26, As-2,+z (bottom): 10.26 cm2/m
LONGITUDINAL REINFORCEMENT FOR SHEAR FORCE DESIGN Apply required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1Minimum longitudinal reinforcement for plates acc. to 9.3.1Direction of minimum reinforcement Reinforcement direction with the main tensile force from top(-z) and bottom (+z) surfaces together:Minimum longitudinal reinforcement for walls acc. to 9.6Minimum shear reinforcementNeutral axis depth limitationVariable strut inclination - min 21.801 °Variable concrete strut inclination - max 45.000 °Partial safety factor gs PT 1.15, AC 1.00, SLS 1.00
Partial safety factor gc PT 1.50, AC 1.20, SLS 1.00
Consideration of long-term effects Alpha-cc PT 1.00, AC 1.00, SLS 1.00Consideration of long-term effects Alpha-ct SLS 1.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
IN Z-DIRECTION
X
Y
a-s,1,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 62.15Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,-z (top)
Surfaces Max a-s,1,-z (top): 62.15, Min a-s,1,-z (top): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
IN Z-DIRECTION
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
IN Z-DIRECTION
X
Y
a-s,2,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 67.59Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,-z (top)
Surfaces Max a-s,2,-z (top): 67.59, Min a-s,2,-z (top): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
IN Z-DIRECTION
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RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, IN Z-DIRECTION
X
Y
a-s,1,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 46.93Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,+z (bottom)
Surfaces Max a-s,1,+z (bottom): 46.93, Min a-s,1,+z (bottom): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, IN Z-DIRECTION
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, IN Z-DIRECTION
X
Y
a-s,2,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 79.08Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,+z (bottom)
Surfaces Max a-s,2,+z (bottom): 79.08, Min a-s,2,+z (bottom): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, IN Z-DIRECTION
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RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
ISOMETRIC
Z
XY
a-s,1,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 62.15Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,-z (top)
Surfaces Max a-s,1,-z (top): 62.15, Min a-s,1,-z (top): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
ISOMETRIC
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
ISOMETRIC
Z
XY
a-s,2,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 67.59Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,-z (top)
Surfaces Max a-s,2,-z (top): 67.59, Min a-s,2,-z (top): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
ISOMETRIC
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RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, ISOMETRIC
Z
XY
a-s,1,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 46.93Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,+z (bottom)
Surfaces Max a-s,1,+z (bottom): 46.93, Min a-s,1,+z (bottom): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, ISOMETRIC
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, ISOMETRIC
Z
XY
a-s,2,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 79.08Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,+z (bottom)
Surfaces Max a-s,2,+z (bottom): 79.08, Min a-s,2,+z (bottom): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, ISOMETRIC
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RF-CONCRETE SURFACES - SHEAR REINFORCEMENT asw
, CA1, IN
Z-DIRECTION
Z X
Y
Shear Reinforcement
a-sw [cm2/m2]
76.40
69.45
62.51
55.56
48.62
41.67
34.73
27.78
20.84
13.89
6.95
0.00
Max : 76.40Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-sw
Surfaces Max a-sw: 76.40, Min a-sw: 0.00 [cm2/m2]1.56 m
RF-CONCRETE SURFACES - SHEAR REINFORCEMENT asw
, CA1, IN
Z-DIRECTION
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RF-CONCRETE Members
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
1.1 GENERAL DATADesign according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATESResult combinations to design: RC2 ULS
Persistent and Transient
RF-CONCRETE Members
CA1
Stützenkopf
1.1 SETTINGS - NONLINEAR CALCULATION (STATE II) Activate nonlinear calculation for ULTIMATE LIMIT state:
Activate nonlinear calculation for SERVICEABILITY LIMIT state:
Activate nonlinear calculation for fire resistance
1.2 MATERIALSMatl. Material Description
No. Concrete Strength Class Reinforcing Steel Comment1 Concrete C16/20 B 365 / 270
1.3 CROSS-SECTIONSSection Matl. Cross-Section
No. No. Description Notes Comment3 1 Rectangle 65/70
Rectangle 65/70
1.6 REINFORCEMENT GROUP NO. 1 Applied to sets of members: 1,2
LONGITUDINAL REINFORCEMENTPossible diameters: 16, 20, 26 mmMax. number of layers: 3Min. spacing for first layer: 40.0 mmMin. spacing for additional layers: 40.0 mmType of anchorage: Straight
Steel surface: RibbedReduction of reinforcement: None
SHEAR REINFORCEMENTPossible diameters: 10 mmNo. of cuts: 2Inclination: 90°Type of anchorage: HookLink layout: Uniform spacing throughout
REINFORCEMENT LAYOUTConcrete cover acc. to StandardConcrete cover c-top: 50.0 mmConcrete cover c-bottom: 50.0 mmConcrete cover c-side: 50.0 mmReinforcement layout: -z (top) - +z (bottom) (optimized distribution)Relevant internal forces: N, V-y, V-z, M-T, M-y, M-z
MINIMUM REINFORCEMENTMin. reinforcement area (min. A-s,top): 0.00 cm2
Min. reinforcement area (min. A-s,bottom): 0.00 cm2
Min. longitudinal reinforcement acc. to Standard:
Min. shear reinforcement acc. to Standard:Longitudinal reinforcement for shear force design: Use required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1:2004/AC:2010Max. percentage of reinforcement: 8.00 %Neutral axis depth limitationPartial safety factor Gamma-c PT 1.50, AC 1.20Partial safety factor Gamma-s PT 1.15, AC 1.00Reduction factor Alpha-cc PT 1.00, AC 1.00Reduction factor Alpha-ct PT 1.00, AC 1.00Design method for shear force: Optimization of the reinforcement areaMin. inclination of concrete strut 21.80 °Max. inclination of concrete strut 45.00 °Max. factor single forces near support 5.00
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RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, Required
Reinforcement As,+z (bottom)
, CA1, ISOMETRIC
5.65
5.65
24.7922.61
17.93
21.16
5.65
5.65
24.7122.52
13.42
17.91
21.15
13.40
RF-CONCRETE Members
A-s,-z (top)
A-s,+z (bottom)
IsometricRF-CONCRETE Members CA1
Stützenkopf Members
Max A-s,+z (bottom): 24.79 cm2Max A-s,-z (top): 21.16 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, Required
Reinforcement As,+z (bottom)
, CA1, ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA1, ISOMETRIC
0.560.56
0.38
0.47
0.310.33 0.41
RF-CONCRETE Members
A-s,T
IsometricRF-CONCRETE Members CA1Stützenkopf Members
Max A-s,T: 0.56 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA1, ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA1, ISOMETRIC
13.81
13.82
22.56
22.55
RF-CONCRETE Members
2*a-sw,T,link +a-sw,V,link
IsometricRF-CONCRETE Members CA1Stützenkopf
Members
Max 2*a-sw,T,link + a-sw,V,link: 22.56 cm2/m
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA1, ISOMETRIC
1.1 GENERAL DATADesign according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATESResult combinations to design: RC2 ULS
Persistent and Transient
RF-CONCRETE Members
CA2
Stützen
1.1 SETTINGS - NONLINEAR CALCULATION (STATE II) Activate nonlinear calculation for ULTIMATE LIMIT state:
Activate nonlinear calculation for SERVICEABILITY LIMIT state:
Activate nonlinear calculation for fire resistance
1.2 MATERIALSMatl. Material Description
No. Concrete Strength Class Reinforcing Steel Comment1 Concrete C16/20 B 365 / 270
2 Concrete C16/20 B 365 / 270
1.3 CROSS-SECTIONSSection Matl. Cross-Section
No. No. Description Notes Comment3 1 Rectangle 65/705 2 Rectangle 65/70
Rectangle 65/70
1.6 REINFORCEMENT GROUP NO. 1 Applied to members: 1,3,5,6,9,15,19,23-25,28,29
LONGITUDINAL REINFORCEMENTPossible diameters: 26, 30 mm
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RF-CONCRETE Members
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
1.6 REINFORCEMENT GROUP NO. 1Max. number of layers: 1Min. spacing for first layer: 20.0 mmType of anchorage: StraightSteel surface: RibbedReduction of reinforcement: None
SHEAR REINFORCEMENTPossible diameters: 14 mmNo. of cuts: 2Inclination: 90°Type of anchorage: HookLink layout: Uniform spacing throughout
REINFORCEMENT LAYOUTConcrete cover acc. to StandardConcrete cover c-top: 50.0 mmConcrete cover c-bottom: 50.0 mmConcrete cover c-side: 50.0 mmReinforcement layout: -z (top) - +z (bottom) (optimized distribution)Relevant internal forces: N, V-y, V-z, M-T, M-y, M-z
MINIMUM REINFORCEMENTMin. reinforcement area (min. A-s,top): 0.00 cm2
Min. reinforcement area (min. A-s,bottom): 0.00 cm2
Min. longitudinal reinforcement acc. to Standard:Min. shear reinforcement acc. to Standard:Longitudinal reinforcement for shear force design: Use required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1:2004/AC:2010Max. percentage of reinforcement: 8.00 %Neutral axis depth limitationPartial safety factor Gamma-c PT 1.50, AC 1.20Partial safety factor Gamma-s PT 1.15, AC 1.00Reduction factor Alpha-cc PT 1.00, AC 1.00Reduction factor Alpha-ct PT 1.00, AC 1.00Design method for shear force: Standard methodMin. inclination of concrete strut 21.80 °Max. inclination of concrete strut 45.00 °Max. factor single forces near support 5.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, CA2,
ISOMETRIC
7.7623.02
5.60
5.60
5.60
17.05
4.55
5.60
9.05
Z
Y X
5.60
5.60
9.44
19.08
4.55
8.92
9.82
14.77
14.77
4.55
4.55
9.40
9.82
14.83
14.85
4.55
IsometricRF-CONCRETE Members CA2Stützen
Members
Max A-s,-z (top): 23.02 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, CA2,
ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement As,+z (bottom)
, CA2,
ISOMETRIC
4.55
15.75
7.3113.95
5.60
10.43
13.63
13.63
9.39
4.55
13.41
13.41
Z
YX
6.33
9.15
22.43
4.55
6.36
22.50RF-CONCRETE Members
A-s,+z (bottom)
IsometricRF-CONCRETE Members CA2StützenMembers
Max A-s,+z (bottom): 22.50 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,+z (bottom)
, CA2,
ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_ML_002
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA2, ISOMETRIC
2.37
2.38
0.64
13.91
1.51
1.51
8.22
0.93
6.83
0.68
1.78
1.78
Z
Y X
1.52
1.03
7.01
2.03
2.03
1.40
2.21
2.34
1.40
12.89
12.70
RF-CONCRETE Members
A-s,T
IsometricRF-CONCRETE Members CA2StützenMembers
Max A-s,T: 13.91 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA2, ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA2, ISOMETRIC
15.83
9.05
14.54
5.88
5.72
5.91
5.85
8.37
5.81
6.61
Z
Y X
5.81
5.94
5.89
6.67
5.83
6.00
6.00
5.90
8.34
5.81
5.98
6.01
5.88
8.33RF-CONCRETE Members
2*a-sw,T,link +a-sw,V,link
IsometricRF-CONCRETE Members CA2StützenMembers
Max 2*a-sw,T,link + a-sw,V,link: 15.83 cm2/m
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA2, ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
CONTENTS Model - General Data 77 In Z-direction FE Mesh Settings 77 Contact Stresses sz min, RC1: 105
1 Model SLS, In Z-direction1.1 Nodes 78 Contact Stresses sz max, RC1: 105
1.2 Lines 78 SLS, In Z-direction
1.3 Materials 79 RF-CONCRETE Surfaces1.4 Surfaces 79 CA1 - Stahlbeton-Bemessung1.9 Surface Supports 79 1.1 General Data 1061.13 Cross-Sections 79 1.2 Materials 1061.17 Members 79 1.3 Surfaces 1061.21 Sets of Members 79 1.4 Reinforcement Group No. 1 106
Model, Isometric 81 RF-CONCRETE Surfaces - Required Reinforcement 107 Nodes, Isometric 82 as,1,-z (top), CA1, In
Lines, Isometric 82 Z-direction Surfaces, Isometric 83 RF-CONCRETE Surfaces - Required Reinforcement 107 Local axes, Isometric 83 as,2,-z (top), CA1, In
Members, Isometric 84 Z-direction Supports and FE-mesh, Isometric 84 RF-CONCRETE Surfaces - Required Reinforcement 108
2 Load Cases and Combinations as,1,+z (bottom), CA1,
2.1 Load Cases 85 In Z-direction2.5 Load Combinations 85 RF-CONCRETE Surfaces - Required Reinforcement 1082.6 Result Combinations 86 as,2,+z (bottom), CA1,
3 Loads In Z-direction LC2 - 3.2 Member Loads 86 RF-CONCRETE Surfaces - Required Reinforcement 109 LC2 - 3.3 Line Loads 86 as,1,-z (top), CA1,
LC2 - 3.4 Surface Loads 86 Isometric
LC2 - 3.8 Free Rectangular Loads 86 RF-CONCRETE Surfaces - Required Reinforcement 109 LC2 - LC2: g_Earth pressure, Isometric 87 as,2,-z (top), CA1,
LC3 - 3.1 Nodal Loads 88 Isometric LC3 - LC3: p_SLS-iB_min_+y, Isometric 88 RF-CONCRETE Surfaces - Required Reinforcement 110 LC4 - 3.1 Nodal Loads 88 as,1,+z (bottom), CA1,
LC4 - LC4: p_SLS-iB_min_-y, Isometric 88 Isometric LC5 - 3.1 Nodal Loads 89 RF-CONCRETE Surfaces - Required Reinforcement 110 LC5 - LC5: p_SLS-iB_max_+y, Isometric 89 as,2,+z (bottom), CA1,
LC6 - 3.1 Nodal Loads 89 Isometric LC6 - LC6: p_SLS-iB_max_-y, Isometric 89 RF-CONCRETE Surfaces - Shear Reinforcement 111 LC7 - 3.1 Nodal Loads 90 asw, CA1, In Z-direction
LC7 - LC7: p_SLS-aB_min_+y, Isometric 90 RF-CONCRETE Members LC8 - 3.1 Nodal Loads 90 CA1 - Stützenkopf LC8 - LC8: p_SLS-aB_min_-y, Isometric 90 1.1 General Data 112 LC9 - 3.1 Nodal Loads 91 1.1 Settings - Nonlinear Calculation (State II) 112 LC9 - LC9: p_SLS-aB_max_+y, Isometric 91 1.2 Materials 112 LC10 - 3.1 Nodal Loads 91 1.3 Cross-Sections 112 LC10 - LC10: p_SLS-aB_max_-y, Isometric 91 1.6 Reinforcement Group No. 1 112 LC11 - 3.1 Nodal Loads 92 RF-CONCRETE Members - Required 113 LC11 - LC11: p_AG_min_+y, Isometric 92 Reinforcement As,-z
LC12 - 3.1 Nodal Loads 92 (top), Required Reinforcement LC12 - LC12: p_AG_min_-y, Isometric 92 As,+z (bottom), CA1, Isometric
LC13 - 3.1 Nodal Loads 93 RF-CONCRETE Members - Required 113 LC13 - LC13: p_AG_max_+y, Isometric 93 Reinforcement As,T, CA1,
LC14 - 3.1 Nodal Loads 93 Isometric LC14 - LC14: p_AG_max_-y, Isometric 93 RF-CONCRETE Members - Required 114 LC15 - 3.1 Nodal Loads 94 Reinforcement LC15 - LC15: p_ULS-iB_min_+y, Isometric 94 2*asw,T,link +
LC16 - 3.1 Nodal Loads 94 asw,V,link, CA1, Isometric
LC16 - LC16: p_ULS-iB_min_-y, Isometric 94 CA2 - Stützen LC17 - 3.1 Nodal Loads 95 1.1 General Data 114 LC17 - LC17: p_ULS-iB_max_+y, Isometric 95 1.1 Settings - Nonlinear Calculation (State II) 114 LC18 - 3.1 Nodal Loads 95 1.2 Materials 114 LC18 - LC18: p_ULS-iB_max_-y, Isometric 95 1.3 Cross-Sections 114 LC19 - 3.1 Nodal Loads 96 1.6 Reinforcement Group No. 1 114 LC19 - LC19: p_ULS-aB_min_+y, Isometric 96 RF-CONCRETE Members - Required 116 LC20 - 3.1 Nodal Loads 96 Reinforcement As,-z (top),
LC20 - LC20: p_ULS-aB_min_-y, Isometric 96 CA2, Isometric LC21 - 3.1 Nodal Loads 97 RF-CONCRETE Members - Required 116 LC21 - LC21: p_ULS-aB_max_+y, Isometric 97 Reinforcement As,+z (bottom),
LC22 - 3.1 Nodal Loads 97 CA2, Isometric LC22 - LC22: p_ULS-aB_max_-y, Isometric 97 RF-CONCRETE Members - Required 117
4 Results - Load Cases, Load Reinforcement As,T, CA2,
Combinations Isometric4.0 Results - Summary 98 RF-CONCRETE Members - Required 117
Results - Result Combinations Reinforcement Global Deformation uZ min, RC1: SLS, 104 2*asw,T,link +
In Z-direction asw,V,link, CA2, Isometric
Global Deformation uZ max, RC1: SLS, 104
MODEL - GENERAL DATAGeneral Model name : W1316_Tower_3_DR_002
Project name : Tower 3Folder : D:\DlubalProjects\W1316\Tower 3Type 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 f in ite elements I FE : 0.3 m
Maximum distance between a node and a line e : 0.0 mto integrate it into the lineMaximum number of mesh nodes (in thousands) : 500
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
FE MESH SETTINGS
Members Number of divisions of members with cable, : 10elastic foundation, taper, or plastic characteristic
Activate member divisions for large deformationor post-critical analysis
Use division for members with node lying on them
Surfaces Maximum ratio of FE rectangle diagonals DD : 1.800
Maximum out-of-plane inclination of two finite a : 0.50 °elements
Integrate also unutilized objects into surfacesShape direction of finite elements : Triangles and quadrangles
Same squares where possible
1.1 NODESNode Reference Coordinate Node Coordinates
No. Node Type Node System X [m] Y [m] Z [m] Comment2 Standard - Cartesian -1.168 1.675 -2.0414 Standard - Cartesian -1.168 0.325 -2.0416 Standard - Cartesian -1.332 1.675 -2.6417 Standard - Cartesian -1.332 0.325 -2.641
27 Standard - Cartesian -2.589 0.325 -4.01830 Standard - Cartesian -3.236 1.675 -3.84132 Standard - Cartesian -1.769 1.675 -4.24234 Standard - Cartesian -3.236 0.325 -3.84135 Standard - Cartesian -1.769 0.325 -4.24236 Standard - Cartesian -3.236 1.675 3.12137 Standard - Cartesian -3.236 0.325 3.12138 Standard - Cartesian 0.244 1.675 3.12139 Standard - Cartesian 0.244 0.325 3.12143 Standard - Cartesian -4.585 4.000 3.12249 Standard - Cartesian -4.585 -2.000 3.12251 Standard - Cartesian -3.236 4.000 3.12153 Standard - Cartesian -3.236 -2.000 3.12164 Standard - Cartesian 1.414 4.000 3.12165 Standard - Cartesian 1.414 -2.000 3.12167 Standard - Cartesian 0.244 4.000 3.12168 Standard - Cartesian 0.244 -2.000 3.12169 Standard - Cartesian 0.244 1.000 3.12170 Standard - Cartesian -2.589 1.675 -4.01871 Standard - Cartesian -3.236 1.675 -2.04172 Standard - Cartesian -3.236 0.325 -2.04174 Standard - Cartesian -3.236 1.675 -2.64175 Standard - Cartesian -3.236 0.325 -2.641
Cartesian
1.2 LINESLine Line Length
No. Line Type Nodes No. L [m] Comment1 Polyline 2,2 0.000
2 Polyline 69,38 0.675 Y3 Polyline 68,53 3.479 X4 Polyline 67,51 3.479 X5 Polyline 35,32 1.350 Y6 Polyline 72,72 0.0007 Polyline 37,72 5.162 Z8 Polyline 36,71 5.162 Z9 Polyline 6,32 1.660 XZ
11 Polyline 7,35 1.660 XZ12 Polyline 75,74 1.350 Y13 Polyline 71,71 0.00014 Polyline 37,36 1.350 Y16 Polyline 27,35 0.850 XZ17 Polyline 7,6 1.350 Y
18 Polyline 39,4 5.352 XZ19 Polyline 39,69 0.675 Y20 Polyline 38,2 5.352 XZ21 Polyline 38,67 2.325 Y22 Polyline 2,71 2.068 X23 Polyline 39,37 3.479 X24 Polyline 2,6 0.622 XZ25 Polyline 4,72 2.068 X26 Polyline 4,7 0.622 XZ32 Polyline 38,36 3.479 X36 Polyline 4,4 0.00037 Polyline 34,30 1.350 Y40 Polyline 37,37 0.00045 Polyline 39,39 0.00056 Polyline 39,68 2.325 Y59 Polyline 53,37 2.325 Y62 Polyline 36,51 2.325 Y63 Polyline 51,43 1.350 X64 Polyline 49,53 1.350 X65 Polyline 65,64 6.000 Y66 Polyline 64,67 1.171 X67 Polyline 65,68 1.171 X
68 Polyline 70,32 0.850 XZ69 Polyline 71,74 0.600 Z70 Polyline 72,75 0.600 Z71 Polyline 49,43 6.000 Y
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
1.2 LINESLine Line Length
No. Line Type Nodes No. L [m] Comment72 Polyline 34,27 0.670 XZ
73 Polyline 30,70 0.670 XZ74 Polyline 74,30 1.200 Z75 Polyline 75,34 1.200 Z
1.3 MATERIALSMatl. Modulus Modulus Poisson's Ratio Spec. Weight Coeff. of Th. Ex Partial Factor Material
No. E [kN/cm2] G [kN/cm2] n [-] g [kN/m3] a [1/K] gM [-] 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 Beton C16/20_weightless | EN 1992-1-1:2004/AC:20102900.00 1208.33 0.200 0.00E+00 1.00E-05 1.00 Isotropic Linear Elastic
Benutzerdefiniertes Material
1.4 SURFACESSurface Surface Type Matl. Thickness Area Weight
No. Geometry Stiffness Boundary Lines No. No. Type d [cm] A [m2] W [kg]1 Plane Standard 7,14,8,69,12,70 1 Constant 70.00 7.779 13613.73 Plane Standard 14,59,64,71,63,62 1 Constant 70.00 8.098 14170.84 Plane Standard 21,32,62,4 1 Constant 70.00 8.089 14155.95 Plane Standard 67,65,66,21,2,19,56 1 Constant 70.00 7.025 12293.86 Plane Standard 32,14,23,19,2 1 Constant 70.00 4.697 8219.57 Plane Standard 23,59,3,56 1 Constant 70.00 8.089 14155.98 Plane Standard 24,17,26,18,19,2,20 1 Constant 70.00 8.065 14113.29 Plane Standard 5,9,17,11 1 Constant 70.00 2.240 3920.7
10 Plane Standard 12,74,37,75 1 Constant 70.00 1.620 2835.011 Plane Standard 8,32,20,22 1 Constant 70.00 14.318 25056.512 Plane Standard 18,25,7,23 1 Constant 70.00 14.318 25056.5
1.9 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 yz
1 3-7 - 5000.000 5000.000 200000.000
1.13 CROSS-SECTIONSSection Matl. J [cm4] Iy [cm4] Iz [cm4] Principal Axes Rotation Overall Dimensions [cm]
No. No. A [cm2] Ay [cm2] Az [cm2] a [°] a' [°] Width b Height h
3 Rectangle 65/70 1 2889322.00 1857916.75 1601979.19 0.00 0.00 65.00 70.00
4550.00 3791.67 3791.675 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 Rectangle 65/70
1.17 MEMBERSMbr. Line Rotation Cross-Section Release No. Ecc. Div. Length
No. No. Member Type b[°] Start End Start End No. No. L [m]
1 9 Beam Angle 0.00 5 5 - - - - 1.660 XZ2 16 Beam Angle 0.00 3 3 - - - - 0.850 XZ3 11 Beam Angle 0.00 5 5 - - - - 1.660 XZ4 68 Beam Angle 0.00 3 3 - - - - 0.850 XZ5 7 Beam Angle 0.00 3 3 - - - - 5.162 Z6 26 Beam Angle 0.00 5 5 - - - - 0.622 XZ9 24 Beam Angle 0.00 5 5 - - - - 0.622 XZ
15 20 Beam Angle 0.00 5 5 - - - - 5.352 XZ19 8 Beam Angle 0.00 3 3 - - - - 5.162 Z23 18 Beam Angle 0.00 5 5 - - - - 5.352 XZ24 69 Beam Angle 0.00 5 5 - - - - 0.600 Z25 70 Beam Angle 0.00 5 5 - - - - 0.600 Z26 72 Beam Angle 0.00 3 3 - - - - 0.670 XZ27 73 Beam Angle 0.00 3 3 - - - - 0.670 XZ28 74 Beam Angle 0.00 3 3 - - - - 1.200 Z29 75 Beam Angle 0.00 3 3 - - - - 1.200 Z
1.21 SETS OF MEMBERSSet Set of Members Length
No. Description Type Member No. [m] Comment1 Riegel_rechts Contin. member 27,4 1.5202 Riegel_links Contin. member 26,2 1.5203 Stütze_3 Contin. member 5,25,29 6.962
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
1.21 SETS OF MEMBERSSet Set of Members Length
No. Description Type Member No. [m] Comment4 Stütze_4 Contin. member 19,24,28 6.962
5 Stütze_5 Contin. member 3,6,23 7.6336 Stütze_6 Contin. member 15,9,1 7.633
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
MODEL, ISOMETRIC
Z
XY
Isometric
MODEL, ISOMETRIC
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NODES, ISOMETRIC
49
53
37
6836
6543
39
72
51
75
69
34
38
71
Z
Y X
74
27
4
7
30
35
70
2
6
67
32
64
IsometricNode Numbering
NODES, ISOMETRIC
LINES, ISOMETRIC
64
359
407114
23 6756
326263 45
6
19
25
2
12
13
XY
Z
4
36
37
22
6521
17
1
5
66
IsometricLine Numbering
LINES, ISOMETRIC
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SURFACES, ISOMETRIC
S3S7
S6
S1
S12
S4
S11
S5
Y X
Z
S10
S8
S9
IsometricSurface Numbering
SURFACES, ISOMETRIC
LOCAL AXES, ISOMETRIC
z
xyx
z
y
y
z
x
y
x
z y
z x
z
y x
y
xz
z
y x
Z
XY
x
y
z
y
x
z
x
z
y
Isometric
LOCAL AXES, ISOMETRIC
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MEMBERS, ISOMETRIC
M5
M19
M25
M23
M29
Z
Y X
M26
M24
M15
M6
M28
M2
M3
M27
M9
M4
M1
IsometricMember Numbering
MEMBERS, ISOMETRIC
SUPPORTS AND FE-MESH, ISOMETRIC
Z
XY
Isometric
SUPPORTS AND FE-MESH, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
2.1 LOAD CASESLoad Load Case No Standard Self-Weight - Factor in Direction
Case Description Action Category Active X Y ZLC1 g_Dead load Permanent 0.00 0.00 1.00
LC2 g_Earth pressure PermanentLC3 p_SLS-iB_min_+y ImposedLC4 p_SLS-iB_min_-y ImposedLC5 p_SLS-iB_max_+y ImposedLC6 p_SLS-iB_max_-y ImposedLC7 p_SLS-aB_min_+y ImposedLC8 p_SLS-aB_min_-y ImposedLC9 p_SLS-aB_max_+y Imposed
LC10 p_SLS-aB_max_-y ImposedLC11 p_AG_min_+y AccidentalLC12 p_AG_min_-y AccidentalLC13 p_AG_max_+y AccidentalLC14 p_AG_max_-y AccidentalLC15 p_ULS-iB_min_+y ImposedLC16 p_ULS-iB_min_-y ImposedLC17 p_ULS-iB_max_+y ImposedLC18 p_ULS-iB_max_-y ImposedLC19 p_ULS-aB_min_+y ImposedLC20 p_ULS-aB_min_-y ImposedLC21 p_ULS-aB_max_+y ImposedLC22 p_ULS-aB_max_-y Imposed
2.5 LOAD COMBINATIONSLoad Load Combination
Combin. DS Description No. Factor Load CaseCO1 SLS_iB_min_+y 1 1.00 LC1 g_Dead load
2 1.00 LC2 g_Earth pressure3 1.00 LC3 p_SLS-iB_min_+y
CO2 SLS_iB_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC4 p_SLS-iB_min_-y
CO3 SLS_iB_max_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC5 p_SLS-iB_max_+y
CO4 SLS_iB_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC6 p_SLS-iB_max_-y
CO5 SLS_aB_min_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC7 p_SLS-aB_min_+y
CO6 SLS_aB_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure
3 1.00 LC8 p_SLS-aB_min_-yCO7 SLS_aB_max_+y 1 1.00 LC1 g_Dead load
2 1.00 LC2 g_Earth pressure3 1.00 LC9 p_SLS-aB_max_+y
CO8 SLS_aB_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC10 p_SLS-aB_max_-y
CO9 SLS_AG_min_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC11 p_AG_min_+y
CO10 SLS_AG_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC12 p_AG_min_-y
CO11 SLS_AG_max_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC13 p_AG_max_+y
CO12 SLS_AG_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC14 p_AG_max_-y
CO13 ULS_iB_min_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC15 p_ULS-iB_min_+y
CO14 ULS_iB_min_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC16 p_ULS-iB_min_-y
CO15 ULS_iB_max_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC17 p_ULS-iB_max_+y
CO16 ULS_iB_max_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC18 p_ULS-iB_max_-y
CO17 ULS_aB_min_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC19 p_ULS-aB_min_+y
CO18 ULS_aB_min_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC20 p_ULS-aB_min_-y
CO19 ULS_aB_max_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC21 p_ULS-aB_max_+y
CO20 ULS_aB_max_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC22 p_ULS-aB_max_-y
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
2.6 RESULT COMBINATIONSResult Result Combination Alternate
Combin. DS Description No. Factor Loading Criterion GroupRC1 SLS 1 1.00 CO1 SLS_iB_min_+y Permanent 1
2 1.00 CO2 SLS_iB_min_-y Permanent 13 1.00 CO3 SLS_iB_max_+y Permanent 14 1.00 CO4 SLS_iB_max_-y Permanent 15 1.00 CO5 SLS_aB_min_+y Permanent 16 1.00 CO6 SLS_aB_min_-y Permanent 17 1.00 CO7 SLS_aB_max_+y Permanent 18 1.00 CO8 SLS_aB_max_-y Permanent 19 1.00 CO9 SLS_AG_min_+y Permanent 1
10 1.00 CO10 SLS_AG_min_-y Permanent 111 1.00 CO11 SLS_AG_max_+y Permanent 112 1.00 CO12 SLS_AG_max_-y Permanent 1
RC2 ULS 1 1.00 CO13 ULS_iB_min_+y Permanent 12 1.00 CO14 ULS_iB_min_-y Permanent 13 1.00 CO15 ULS_iB_max_+y Permanent 14 1.00 CO16 ULS_iB_max_-y Permanent 15 1.00 CO17 ULS_aB_min_+y Permanent 16 1.00 CO18 ULS_aB_min_-y Permanent 17 1.00 CO19 ULS_aB_max_+y Permanent 18 1.00 CO20 ULS_aB_max_-y Permanent 19 1.00 CO9 SLS_AG_min_+y Permanent 1
10 1.00 CO10 SLS_AG_min_-y Permanent 111 1.00 CO11 SLS_AG_max_+y Permanent 112 1.00 CO12 SLS_AG_max_-y Permanent 1
3.2 MEMBER LOADS LC2: g_Earth pressure
Reference On Members Load Load Load Reference Load Parameters Over Tot.
No. to No. Type Distribution Direction Length Symbol Value Unit Length1 Members 5,15,19,23 Force Trapezoidal XL True Length p1 -12.40 kN/m
p2 -1.30 kN/m
2 Members 15,19 Force Trapezoidal YP ProjectedLength
p1 -9.50 kN/m
p2 -0.99 kN/m
3 Members 6,9 Force Trapezoidal XL True Length p1 -1.30 kN/m
p2 0.00 kN/m
4 Members 9,24 Force Trapezoidal YP ProjectedLength
p1 -3.93 kN/m
p2 0.00 kN/m
LC2
g_Earth pressure
3.3 LINE LOADS LC2: g_Earth pressure
Reference Load Load Load Load ParametersNo. to On Lines No. Type Distribution Direction Symbol Value Unit
1 Lines 65 Force Uniform XL p -25.70 kN/m
2 Lines 4,63,66 Force Uniform YL p -25.20 kN/m
3.4 SURFACE LOADS LC2: g_Earth pressure
Load Load Load Load Parameters On Node
No. On Surfaces No. Type Distribution Direction Symbol Value Unit No.7 8 Force Linear in Z XL p1 0.00 kN/m2 75
p2 -38.10 kN/m2 37
8 11 Force Linear in Z z p1 0.00 kN/m2 74
p2 -27.30 kN/m2 36
3.8 FREE RECTANGULAR LOADS LC2: g_Earth pressure
Load Load Magnitude Load Position
No. On Surfaces No. Project. Distribution Direction Symbol Value Unit X [m] Y [m] Z [m]1 3-5,7 XY Linear X ZL p1 91.00 kN/m2 1.414 -2.000
p2 71.00 kN/m2 -4.585 4.000
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
LC2: G_EARTH PRESSURE, ISOMETRIC
71.00
75.5075.50
12.40
87.1087.10
9.50 12.40
27.30
91.00
71.0071.00
1.30
38.10 12.4025.20
75.5075.50
X
Z
Y
1.300.99
2.84
3.93
9.50 12.40
1.301.30
25.70 25.20
3.971.301.300.993.93
87.1087.10
25.20
91.0091.00
IsometricLC2: g_Earth pressure
LC2: G_EARTH PRESSURE, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC3: p_SLS-iB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -28.00 18.00 125.00 0.00 0.00 0.00
LC3
p_SLS-iB_min_+y
LC3: P_SLS-IB_MIN_+Y, ISOMETRIC
28.00
18.00
28.0018.00
125.00
125.00
IsometricLC3: p_SLS-iB_min_+y
LC3: P_SLS-IB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC4: p_SLS-iB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -28.00 -18.00 125.00 0.00 0.00 0.00
LC4
p_SLS-iB_min_-y
LC4: P_SLS-IB_MIN_-Y, ISOMETRIC
28.00
18.00 28.00
125.00
18.00
125.00
IsometricLC4: p_SLS-iB_min_-y
LC4: P_SLS-IB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC5: p_SLS-iB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 93.00 123.00 725.00 0.00 0.00 0.00
LC5
p_SLS-iB_max_+y
LC5: P_SLS-IB_MAX_+Y, ISOMETRIC
123.00
93.00123.00
725.00
93.00
725.00
IsometricLC5: p_SLS-iB_max_+y
LC5: P_SLS-IB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC6: p_SLS-iB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 93.00 -123.00 725.00 0.00 0.00 0.00
LC6
p_SLS-iB_max_-y
LC6: P_SLS-IB_MAX_-Y, ISOMETRIC
123.0093.00
725.00
123.0093.00
725.00
IsometricLC6: p_SLS-iB_max_-y
LC6: P_SLS-IB_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC7: p_SLS-aB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -80.00 115.00 -303.00 0.00 0.00 0.00
LC7
p_SLS-aB_min_+y
LC7: P_SLS-AB_MIN_+Y, ISOMETRIC
303.00
80.00115.00
303.00
80.00115.00
IsometricLC7: p_SLS-aB_min_+y
LC7: P_SLS-AB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC8: p_SLS-aB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -80.00 -115.00 -303.00 0.00 0.00 0.00
LC8
p_SLS-aB_min_-y
LC8: P_SLS-AB_MIN_-Y, ISOMETRIC
303.00
80.00
303.00
80.00
115.00
115.00
IsometricLC8: p_SLS-aB_min_-y
LC8: P_SLS-AB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC9: p_SLS-aB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 133.00 205.00 1070.00 0.00 0.00 0.00
LC9
p_SLS-aB_max_+y
LC9: P_SLS-AB_MAX_+Y, ISOMETRIC
205.00
133.00205.00
1070.00
133.00
1070.00
IsometricLC9: p_SLS-aB_max_+y
LC9: P_SLS-AB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC10: p_SLS-aB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 133.00 -205.00 1070.00 0.00 0.00 0.00
LC10
p_SLS-aB_max_-y
LC10: P_SLS-AB_MAX_-Y, ISOMETRIC
205.00133.00
1070.00
205.00133.00
1070.00
IsometricLC10: p_SLS-aB_max_-y
LC10: P_SLS-AB_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC11: p_AG_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -85.00 123.00 -498.00 0.00 0.00 0.00
LC11
p_AG_min_+y
LC11: P_AG_MIN_+Y, ISOMETRIC
498.00
85.00123.00
498.00
85.00123.00
IsometricLC11: p_AG_min_+y
LC11: P_AG_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC12: p_AG_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -85.00 -123.00 -498.00 0.00 0.00 0.00
LC12
p_AG_min_-y
LC12: P_AG_MIN_-Y, ISOMETRIC
498.00
85.00
498.00
123.00 85.00
123.00
IsometricLC12: p_AG_min_-y
LC12: P_AG_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC13: p_AG_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 145.00 223.00 1193.00 0.00 0.00 0.00
LC13
p_AG_max_+y
LC13: P_AG_MAX_+Y, ISOMETRIC
223.00
145.00223.00
1193.00
145.00
1193.00
IsometricLC13: p_AG_max_+y
LC13: P_AG_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC14: p_AG_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 145.00 -223.00 1193.00 0.00 0.00 0.00
LC14
p_AG_max_-y
LC14: P_AG_MAX_-Y, ISOMETRIC
223.00145.00
1193.00
223.00145.00
1193.00
IsometricLC14: p_AG_max_-y
LC14: P_AG_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC15: p_ULS-iB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -65.00 78.00 -113.00 0.00 0.00 0.00
LC15
p_ULS-iB_min_+y
LC15: P_ULS-IB_MIN_+Y, ISOMETRIC
65.00
113.00
78.00
65.00
113.00
78.00
IsometricLC15: p_ULS-iB_min_+y
LC15: P_ULS-IB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC16: p_ULS-iB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -65.00 -78.00 -113.00 0.00 0.00 0.00
LC16
p_ULS-iB_min_-y
LC16: P_ULS-IB_MIN_-Y, ISOMETRIC
65.00
113.00
65.00
113.00
78.00
78.00
IsometricLC16: p_ULS-iB_min_-y
LC16: P_ULS-IB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC17: p_ULS-iB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 150.00 200.00 1130.00 0.00 0.00 0.00
LC17
p_ULS-iB_max_+y
LC17: P_ULS-IB_MAX_+Y, ISOMETRIC
200.00
150.00200.00
1130.00
150.00
1130.00
IsometricLC17: p_ULS-iB_max_+y
LC17: P_ULS-IB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC18: p_ULS-iB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 150.00 -200.00 1130.00 0.00 0.00 0.00
LC18
p_ULS-iB_max_-y
LC18: P_ULS-IB_MAX_-Y, ISOMETRIC
200.00150.00
1130.00
200.00150.00
1130.00
IsometricLC18: p_ULS-iB_max_-y
LC18: P_ULS-IB_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC19: p_ULS-aB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -138.00 215.00 -723.00 0.00 0.00 0.00
LC19
p_ULS-aB_min_+y
LC19: P_ULS-AB_MIN_+Y, ISOMETRIC
723.00
138.00215.00
723.00
138.00215.00
IsometricLC19: p_ULS-aB_min_+y
LC19: P_ULS-AB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC20: p_ULS-aB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -138.00 -215.00 -723.00 0.00 0.00 0.00
LC20
p_ULS-aB_min_-y
LC20: P_ULS-AB_MIN_-Y, ISOMETRIC
723.00
138.00
723.00
138.00215.00
215.00
IsometricLC20: p_ULS-aB_min_-y
LC20: P_ULS-AB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
3.1 NODAL LOADS LC21: p_ULS-aB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 208.00 323.00 1638.00 0.00 0.00 0.00
LC21
p_ULS-aB_max_+y
LC21: P_ULS-AB_MAX_+Y, ISOMETRIC
323.00
208.00323.00
1638.00
208.00
1638.00
IsometricLC21: p_ULS-aB_max_+y
LC21: P_ULS-AB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC22: p_ULS-aB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 208.00 -323.00 1638.00 0.00 0.00 0.00
LC22
p_ULS-aB_max_-y
LC22: P_ULS-AB_MAX_-Y, ISOMETRIC
323.00208.00
1638.00
323.00208.00
1638.00
IsometricLC22: p_ULS-aB_max_-y
LC22: P_ULS-AB_MAX_-Y, ISOMETRIC
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentLC1 - g_Dead load
Sum of loads in X 0.00 kNSum of support reactions in X 0.00 kNSum of loads in Y 0.00 kNSum of support reactions in Y 0.00 kNSum of loads in Z 1655.20 kNSum of support reactions in Z 1655.20 kN Deviation 0.00%Resultant of reactions about X 0.00 kNm At center of gravity of model (X:-1.89, Y:1.00, Z:1.22 m)Resultant of reactions about Y 0.00 kNm At center of gravity of modelResultant of reactions about Z 0.00 kNm At center of gravity of modelMax. displacement in X -0.3 mm FE Node No. 913 (X: -1.769, Y: 0.550, Z: -4.242 m)Max. displacement in Y -0.0 mm FE Node No. 1113 (X: -1.860, Y: 1.675, Z: 2.138 m)Max. displacement in Z 0.4 mm Member No. 29, x: 0.900 mMax. vector displacement 0.5 mm Member No. 29, x: 1.200 mMax. rotation about X -0.1 mrad FE Node No. 43 (X: -4.585, Y: 4.000, Z: 3.122 m)Max. rotation about Y 0.0 mrad FE Node No. 485 (X: 0.712, Y: 0.295, Z: 3.121 m)Max. rotation about Z -0.0 mrad FE Node No. 163 (X: -3.505, Y: 1.690, Z: 3.121 m)Method of analysis Linear Geometrically linear static analysisStiffness reduction multiplied by coefficientNumber of load increments 6Number of iterations 1LC2 - g_Earth pressureSum of loads in X -452.69 kNSum of support reactions in X -452.69 kN Deviation 0.00%
Sum of loads in Y -439.38 kNSum of support reactions in Y -439.38 kN Deviation 0.00%Sum of loads in Z 2534.00 kNSum of support reactions in Z 2534.00 kN Deviation 0.00%Resultant of reactions about X 320.30 kNm At center of gravity of model (X:-1.89, Y:1.00, Z:1.22 m)Resultant of reactions about Y -1380.27 kNm At center of gravity of modelResultant of reactions about Z -92.51 kNm At center of gravity of modelMax. displacement in X -2.7 mm Member No. 1, x: 1.660 mMax. displacement in Y -2.9 mm Member No. 29, x: 1.200 mMax. displacement in Z 0.4 mm FE Node No. 49 (X: -4.585, Y: -2.000, Z: 3.122 m)Max. vector displacement 4.0 mm Member No. 27, x: 0.000 mMax. rotation about X -0.1 mrad FE Node No. 1026 (X: -2.806, Y: 1.675, Z: 1.401 m)Max. rotation about Y 0.0 mrad Member No. 19, x: 0.000 mMax. rotation about Z 0.0 mrad FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Method of analysis Linear Geometrically linear static analysisStiffness reduction multiplied by coefficientNumber of load increments 6Number of iterations 1CO1 - SLS_iB_min_+ySum of loads in X -508.69 kNSum of support reactions in X -508.69 kN Deviation 0.00%Sum of loads in Y -403.38 kN
Sum of support reactions in Y -403.38 kN Deviation 0.00%Sum of loads in Z 4439.20 kNSum of support reactions in Z 4439.20 kN Deviation 0.00%Resultant of reactions about X 508.8 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -912.5 kNm At center of gravity of modelResultant of reactions about Z -117.5 kNm At center of gravity of modelMax. displacement in X -3.7 mm Member No. 1, x: 1.660 mMax. displacement in Y -2.4 mm Member No. 29, x: 1.200 mMax. displacement in Z 0.9 mm Member No. 26, x: 0.000 mMax. vector displacement 4.4 mm FE Node No. 922 (X: -1.769, Y: 1.450, Z: -4.242 m)Max. rotation about X -0.1 mrad FE Node No. 43 (X: -4.585, Y: 4.000, Z: 3.122 m)Max. rotation about Y 0.1 mrad Member No. 29, x: 0.000 mMax. rotation about Z 0.0 mrad FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO2 - SLS_iB_min_-ySum of loads in X -508.69 kN
Sum of support reactions in X -508.69 kN Deviation 0.00%Sum of loads in Y -475.38 kNSum of support reactions in Y -475.38 kN Deviation 0.00%Sum of loads in Z 4439.20 kNSum of support reactions in Z 4439.20 kN Deviation 0.00%Resultant of reactions about X 131.3 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -912.4 kNm At center of gravity of modelResultant of reactions about Z -67.4 kNm At center of gravity of modelMax. displacement in X -3.7 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -3.3 mm Member No. 29, x: 1.200 mMax. displacement in Z 0.9 mm Member No. 29, x: 1.200 mMax. vector displacement 5.0 mm Member No. 27, x: 0.000 mMax. rotation about X -0.1 mrad FE Node No. 218 (X: -4.045, Y: 2.987, Z: 3.122 m)Max. rotation about Y 0.1 mrad Member No. 28, x: 0.000 mMax. rotation about Z 0.1 mrad Member No. 2, x: 0.531 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO3 - SLS_iB_max_+ySum of loads in X -266.69 kNSum of support reactions in X -266.69 kN Deviation 0.00%Sum of loads in Y -193.38 kN
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentSum of support reactions in Y -193.38 kN Deviation 0.00%
Sum of loads in Z 5639.20 kNSum of support reactions in Z 5639.20 kN Deviation 0.00%Resultant of reactions about X 1611.4 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1345.3 kNm At center of gravity of modelResultant of reactions about Z -264.1 kNm At center of gravity of modelMax. displacement in X -2.2 mm Member No. 3, x: 1.660 mMax. displacement in Y -1.6 mm FE Node No. 494 (X: 1.415, Y: 0.500, Z: 3.121 m)Max. displacement in Z 1.3 mm Member No. 27, x: 0.447 mMax. vector displacement 2.7 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. rotation about X 0.2 mrad Member No. 27, x: 0.074 mMax. rotation about Y 0.2 mrad Member No. 4, x: 0.637 mMax. rotation about Z -0.2 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO4 - SLS_iB_max_-ySum of loads in X -266.69 kNSum of support reactions in X -266.69 kN Deviation 0.00%Sum of loads in Y -685.38 kN
Sum of support reactions in Y -685.38 kN Deviation 0.00%Sum of loads in Z 5639.20 kNSum of support reactions in Z 5639.20 kN Deviation 0.00%Resultant of reactions about X -972.3 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1345.0 kNm At center of gravity of modelResultant of reactions about Z 79.3 kNm At center of gravity of modelMax. displacement in X -2.3 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -6.1 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.3 mm Member No. 26, x: 0.521 mMax. vector displacement 6.5 mm Member No. 28, x: 1.200 mMax. rotation about X -0.3 mrad Member No. 26, x: 0.074 mMax. rotation about Y 0.2 mrad Member No. 2, x: 0.637 mMax. rotation about Z 0.3 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO5 - SLS_aB_min_+ySum of loads in X -612.69 kN
Sum of support reactions in X -612.69 kN Deviation 0.00%Sum of loads in Y -209.38 kNSum of support reactions in Y -209.38 kN Deviation 0.00%Sum of loads in Z 3583.20 kNSum of support reactions in Z 3583.20 kN Deviation 0.00%Resultant of reactions about X 1524.8 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -963.4 kNm At center of gravity of modelResultant of reactions about Z -252.6 kNm At center of gravity of modelMax. displacement in X -4.3 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -1.7 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Z 0.8 mm Member No. 28, x: 0.000 mMax. vector displacement 4.3 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. rotation about X 0.2 mrad Member No. 29, x: 1.200 mMax. rotation about Y 0.1 mrad Member No. 29, x: 1.200 mMax. rotation about Z -0.2 mrad Member No. 2, x: 0.531 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO6 - SLS_aB_min_-ySum of loads in X -612.69 kNSum of support reactions in X -612.69 kN Deviation 0.00%Sum of loads in Y -669.38 kNSum of support reactions in Y -669.38 kN Deviation 0.00%Sum of loads in Z 3583.20 kNSum of support reactions in Z 3583.20 kN Deviation 0.00%Resultant of reactions about X -884.0 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -963.2 kNm At center of gravity of modelResultant of reactions about Z 67.5 kNm At center of gravity of modelMax. displacement in X -4.4 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -5.9 mm Member No. 28, x: 1.200 mMax. displacement in Z 0.8 mm Member No. 29, x: 0.000 mMax. vector displacement 7.3 mm Member No. 27, x: 0.000 mMax. rotation about X -0.3 mrad Member No. 27, x: 0.074 mMax. rotation about Y 0.1 mrad Member No. 28, x: 1.200 mMax. rotation about Z 0.3 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO7 - SLS_aB_max_+ySum of loads in X -186.69 kN
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentSum of support reactions in X -186.69 kN Deviation 0.00%
Sum of loads in Y -29.38 kNSum of support reactions in Y -29.38 kN Deviation 0.00%Sum of loads in Z 6329.20 kNSum of support reactions in Z 6329.20 kN Deviation 0.00%Resultant of reactions about X 2474.3 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1283.6 kNm At center of gravity of modelResultant of reactions about Z -378.7 kNm At center of gravity of modelMax. displacement in X -2.1 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. displacement in Y 2.5 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.6 mm Member No. 27, x: 0.521 mMax. vector displacement 3.3 mm Member No. 29, x: 1.200 mMax. rotation about X 0.4 mrad Member No. 27, x: 0.074 mMax. rotation about Y 0.2 mrad Member No. 4, x: 0.637 mMax. rotation about Z -0.4 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO8 - SLS_aB_max_-ySum of loads in X -186.69 kN
Sum of support reactions in X -186.69 kN Deviation 0.00%Sum of loads in Y -849.38 kNSum of support reactions in Y -849.38 kN Deviation 0.00%Sum of loads in Z 6329.20 kNSum of support reactions in Z 6329.20 kN Deviation 0.00%Resultant of reactions about X -1835.7 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1283.2 kNm At center of gravity of modelResultant of reactions about Z 194.0 kNm At center of gravity of modelMax. displacement in X -2.3 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -8.2 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.6 mm Member No. 26, x: 0.521 mMax. vector displacement 8.5 mm Member No. 29, x: 1.200 mMax. rotation about X -0.5 mrad Member No. 26, x: 0.074 mMax. rotation about Y 0.2 mrad Member No. 2, x: 0.637 mMax. rotation about Z 0.5 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO9 - SLS_AG_min_+ySum of loads in X -622.69 kNSum of support reactions in X -622.69 kN Deviation 0.00%Sum of loads in Y -193.38 kNSum of support reactions in Y -193.38 kN Deviation 0.00%Sum of loads in Z 3193.20 kNSum of support reactions in Z 3193.20 kN Deviation 0.00%Resultant of reactions about X 1608.2 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1182.4 kNm At center of gravity of modelResultant of reactions about Z -263.6 kNm At center of gravity of modelMax. displacement in X -4.2 mm Member No. 3, x: 1.660 mMax. displacement in Y -1.6 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Z 0.7 mm FE Node No. 43 (X: -4.585, Y: 4.000, Z: 3.122 m)Max. vector displacement 4.4 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. rotation about X 0.2 mrad Member No. 26, x: 0.074 mMax. rotation about Y 0.1 mrad Member No. 26, x: 0.149 mMax. rotation about Z -0.2 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO10 - SLS_AG_min_-ySum of loads in X -622.69 kNSum of support reactions in X -622.69 kN Deviation 0.00%Sum of loads in Y -685.38 kNSum of support reactions in Y -685.38 kN Deviation 0.00%Sum of loads in Z 3193.20 kNSum of support reactions in Z 3193.20 kN Deviation 0.00%Resultant of reactions about X -967.1 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1182.1 kNm At center of gravity of modelResultant of reactions about Z 78.6 kNm At center of gravity of modelMax. displacement in X -4.3 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -6.1 mm Member No. 28, x: 1.200 mMax. displacement in Z 0.8 mm FE Node No. 49 (X: -4.585, Y: -2.000, Z: 3.122 m)Max. vector displacement 7.4 mm Member No. 27, x: 0.000 mMax. rotation about X -0.3 mrad Member No. 28, x: 1.200 mMax. rotation about Y 0.1 mrad Member No. 27, x: 0.149 mMax. rotation about Z 0.3 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentCO11 - SLS_AG_max_+y
Sum of loads in X -162.69 kNSum of support reactions in X -162.69 kN Deviation 0.00%Sum of loads in Y 6.62 kNSum of support reactions in Y 6.62 kN Deviation 0.00%Sum of loads in Z 6575.20 kNSum of support reactions in Z 6575.20 kN Deviation 0.00%Resultant of reactions about X 2664.2 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1237.9 kNm At center of gravity of modelResultant of reactions about Z -404.0 kNm At center of gravity of modelMax. displacement in X -2.0 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. displacement in Y 3.0 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.7 mm Member No. 27, x: 0.521 mMax. vector displacement 3.6 mm Member No. 26, x: 0.000 mMax. rotation about X 0.4 mrad Member No. 27, x: 0.074 mMax. rotation about Y 0.3 mrad Member No. 4, x: 0.637 mMax. rotation about Z -0.5 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO12 - SLS_AG_max_-ySum of loads in X -162.69 kNSum of support reactions in X -162.69 kN Deviation 0.00%Sum of loads in Y -885.38 kNSum of support reactions in Y -885.38 kN Deviation 0.00%Sum of loads in Z 6575.20 kNSum of support reactions in Z 6575.20 kN Deviation 0.00%Resultant of reactions about X -2025.8 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1237.5 kNm At center of gravity of modelResultant of reactions about Z 219.3 kNm At center of gravity of modelMax. displacement in X -2.3 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -8.7 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.7 mm Member No. 26, x: 0.521 mMax. vector displacement 9.0 mm Member No. 29, x: 1.200 mMax. rotation about X -0.5 mrad Member No. 26, x: 0.074 mMax. rotation about Y 0.3 mrad Member No. 2, x: 0.637 mMax. rotation about Z 0.5 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO13 - ULS_iB_min_+ySum of loads in X -741.13 kNSum of support reactions in X -741.13 kN Deviation 0.00%Sum of loads in Y -437.16 kNSum of support reactions in Y -437.16 kN Deviation 0.00%Sum of loads in Z 5429.40 kNSum of support reactions in Z 5429.40 kN Deviation 0.00%Resultant of reactions about X 1249.7 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1339.0 kNm At center of gravity of modelResultant of reactions about Z -233.5 kNm At center of gravity of modelMax. displacement in X -5.2 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -2.7 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Z 1.1 mm Member No. 28, x: 0.720 mMax. vector displacement 5.6 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. rotation about X 0.1 mrad FE Node No. 259 (X: -4.315, Y: -1.014, Z: 3.122 m)Max. rotation about Y 0.2 mrad Member No. 29, x: 0.450 mMax. rotation about Z -0.1 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO14 - ULS_iB_min_-ySum of loads in X -741.13 kNSum of support reactions in X -741.13 kN Deviation 0.00%Sum of loads in Y -749.16 kNSum of support reactions in Y -749.16 kN Deviation 0.00%Sum of loads in Z 5429.40 kNSum of support reactions in Z 5429.40 kN Deviation 0.00%Resultant of reactions about X -385.2 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1338.8 kNm At center of gravity of modelResultant of reactions about Z -16.2 kNm At center of gravity of modelMax. displacement in X -5.3 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -5.9 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.2 mm Member No. 26, x: 0.000 mMax. vector displacement 8.0 mm Member No. 28, x: 1.200 mMax. rotation about X -0.2 mrad Member No. 27, x: 0.149 mMax. rotation about Y 0.2 mrad Member No. 28, x: 0.300 mMax. rotation about Z 0.2 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentNumber of load increments 6
Number of iterations 2CO15 - ULS_iB_max_+ySum of loads in X -311.13 kNSum of support reactions in X -311.13 kN Deviation 0.00%Sum of loads in Y -193.16 kNSum of support reactions in Y -193.16 kN Deviation 0.00%Sum of loads in Z 7915.40 kNSum of support reactions in Z 7915.40 kN Deviation 0.00%Resultant of reactions about X 2534.0 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1861.1 kNm At center of gravity of modelResultant of reactions about Z -404.3 kNm At center of gravity of modelMax. displacement in X -2.7 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. displacement in Y -2.0 mm FE Node No. 488 (X: 1.415, Y: 0.250, Z: 3.121 m)Max. displacement in Z 1.8 mm Member No. 27, x: 0.521 mMax. vector displacement 3.4 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. rotation about X 0.4 mrad Member No. 27, x: 0.074 mMax. rotation about Y 0.3 mrad Member No. 4, x: 0.637 mMax. rotation about Z -0.4 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO16 - ULS_iB_max_-ySum of loads in X -311.13 kNSum of support reactions in X -311.13 kN Deviation 0.00%Sum of loads in Y -993.16 kNSum of support reactions in Y -993.16 kN Deviation 0.00%Sum of loads in Z 7915.40 kNSum of support reactions in Z 7915.40 kN Deviation 0.00%Resultant of reactions about X -1672.2 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1860.6 kNm At center of gravity of modelResultant of reactions about Z 155.0 kNm At center of gravity of modelMax. displacement in X -3.0 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -9.1 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.9 mm Member No. 26, x: 0.521 mMax. vector displacement 9.6 mm Member No. 27, x: 0.000 mMax. rotation about X -0.5 mrad Member No. 26, x: 0.074 mMax. rotation about Y 0.3 mrad Member No. 2, x: 0.637 mMax. rotation about Z 0.5 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO17 - ULS_aB_min_+ySum of loads in X -887.13 kNSum of support reactions in X -887.13 kN Deviation 0.00%Sum of loads in Y -163.16 kNSum of support reactions in Y -163.16 kN Deviation 0.00%Sum of loads in Z 4209.40 kNSum of support reactions in Z 4209.40 kN Deviation 0.00%Resultant of reactions about X 2682.5 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1423.0 kNm At center of gravity of modelResultant of reactions about Z -424.0 kNm At center of gravity of modelMax. displacement in X -6.1 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -2.0 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Z 1.0 mm FE Node No. 43 (X: -4.585, Y: 4.000, Z: 3.122 m)Max. vector displacement 6.4 mm Member No. 26, x: 0.000 mMax. rotation about X 0.4 mrad Member No. 29, x: 1.200 mMax. rotation about Y 0.2 mrad Member No. 26, x: 0.149 mMax. rotation about Z -0.4 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO18 - ULS_aB_min_-ySum of loads in X -887.13 kNSum of support reactions in X -887.13 kN Deviation 0.00%Sum of loads in Y -1023.20 kNSum of support reactions in Y -1023.20 kN Deviation 0.00%Sum of loads in Z 4209.40 kNSum of support reactions in Z 4209.40 kN Deviation 0.00%Resultant of reactions about X -1816.6 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1422.5 kNm At center of gravity of modelResultant of reactions about Z 174.2 kNm At center of gravity of modelMax. displacement in X -6.3 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -9.5 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.1 mm FE Node No. 49 (X: -4.585, Y: -2.000, Z: 3.122 m)Max. vector displacement 11.3 mm Member No. 27, x: 0.000 mMax. rotation about X -0.5 mrad Member No. 28, x: 1.200 mMax. rotation about Y 0.2 mrad Member No. 27, x: 0.074 mMax. rotation about Z 0.5 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentConsider favorable effects of tensile forces
Divide results by CO factor Number of load increments 6Number of iterations 2CO19 - ULS_aB_max_+ySum of loads in X -195.13 kNSum of support reactions in X -195.13 kN Deviation 0.00%Sum of loads in Y 52.84 kNSum of support reactions in Y 52.84 kN Deviation 0.00%Sum of loads in Z 8931.40 kNSum of support reactions in Z 8931.40 kN Deviation 0.00%Resultant of reactions about X 3831.4 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1760.2 kNm At center of gravity of modelResultant of reactions about Z -576.7 kNm At center of gravity of modelMax. displacement in X -2.7 mm FE Node No. 65 (X: 1.415, Y: -2.000, Z: 3.121 m)Max. displacement in Y 4.6 mm Member No. 28, x: 1.200 mMax. displacement in Z 2.3 mm Member No. 27, x: 0.521 mMax. vector displacement 5.3 mm Member No. 27, x: 0.000 mMax. rotation about X 0.6 mrad Member No. 27, x: 0.074 mMax. rotation about Y 0.3 mrad Member No. 4, x: 0.637 mMax. rotation about Z -0.7 mrad Member No. 4, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO20 - ULS_aB_max_-ySum of loads in X -195.13 kNSum of support reactions in X -195.13 kN Deviation 0.00%Sum of loads in Y -1239.20 kNSum of support reactions in Y -1239.20 kN Deviation 0.00%Sum of loads in Z 8931.40 kNSum of support reactions in Z 8931.40 kN Deviation 0.00%Resultant of reactions about X -2970.7 kNm At center of gravity of model (X:-1.9, Y:1.0, Z:1.2 m)Resultant of reactions about Y -1759.3 kNm At center of gravity of modelResultant of reactions about Z 327.6 kNm At center of gravity of modelMax. displacement in X -3.1 mm FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -12.4 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.4 mm Member No. 26, x: 0.521 mMax. vector displacement 12.6 mm Member No. 26, x: 0.000 mMax. rotation about X -0.8 mrad Member No. 26, x: 0.074 mMax. rotation about Y 0.3 mrad Member No. 2, x: 0.637 mMax. rotation about Z 0.8 mrad Member No. 2, x: 0.637 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2SummaryMax. displacement in X -6.3 mm CO18, FE Node No. 64 (X: 1.415, Y: 4.000, Z: 3.121 m)Max. displacement in Y -12.4 mm CO20, Member No. 29, x: 1.200 mMax. displacement in Z 2.4 mm CO20, Member No. 26, x: 0.521 mMax. vector displacement 12.6 mm CO20, Member No. 26, x: 0.000 mMax. rotation about X -0.8 mrad CO20, Member No. 26, x: 0.074 mMax. rotation about Y 0.3 mrad CO20, Member No. 2, x: 0.637 mMax. rotation about Z 0.8 mrad CO20, Member No. 2, x: 0.637 mOther Settings Number of 1D finite elements : 120
Number of 2D finite elements : 1472Number of 3D finite elements : 0Number of FE mesh nodes : 1538Number of equations : 9228Max. number of iterations : 100Number of divisions for member results : 10Division of cable/foundation/tapered members : 10
Number of member divisions for searching maximum values : 10Subdivisions of FE mesh for graphical results : 0Percentage of iterations according to Picard method in combination withNewton-Raphson method
: 5 %
Activate ineffective supports :
Options Activate shear stiffness of members (Ay, Az) Activate member divisions for large deformation or post-critical analysis Activate entered stiffness modificationsIgnore rotational degrees of freedomCheck of critical forces of members
Method for the system of equations DirectIteration
Plate bending theory MindlinKirchhoff
Solver version 32-bit64-bit
Precision and Tolerance Change default setting
Nonlinear effects - Activate Support and elastic foundations
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
GLOBAL DEFORMATION UZ
MIN, RC1: SLS, IN Z-DIRECTION
0.6Y
X
Global Deformation
uZ [mm]
0.6
0.6
0.5
0.5
0.4
0.4
0.4
0.3
0.3
0.2
0.2
0.2
Max : 0.6Min : 0.2
In Z-directionRC1: SLSu-Z
Factor of deformations: 64.00Max u-Z: 0.6, Min u-Z: 0.2 [mm] 1.59 m
GLOBAL DEFORMATION UZ
MIN, RC1: SLS, IN Z-DIRECTION
GLOBAL DEFORMATION UZ
MAX, RC1: SLS, IN Z-DIRECTION
X
Y
1.7
Global Deformation
uZ [mm]
1.7
1.6
1.6
1.5
1.4
1.3
1.2
1.1
1.0
1.0
0.9
0.8
Max : 1.7Min : 0.8
In Z-directionRC1: SLSu-Z
Factor of deformations: 64.00Max u-Z: 1.7, Min u-Z: 0.8 [mm] 1.59 m
GLOBAL DEFORMATION UZ
MAX, RC1: SLS, IN Z-DIRECTION
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
CONTACT STRESSES sz MIN, RC1: SLS, IN Z-DIRECTION
X
Y
Contact Stressess-z [kN/m2]
118.86
110.88
102.89
94.91
86.93
78.95
70.96
62.98
55.00
47.02
39.03
31.05
Max : 118.86Min : 31.05
In Z-directionRC1: SLSSurfaces Sigma-z
Surfaces Max Sigma-z: 118.86, Min Sigma-z: 31.05 [kN/m2]1.59 m
CONTACT STRESSES sz MIN, RC1: SLS, IN Z-DIRECTION
CONTACT STRESSES sz MAX, RC1: SLS, IN Z-DIRECTION
X
Y
Contact Stressess-z [kN/m2]
288.48
276.58
264.68
252.77
240.87
228.97
217.07
205.17
193.27
181.36
169.46
157.56
Max : 288.48Min : 157.56
In Z-directionRC1: SLSSurfaces Sigma-z
Surfaces Max Sigma-z: 288.48, Min Sigma-z: 157.56 [kN/m2]1.59 m
CONTACT STRESSES sz MAX, RC1: SLS, IN Z-DIRECTION
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RF-CONCRETE Surfaces
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
1.1 GENERAL DATA
Design according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATE
Result combination for design: RC2 ULSPersistent and Transient
DETAILS Analysis Method for Reinforcement Envelope Mixed Apply the averaged internal forces in the definedaverage region for the ULS calculation and for theanalytic method of SLS calculation.
Apply the internal forces without the rib components
1.2 MATERIALSMaterial Material Description
No. Concrete Strength Class Steel Description Comment1 Beton C16/20 B 365 / 270
1.3 SURFACES
Surface Matl. Thickness ThicknessNo. No. Type [cm] Notes Comment
1 1 Constant 70.003 1 Constant 70.004 1 Constant 70.005 1 Constant 70.006 1 Constant 70.007 1 Constant 70.008 1 Constant 70.009 1 Constant 70.00
10 1 Constant 70.0011 1 Constant 70.0012 1 Constant 70.00
1.4 REINFORCEMENT GROUP NO. 1 Applied to surfaces: All
REINFORCEMENT RATIOMinimum secondary reinforcement 20.0 %
Basic minimum reinforcement 0.0 %Minimum compression reinforcement 0.0 %Minimum tension reinforcement 0.0 %Maximum reinforcement percentage 4.0 %Minimum shear reinforcement percentage 0.0 %Concrete cover acc. to Standard
BASIC REINFORCEMENT LAYOUT - TOP (-z)Number of directions 2Cover to rebar centroid d-1: 5.70, d-2: 7.10 cmDirections of reinforcement Phi-1: 0.000°, Phi-2: 90.000°Reinforcement area As-1,-z (top): 10.26, As-2,-z (top): 10.26 cm2/m
BASIC REINFORCEMENT LAYOUT - BOTTOM (+z)Number of directions 2Cover to rebar centroid d-1: 5.70, d-2: 7.10 cmDirections of reinforcement Phi-1: 0.000°, Phi-2: 90.000°Reinforcement area As-1,+z (bottom): 10.26, As-2,+z (bottom): 10.26 cm2/m
LONGITUDINAL REINFORCEMENT FOR SHEAR FORCE DESIGN Apply required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1Minimum longitudinal reinforcement for plates acc. to 9.3.1Direction of minimum reinforcement Reinforcement direction with the main tensile force from top(-z) and bottom (+z) surfaces together:Minimum longitudinal reinforcement for walls acc. to 9.6Minimum shear reinforcementNeutral axis depth limitationVariable strut inclination - min 21.801 °Variable concrete strut inclination - max 45.000 °Partial safety factor gs PT 1.15, AC 1.00, SLS 1.00
Partial safety factor gc PT 1.50, AC 1.20, SLS 1.00
Consideration of long-term effects Alpha-cc PT 1.00, AC 1.00, SLS 1.00Consideration of long-term effects Alpha-ct SLS 1.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
IN Z-DIRECTION
X
Y
a-s,1,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 30.48Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,-z (top)
Surfaces Max a-s,1,-z (top): 30.48, Min a-s,1,-z (top): 0.00 [cm2/m]1.591 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
IN Z-DIRECTION
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
IN Z-DIRECTION
X
Y
a-s,2,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 31.45Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,-z (top)
Surfaces Max a-s,2,-z (top): 31.45, Min a-s,2,-z (top): 0.00 [cm2/m]1.591 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
IN Z-DIRECTION
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, IN Z-DIRECTION
X
Y
a-s,1,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 31.97Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,+z (bottom)
Surfaces Max a-s,1,+z (bottom): 31.97, Min a-s,1,+z (bottom): 0.00 [cm2/m]1.591 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, IN Z-DIRECTION
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, IN Z-DIRECTION
X
Y
a-s,2,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
26.80
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 49.58Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,+z (bottom)
Surfaces Max a-s,2,+z (bottom): 49.58, Min a-s,2,+z (bottom): 0.00 [cm2/m]1.591 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, IN Z-DIRECTION
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
ISOMETRIC
Z
XY
a-s,1,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 30.48Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,-z (top)
Surfaces Max a-s,1,-z (top): 30.48, Min a-s,1,-z (top): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
ISOMETRIC
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
ISOMETRIC
Z
XY
a-s,2,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 31.45Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,-z (top)
Surfaces Max a-s,2,-z (top): 31.45, Min a-s,2,-z (top): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, ISOMETRIC
Z
XY
a-s,1,+z (bottom)[cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 31.97Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,+z (bottom)
Surfaces Max a-s,1,+z (bottom): 31.97, Min a-s,1,+z (bottom): 0.00 [cm 2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, ISOMETRIC
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, ISOMETRIC
Z
XY
a-s,2,+z (bottom)[cm2/m]
100.00
82.06
41.03
26.80
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 49.58Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,+z (bottom)
Surfaces Max a-s,2,+z (bottom): 49.58, Min a-s,2,+z (bottom): 0.00 [cm 2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
RF-CONCRETE SURFACES - SHEAR REINFORCEMENT asw
, CA1, IN
Z-DIRECTION
Z X
Y
Shear Reinforcement
a-sw [cm2/m2]
66.78
60.71
54.64
48.57
42.50
36.43
30.35
24.28
18.21
12.14
6.07
0.00
Max : 66.78Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-sw
Surfaces Max a-sw: 66.78, Min a-sw: 0.00 [cm2/m2]1.44 m
RF-CONCRETE SURFACES - SHEAR REINFORCEMENT asw
, CA1, IN
Z-DIRECTION
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RF-CONCRETE Members
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
1.1 GENERAL DATADesign according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATESResult combinations to design: RC2 ULS
Persistent and Transient
RF-CONCRETE Members
CA1
Stützenkopf
1.1 SETTINGS - NONLINEAR CALCULATION (STATE II) Activate nonlinear calculation for ULTIMATE LIMIT state:
Activate nonlinear calculation for SERVICEABILITY LIMIT state:
Activate nonlinear calculation for fire resistance
1.2 MATERIALSMatl. Material Description
No. Concrete Strength Class Reinforcing Steel Comment1 Concrete C16/20 B 365 / 270
1.3 CROSS-SECTIONSSection Matl. Cross-Section
No. No. Description Notes Comment3 1 Rectangle 65/70
Rectangle 65/70
1.6 REINFORCEMENT GROUP NO. 1 Applied to members: 2,4,26,27
LONGITUDINAL REINFORCEMENTPossible diameters: 16, 20, 26 mmMax. number of layers: 3Min. spacing for first layer: 40.0 mmMin. spacing for additional layers: 40.0 mmType of anchorage: Straight
Steel surface: RibbedReduction of reinforcement: None
SHEAR REINFORCEMENTPossible diameters: 10 mmNo. of cuts: 2Inclination: 90°Type of anchorage: HookLink layout: Uniform spacing throughout
REINFORCEMENT LAYOUTConcrete cover acc. to StandardConcrete cover c-top: 50.0 mmConcrete cover c-bottom: 50.0 mmConcrete cover c-side: 50.0 mmReinforcement layout: -z (top) - +z (bottom) (optimized distribution)Relevant internal forces: N, V-y, V-z, M-T, M-y, M-z
MINIMUM REINFORCEMENTMin. reinforcement area (min. A-s,top): 0.00 cm2
Min. reinforcement area (min. A-s,bottom): 0.00 cm2
Min. longitudinal reinforcement acc. to Standard:
Min. shear reinforcement acc. to Standard:Longitudinal reinforcement for shear force design: Use required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1:2004/AC:2010Max. percentage of reinforcement: 8.00 %Neutral axis depth limitationPartial safety factor Gamma-c PT 1.50, AC 1.20Partial safety factor Gamma-s PT 1.15, AC 1.00Reduction factor Alpha-cc PT 1.00, AC 1.00Reduction factor Alpha-ct PT 1.00, AC 1.00Design method for shear force: Optimization of the reinforcement areaMin. inclination of concrete strut 21.80 °Max. inclination of concrete strut 45.00 °Max. factor single forces near support 5.00
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RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, Required
Reinforcement As,+z (bottom)
, CA1, ISOMETRIC
5.65
5.65
25.75
22.57
11.4412.40
5.92
5.65
6.99
5.90
5.65
8.45
25.71
22.52
11.4312.38
5.89
5.65
6.96
8.44
RF-CONCRETE Members
A-s,-z (top)
A-s,+z (bottom)
IsometricRF-CONCRETE Members CA1
Stützenkopf Members
Max A-s,+z (bottom): 25.75 cm2Max A-s,-z (top): 12.40 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, Required
Reinforcement As,+z (bottom)
, CA1, ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA1, ISOMETRIC
0.18
0.15
0.19
0.18
0.24
0.14
0.18
0.25
RF-CONCRETE Members
A-s,T
IsometricRF-CONCRETE Members CA1Stützenkopf Members
Max A-s,T: 0.25 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA1, ISOMETRIC
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RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA1, ISOMETRIC
27.50
16.50
26.67
16.7627.50
16.50
26.67
16.75
RF-CONCRETE Members
2*a-sw,T,link +a-sw,V,link
IsometricRF-CONCRETE Members CA1Stützenkopf
Members
Max 2*a-sw,T,link + a-sw,V,link: 27.50 cm2/m
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA1, ISOMETRIC
1.1 GENERAL DATADesign according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATESResult combinations to design: RC2 ULS
Persistent and Transient
RF-CONCRETE Members
CA2
Stützen
1.1 SETTINGS - NONLINEAR CALCULATION (STATE II) Activate nonlinear calculation for ULTIMATE LIMIT state:
Activate nonlinear calculation for SERVICEABILITY LIMIT state:
Activate nonlinear calculation for fire resistance
1.2 MATERIALSMatl. Material Description
No. Concrete Strength Class Reinforcing Steel Comment1 Concrete C16/20 B 365 / 270
2 Concrete C16/20 B 365 / 270
1.3 CROSS-SECTIONSSection Matl. Cross-Section
No. No. Description Notes Comment3 1 Rectangle 65/705 2 Rectangle 65/70
Rectangle 65/70
1.6 REINFORCEMENT GROUP NO. 1 Applied to members: 1,3,5,6,9,15,19,23-25,28,29
LONGITUDINAL REINFORCEMENTPossible diameters: 26, 30 mm
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RF-CONCRETE Members
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
1.6 REINFORCEMENT GROUP NO. 1Max. number of layers: 1Min. spacing for first layer: 20.0 mmType of anchorage: StraightSteel surface: RibbedReduction of reinforcement: None
SHEAR REINFORCEMENTPossible diameters: 14 mmNo. of cuts: 2Inclination: 90°Type of anchorage: HookLink layout: Uniform spacing throughout
REINFORCEMENT LAYOUTConcrete cover acc. to StandardConcrete cover c-top: 50.0 mmConcrete cover c-bottom: 50.0 mmConcrete cover c-side: 50.0 mmReinforcement layout: -z (top) - +z (bottom) (symmetrical
distribution)Relevant internal forces: N, V-y, V-z, M-T, M-y, M-z
MINIMUM REINFORCEMENTMin. reinforcement area (min. A-s,top): 0.00 cm2
Min. reinforcement area (min. A-s,bottom): 0.00 cm2
Min. longitudinal reinforcement acc. to Standard:Min. shear reinforcement acc. to Standard:
Longitudinal reinforcement for shear force design: Use required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1:2004/AC:2010Max. percentage of reinforcement: 8.00 %Neutral axis depth limitationPartial safety factor Gamma-c PT 1.50, AC 1.20Partial safety factor Gamma-s PT 1.15, AC 1.00Reduction factor Alpha-cc PT 1.00, AC 1.00Reduction factor Alpha-ct PT 1.00, AC 1.00Design method for shear force: Standard methodMin. inclination of concrete strut 21.80 °Max. inclination of concrete strut 45.00 °Max. factor single forces near support 5.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DR_002
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, CA2,
ISOMETRIC
5.60
6.23
6.67
6.67
5.60
6.01
7.27
6.88
Z
Y X
6.69
6.69
5.94
5.60
9.97
6.86
6.28
6.28
5.60
5.60
9.00
6.29
6.29
5.60
8.98RF-CONCRETE Members
A-s,-z (top)
IsometricRF-CONCRETE Members CA2Stützen
Members
Max A-s,-z (top): 9.97 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, CA2,
ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement As,+z (bottom)
, CA2,
ISOMETRIC
5.60
6.23
7.27
9.97
5.60
5.60
X
Z
Y
6.67
6.67
6.28
6.01
5.60
6.69
6.69
6.29
5.94
6.889.00
6.868.98
RF-CONCRETE Members
A-s,+z (bottom)
IsometricRF-CONCRETE Members CA2StützenMembers
Max A-s,+z (bottom): 9.97 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,+z (bottom)
, CA2,
ISOMETRIC
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RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA2, ISOMETRIC
1.21
0.99
7.27
1.73
1.73
5.78
0.58
Z
Y X
7.02
1.89
1.89
0.12
0.95
1.33
1.42
1.25
7.12
0.22
1.48
1.55
1.33
0.76
11.48
11.44
RF-CONCRETE Members
A-s,T
IsometricRF-CONCRETE Members CA2StützenMembers
Max A-s,T: 11.48 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA2, ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA2, ISOMETRIC
11.52
9.61
5.70
7.68
5.84
5.84
5.72
6.49
5.71
Z
Y X
5.82
5.82
6.39
5.75
5.81
6.37
5.83
5.83
5.78
5.78
6.84
5.81
5.81
5.77
6.84
RF-CONCRETE Members
2*a-sw,T,link +a-sw,V,link
IsometricRF-CONCRETE Members CA2StützenMembers
Max 2*a-sw,T,link + a-sw,V,link: 11.52 cm2/m
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA2, ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
CONTENTS Model - General Data 118 In Z-direction FE Mesh Settings 118 Contact Stresses sz min, RC1: 145
1 Model SLS, In Z-direction1.1 Nodes 119 Contact Stresses sz max, RC1: 145
1.2 Lines 119 SLS, In Z-direction
1.3 Materials 120 RF-CONCRETE Surfaces1.4 Surfaces 120 CA1 - Stahlbeton-Bemessung1.9 Surface Supports 120 1.1 General Data 1461.13 Cross-Sections 120 1.2 Materials 1461.17 Members 120 1.3 Surfaces 1461.21 Sets of Members 120 1.4 Reinforcement Group No. 1 146
Model, Isometric 121 RF-CONCRETE Surfaces - Required Reinforcement 147 Nodes, Isometric 122 as,1,-z (top), CA1, In
Lines, Isometric 122 Z-direction Surfaces, Isometric 123 RF-CONCRETE Surfaces - Required Reinforcement 147 Local axes, Isometric 123 as,2,-z (top), CA1, In
Members, Isometric 124 Z-direction Supports and FE-mesh, Isometric 124 RF-CONCRETE Surfaces - Required Reinforcement 148
2 Load Cases and Combinations as,1,+z (bottom), CA1,
2.1 Load Cases 125 In Z-direction2.5 Load Combinations 125 RF-CONCRETE Surfaces - Required Reinforcement 1482.6 Result Combinations 126 as,2,+z (bottom), CA1,
3 Loads In Z-direction LC2 - 3.2 Member Loads 126 RF-CONCRETE Surfaces - Required Reinforcement 149 LC2 - 3.3 Line Loads 126 as,1,-z (top), CA1,
LC2 - 3.4 Surface Loads 126 Isometric
LC2 - 3.8 Free Rectangular Loads 126 RF-CONCRETE Surfaces - Required Reinforcement 149 LC2 - LC2: g_Earth pressure, Isometric 127 as,2,-z (top), CA1,
LC3 - 3.1 Nodal Loads 128 Isometric LC3 - LC3: p_SLS-iB_min_+y, Isometric 128 RF-CONCRETE Surfaces - Required Reinforcement 150 LC4 - 3.1 Nodal Loads 128 as,1,+z (bottom), CA1,
LC4 - LC4: p_SLS-iB_min_-y, Isometric 128 Isometric LC5 - 3.1 Nodal Loads 129 RF-CONCRETE Surfaces - Required Reinforcement 150 LC5 - LC5: p_SLS-iB_max_+y, Isometric 129 as,2,+z (bottom), CA1,
LC6 - 3.1 Nodal Loads 129 Isometric LC6 - LC6: p_SLS-iB_max_-y, Isometric 129 RF-CONCRETE Surfaces - Shear Reinforcement 151 LC7 - 3.1 Nodal Loads 130 asw, CA1, In Z-direction
LC7 - LC7: p_SLS-aB_min_+y, Isometric 130 RF-CONCRETE Members LC8 - 3.1 Nodal Loads 130 CA1 - Stützenkopf LC8 - LC8: p_SLS-aB_min_-y, Isometric 130 1.1 General Data 152 LC9 - 3.1 Nodal Loads 131 1.1 Settings - Nonlinear Calculation (State II) 152 LC9 - LC9: p_SLS-aB_max_+y, Isometric 131 1.2 Materials 152 LC10 - 3.1 Nodal Loads 131 1.3 Cross-Sections 152 LC10 - LC10: p_SLS-aB_max_-y, Isometric 131 1.6 Reinforcement Group No. 1 152 LC11 - 3.1 Nodal Loads 132 RF-CONCRETE Members - Required 153 LC11 - LC11: p_AG_min_+y, Isometric 132 Reinforcement As,-z
LC12 - 3.1 Nodal Loads 132 (top), Required Reinforcement LC12 - LC12: p_AG_min_-y, Isometric 132 As,+z (bottom), CA1, Isometric
LC13 - 3.1 Nodal Loads 133 RF-CONCRETE Members - Required 153 LC13 - LC13: p_AG_max_+y, Isometric 133 Reinforcement As,T, CA1,
LC14 - 3.1 Nodal Loads 133 Isometric LC14 - LC14: p_AG_max_-y, Isometric 133 RF-CONCRETE Members - Required 154 LC15 - 3.1 Nodal Loads 134 Reinforcement LC15 - LC15: p_ULS-iB_min_+y, Isometric 134 2*asw,T,link +
LC16 - 3.1 Nodal Loads 134 asw,V,link, CA1, Isometric
LC16 - LC16: p_ULS-iB_min_-y, Isometric 134 CA2 - Stützen LC17 - 3.1 Nodal Loads 135 1.1 General Data 154 LC17 - LC17: p_ULS-iB_max_+y, Isometric 135 1.1 Settings - Nonlinear Calculation (State II) 154 LC18 - 3.1 Nodal Loads 135 1.2 Materials 154 LC18 - LC18: p_ULS-iB_max_-y, Isometric 135 1.3 Cross-Sections 154 LC19 - 3.1 Nodal Loads 136 1.6 Reinforcement Group No. 1 155 L C19 - LC19: p_ULS-aB_min_+y, Isometric 136 RF-CONCRETE Members - Required 156 LC20 - 3.1 Nodal Loads 136 Reinforcement As,-z (top),
LC20 - LC20: p_ULS-aB_min_-y, Isometric 136 CA2, Isometric LC21 - 3.1 Nodal Loads 137 RF-CONCRETE Members - Required 156 LC21 - LC21: p_ULS-aB_max_+y, Isometric 137 Reinforcement As,+z (bottom),
LC22 - 3.1 Nodal Loads 137 CA2, Isometric LC22 - LC22: p_ULS-aB_max_-y, Isometric 137 RF-CONCRETE Members - Required 157
4 Results - Load Cases, Load Reinforcement As,T, CA2,
Combinations Isometric4.0 Results - Summary 138 RF-CONCRETE Members - Required 157
Results - Result Combinations Reinforcement Global Deformation uZ min, RC1: SLS, 144 2*asw,T,link +
In Z-direction asw,V,link, CA2, Isometric
Global Deformation uZ max, RC1: SLS, 144
MODEL - GENERAL DATAGeneral Model name : W1316_Tower_3_DL_002
Project name : Tower 3Folder : D:\DlubalProjects\W1316\Tower 3Type 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 f in ite elements I FE : 0.3 m
Maximum distance between a node and a line e : 0.0 mto integrate it into the lineMaximum number of mesh nodes (in thousands) : 500
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
FE MESH SETTINGS
Members Number of divisions of members with cable, : 10elastic foundation, taper, or plastic characteristic
Activate member divisions for large deformationor post-critical analysis
Use division for members with node lying on them
Surfaces Maximum ratio of FE rectangle diagonals DD : 1.800
Maximum out-of-plane inclination of two finite a : 0.50 °elements
Integrate also unutilized objects into surfacesShape direction of finite elements : Triangles and quadrangles
Same squares where possible
1.1 NODESNode Reference Coordinate Node Coordinates
No. Node Type Node System X [m] Y [m] Z [m] Comment2 Standard - Cartesian -1.168 1.675 -2.0414 Standard - Cartesian -1.168 0.325 -2.0416 Standard - Cartesian -1.332 1.675 -2.6417 Standard - Cartesian -1.332 0.325 -2.641
27 Standard - Cartesian -2.589 0.325 -4.01830 Standard - Cartesian -3.236 1.675 -3.84132 Standard - Cartesian -1.769 1.675 -4.24234 Standard - Cartesian -3.236 0.325 -3.84135 Standard - Cartesian -1.769 0.325 -4.24236 Standard - Cartesian -3.236 1.675 5.21137 Standard - Cartesian -3.236 0.325 5.21138 Standard - Cartesian 0.815 1.675 5.21139 Standard - Cartesian 0.815 0.325 5.21143 Standard - Cartesian -4.585 4.250 5.21249 Standard - Cartesian -4.585 -2.250 5.21251 Standard - Cartesian -3.236 4.250 5.21153 Standard - Cartesian -3.236 -2.250 5.21164 Standard - Cartesian 1.914 4.250 5.21165 Standard - Cartesian 1.914 -2.250 5.21167 Standard - Cartesian 0.815 4.250 5.21168 Standard - Cartesian 0.815 -2.250 5.21169 Standard - Cartesian 0.815 1.000 5.21170 Standard - Cartesian -2.589 1.675 -4.01871 Standard - Cartesian -3.236 1.675 -2.04172 Standard - Cartesian -3.236 0.325 -2.04174 Standard - Cartesian -3.236 1.675 -2.64175 Standard - Cartesian -3.236 0.325 -2.641
Cartesian
1.2 LINESLine Line Length
No. Line Type Nodes No. L [m] Comment1 Polyline 2,2 0.000
2 Polyline 69,38 0.675 Y3 Polyline 68,53 4.051 X4 Polyline 67,51 4.051 X5 Polyline 35,32 1.350 Y6 Polyline 72,72 0.0007 Polyline 37,72 7.252 Z8 Polyline 36,71 7.252 Z9 Polyline 6,32 1.660 XZ
11 Polyline 7,35 1.660 XZ12 Polyline 75,74 1.350 Y13 Polyline 71,71 0.00014 Polyline 37,36 1.350 Y16 Polyline 27,35 0.850 XZ17 Polyline 7,6 1.350 Y
18 Polyline 39,4 7.519 XZ19 Polyline 39,69 0.675 Y20 Polyline 38,2 7.519 XZ21 Polyline 38,67 2.575 Y22 Polyline 2,71 2.068 X23 Polyline 39,37 4.051 X24 Polyline 2,6 0.622 XZ25 Polyline 4,72 2.068 X26 Polyline 4,7 0.622 XZ32 Polyline 38,36 4.051 X36 Polyline 4,4 0.00037 Polyline 34,30 1.350 Y40 Polyline 37,37 0.00045 Polyline 39,39 0.00056 Polyline 39,68 2.575 Y59 Polyline 53,37 2.575 Y62 Polyline 36,51 2.575 Y63 Polyline 51,43 1.350 X64 Polyline 49,53 1.350 X65 Polyline 65,64 6.500 Y66 Polyline 64,67 1.099 X67 Polyline 65,68 1.099 X
68 Polyline 70,32 0.850 XZ69 Polyline 71,74 0.600 Z70 Polyline 72,75 0.600 Z71 Polyline 49,43 6.500 Y
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
1.2 LINESLine Line Length
No. Line Type Nodes No. L [m] Comment72 Polyline 34,27 0.670 XZ
73 Polyline 30,70 0.670 XZ74 Polyline 74,30 1.200 Z75 Polyline 75,34 1.200 Z
1.3 MATERIALSMatl. Modulus Modulus Poisson's Ratio Spec. Weight Coeff. of Th. Ex Partial Factor Material
No. E [kN/cm2] G [kN/cm2] n [-] g [kN/m3] a [1/K] gM [-] 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 Beton C16/20_weightless | EN 1992-1-1:2004/AC:20102900.00 1208.33 0.200 0.00E+00 1.00E-05 1.00 Isotropic Linear Elastic
Benutzerdefiniertes Material
1.4 SURFACESSurface Surface Type Matl. Thickness Area Weight
No. Geometry Stiffness Boundary Lines No. No. Type d [cm] A [m2] W [kg]1 Plane Standard 7,14,8,69,12,70 1 Constant 70.00 10.601 18551.33 Plane Standard 14,59,64,71,63,62 1 Constant 70.00 8.772 15351.74 Plane Standard 21,32,62,4 1 Constant 70.00 10.430 18252.75 Plane Standard 67,65,66,21,2,19,56 1 Constant 70.00 7.147 12506.46 Plane Standard 32,14,23,19,2 1 Constant 70.00 5.468 9569.47 Plane Standard 23,59,3,56 1 Constant 70.00 10.430 18252.78 Plane Standard 24,17,26,18,19,2,20 1 Constant 70.00 10.990 19232.09 Plane Standard 5,9,17,11 1 Constant 70.00 2.240 3920.7
10 Plane Standard 12,74,37,75 1 Constant 70.00 1.620 2835.011 Plane Standard 8,32,20,22 1 Constant 70.00 22.187 38826.412 Plane Standard 18,25,7,23 1 Constant 70.00 22.187 38826.4
1.9 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 yz
1 3-7 - 5000.000 5000.000 200000.000
1.13 CROSS-SECTIONSSection Matl. J [cm4] Iy [cm4] Iz [cm4] Principal Axes Rotation Overall Dimensions [cm]
No. No. A [cm2] Ay [cm2] Az [cm2] a [°] a' [°] Width b Height h
3 Rectangle 65/70 1 2889322.00 1857916.75 1601979.19 0.00 0.00 65.00 70.00
4550.00 3791.67 3791.675 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 Rectangle 65/70
1.17 MEMBERSMbr. Line Rotation Cross-Section Release No. Ecc. Div. Length
No. No. Member Type b[°] Start End Start End No. No. L [m]
1 9 Beam Angle 0.00 5 5 - - - - 1.660 XZ2 16 Beam Angle 0.00 3 3 - - - - 0.850 XZ3 11 Beam Angle 0.00 5 5 - - - - 1.660 XZ4 68 Beam Angle 0.00 3 3 - - - - 0.850 XZ5 7 Beam Angle 0.00 3 3 - - - - 7.252 Z6 26 Beam Angle 0.00 5 5 - - - - 0.622 XZ9 24 Beam Angle 0.00 5 5 - - - - 0.622 XZ
15 20 Beam Angle 0.00 5 5 - - - - 7.519 XZ19 8 Beam Angle 0.00 3 3 - - - - 7.252 Z23 18 Beam Angle 0.00 5 5 - - - - 7.519 XZ24 69 Beam Angle 0.00 5 5 - - - - 0.600 Z25 70 Beam Angle 0.00 5 5 - - - - 0.600 Z26 72 Beam Angle 0.00 3 3 - - - - 0.670 XZ27 73 Beam Angle 0.00 3 3 - - - - 0.670 XZ28 74 Beam Angle 0.00 3 3 - - - - 1.200 Z29 75 Beam Angle 0.00 3 3 - - - - 1.200 Z
1.21 SETS OF MEMBERSSet Set of Members Length
No. Description Type Member No. [m] Comment1 Riegel_rechts Contin. member 27,4 1.5202 Riegel_links Contin. member 26,2 1.5203 Stütze_3 Contin. member 5,25,29 9.052
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MODEL
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
1.21 SETS OF MEMBERSSet Set of Members Length
No. Description Type Member No. [m] Comment4 Stütze_4 Contin. member 19,24,28 9.052
5 Stütze_5 Contin. member 3,6,23 9.8006 Stütze_6 Contin. member 15,9,1 9.800
MODEL, ISOMETRIC
Z
XY
Isometric
MODEL, ISOMETRIC
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NODES, ISOMETRIC
49
53
37
683665
4339
72
51
75
69
34
38
71
X Y
Z
27
74
4
7
30
35
70
2
6
67
32
64
IsometricNode Numbering
NODES, ISOMETRIC
LINES, ISOMETRIC
64
3594071
1423 67
56326263
45
6
19
25
2
12
13
XY
Z
4
37
36
65
22
21
17
1
5
66
IsometricLine Numbering
LINES, ISOMETRIC
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SURFACES, ISOMETRIC
S3S7
S6
S1
S12
S4
S11
S5
S10
Y X
ZS8
S9
IsometricSurface Numbering
SURFACES, ISOMETRIC
LOCAL AXES, ISOMETRIC
z
xy x
z
y
y
z
x
y
x
z y
z x
z
y x
z x
y
z
xy
x
y
z
Z
XY
y
x
z
x
z
y
Isometric
LOCAL AXES, ISOMETRIC
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MEMBERS, ISOMETRIC
M5
M19
M25
M23
M29
M26
M24
Z
Y X
M15
M28
M6
M2
M3
M27
M9
M4
M1
IsometricMember Numbering
MEMBERS, ISOMETRIC
SUPPORTS AND FE-MESH, ISOMETRIC
Z
XY
Isometric
SUPPORTS AND FE-MESH, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
2.1 LOAD CASESLoad Load Case No Standard Self-Weight - Factor in Direction
Case Description Action Category Active X Y ZLC1 g_Dead load Permanent 0.00 0.00 1.00
LC2 g_Earth pressure PermanentLC3 p_SLS-iB_min_+y ImposedLC4 p_SLS-iB_min_-y ImposedLC5 p_SLS-iB_max_+y ImposedLC6 p_SLS-iB_max_-y ImposedLC7 p_SLS-aB_min_+y ImposedLC8 p_SLS-aB_min_-y ImposedLC9 p_SLS-aB_max_+y Imposed
LC10 p_SLS-aB_max_-y ImposedLC11 p_AG_min_+y AccidentalLC12 p_AG_min_-y AccidentalLC13 p_AG_max_+y AccidentalLC14 p_AG_max_-y AccidentalLC15 p_ULS-iB_min_+y ImposedLC16 p_ULS-iB_min_-y ImposedLC17 p_ULS-iB_max_+y ImposedLC18 p_ULS-iB_max_-y ImposedLC19 p_ULS-aB_min_+y ImposedLC20 p_ULS-aB_min_-y ImposedLC21 p_ULS-aB_max_+y ImposedLC22 p_ULS-aB_max_-y Imposed
2.5 LOAD COMBINATIONSLoad Load Combination
Combin. DS Description No. Factor Load CaseCO1 SLS_iB_min_+y 1 1.00 LC1 g_Dead load
2 1.00 LC2 g_Earth pressure3 1.00 LC3 p_SLS-iB_min_+y
CO2 SLS_iB_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC4 p_SLS-iB_min_-y
CO3 SLS_iB_max_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC5 p_SLS-iB_max_+y
CO4 SLS_iB_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC6 p_SLS-iB_max_-y
CO5 SLS_aB_min_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC7 p_SLS-aB_min_+y
CO6 SLS_aB_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure
3 1.00 LC8 p_SLS-aB_min_-yCO7 SLS_aB_max_+y 1 1.00 LC1 g_Dead load
2 1.00 LC2 g_Earth pressure3 1.00 LC9 p_SLS-aB_max_+y
CO8 SLS_aB_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC10 p_SLS-aB_max_-y
CO9 SLS_AG_min_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC11 p_AG_min_+y
CO10 SLS_AG_min_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC12 p_AG_min_-y
CO11 SLS_AG_max_+y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC13 p_AG_max_+y
CO12 SLS_AG_max_-y 1 1.00 LC1 g_Dead load2 1.00 LC2 g_Earth pressure3 1.00 LC14 p_AG_max_-y
CO13 ULS_iB_min_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC15 p_ULS-iB_min_+y
CO14 ULS_iB_min_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC16 p_ULS-iB_min_-y
CO15 ULS_iB_max_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC17 p_ULS-iB_max_+y
CO16 ULS_iB_max_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC18 p_ULS-iB_max_-y
CO17 ULS_aB_min_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC19 p_ULS-aB_min_+y
CO18 ULS_aB_min_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC20 p_ULS-aB_min_-y
CO19 ULS_aB_max_+y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC21 p_ULS-aB_max_+y
CO20 ULS_aB_max_-y 1 1.35 LC1 g_Dead load2 1.35 LC2 g_Earth pressure3 1.00 LC22 p_ULS-aB_max_-y
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
2.6 RESULT COMBINATIONSResult Result Combination Alternate
Combin. DS Description No. Factor Loading Criterion GroupRC1 SLS 1 1.00 CO1 SLS_iB_min_+y Permanent 1
2 1.00 CO2 SLS_iB_min_-y Permanent 13 1.00 CO3 SLS_iB_max_+y Permanent 14 1.00 CO4 SLS_iB_max_-y Permanent 15 1.00 CO5 SLS_aB_min_+y Permanent 16 1.00 CO6 SLS_aB_min_-y Permanent 17 1.00 CO7 SLS_aB_max_+y Permanent 18 1.00 CO8 SLS_aB_max_-y Permanent 19 1.00 CO9 SLS_AG_min_+y Permanent 1
10 1.00 CO10 SLS_AG_min_-y Permanent 111 1.00 CO11 SLS_AG_max_+y Permanent 112 1.00 CO12 SLS_AG_max_-y Permanent 1
RC2 ULS 1 1.00 CO13 ULS_iB_min_+y Permanent 12 1.00 CO14 ULS_iB_min_-y Permanent 13 1.00 CO15 ULS_iB_max_+y Permanent 14 1.00 CO16 ULS_iB_max_-y Permanent 15 1.00 CO17 ULS_aB_min_+y Permanent 16 1.00 CO18 ULS_aB_min_-y Permanent 17 1.00 CO19 ULS_aB_max_+y Permanent 18 1.00 CO20 ULS_aB_max_-y Permanent 19 1.00 CO9 SLS_AG_min_+y Permanent 1
10 1.00 CO10 SLS_AG_min_-y Permanent 111 1.00 CO11 SLS_AG_max_+y Permanent 112 1.00 CO12 SLS_AG_max_-y Permanent 1
3.2 MEMBER LOADS LC2: g_Earth pressure
Reference On Members Load Load Load Reference Load Parameters Over Tot.
No. to No. Type Distribution Direction Length Symbol Value Unit Length1 Members 23 Force Trapezoidal XL True Length p1 -17.10 kN/m
p2 -1.31 kN/m
2 Members 15,19 Force Trapezoidal YP ProjectedLength
p1 -24.00 kN/m
p2 -1.83 kN/m
3 Members 9 Force Trapezoidal XL True Length p1 -1.31 kN/m
p2 0.00 kN/m
4 Members 9,24 Force Trapezoidal YP ProjectedLength
p1 -7.24 kN/m
p2 0.00 kN/m
5 Members 15 Force Trapezoidal XL True Length p1 -17.10 kN/m
p2 -1.31 kN/m
6 Members 6 Force Trapezoidal XL True Length p1 -1.31 kN/m
p2 0.00 kN/m
LC2
g_Earth pressure
3.3 LINE LOADS LC2: g_Earth pressure
Reference Load Load Load Load Parameters
No. to On Lines No. Type Distribution Direction Symbol Value Unit1 Lines 65 Force Uniform XL p -34.40 kN/m
2 Lines 4,63,66 Force Uniform YL p -55.40 kN/m
3.4 SURFACE LOADS LC2: g_Earth pressure
Load Load Load Load Parameters On Node
No. On Surfaces No. Type Distribution Direction Symbol Value Unit No.7 8 Force Linear in Z XL p1 0.00 kN/m2 75
p2 -52.70 kN/m2 37
8 11 Force Linear in Z z p1 0.00 kN/m2 74
p2 -68.50 kN/m2 36
3.8 FREE RECTANGULAR LOADS LC2: g_Earth pressure
Load Load Magnitude Load Position
No. On Surfaces No. Project. Distribution Direction Symbol Value Unit X [m] Y [m] Z [m]1 3-5,7 XY Linear X ZL p1 103.00 kN/m2 -4.585 4.250
p2 123.00 kN/m2 1.914 -2.250
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LC2: G_EARTH PRESSURE, ISOMETRIC
103.00
107.15107.15
119.62119.62
24.00
68.50
123.00
103.00103.00
17.1052.70
107.15107.15
55.40
17.10
Y
Z
X
1.83
24.00
5.23
7.24
34.40
1.311.31
55.40
4.031.311.311.837.24
119.62119.62
123.00123.00
55.40
IsometricLC2: g_Earth pressure
LC2: G_EARTH PRESSURE, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC3: p_SLS-iB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -28.00 18.00 125.00 0.00 0.00 0.00
LC3
p_SLS-iB_min_+y
LC3: P_SLS-IB_MIN_+Y, ISOMETRIC
28.00
18.00
28.00
18.00
125.00
125.00
IsometricLC3: p_SLS-iB_min_+y
LC3: P_SLS-IB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC4: p_SLS-iB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -28.00 -18.00 125.00 0.00 0.00 0.00
LC4
p_SLS-iB_min_-y
LC4: P_SLS-IB_MIN_-Y, ISOMETRIC
28.00
28.0018.00
18.00
125.00
125.00
IsometricLC4: p_SLS-iB_min_-y
LC4: P_SLS-IB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC5: p_SLS-iB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 93.00 123.00 725.00 0.00 0.00 0.00
LC5
p_SLS-iB_max_+y
LC5: P_SLS-IB_MAX_+Y, ISOMETRIC
123.00
93.00 123.00
725.00
93.00
725.00
IsometricLC5: p_SLS-iB_max_+y
LC5: P_SLS-IB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC6: p_SLS-iB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 93.00 -123.00 725.00 0.00 0.00 0.00
LC6
p_SLS-iB_max_-y
LC6: P_SLS-IB_MAX_-Y, ISOMETRIC
123.0093.00
123.00
725.00
93.00
725.00
IsometricLC6: p_SLS-iB_max_-y
LC6: P_SLS-IB_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC7: p_SLS-aB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -80.00 115.00 -303.00 0.00 0.00 0.00
LC7
p_SLS-aB_min_+y
LC7: P_SLS-AB_MIN_+Y, ISOMETRIC
X
303.00
80.00115.00
303.00
80.00115.00
IsometricLC7: p_SLS-aB_min_+y
LC7: P_SLS-AB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC8: p_SLS-aB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -80.00 -115.00 -303.00 0.00 0.00 0.00
LC8
p_SLS-aB_min_-y
LC8: P_SLS-AB_MIN_-Y, ISOMETRIC
X
Y
303.00
80.00
303.00
80.00
115.00
115.00
IsometricLC8: p_SLS-aB_min_-y
LC8: P_SLS-AB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC9: p_SLS-aB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 133.00 205.00 1070.00 0.00 0.00 0.00
LC9
p_SLS-aB_max_+y
LC9: P_SLS-AB_MAX_+Y, ISOMETRIC
205.00
133.00 205.00
1070.00
133.00
1070.00
IsometricLC9: p_SLS-aB_max_+y
LC9: P_SLS-AB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC10: p_SLS-aB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 133.00 -205.00 1070.00 0.00 0.00 0.00
LC10
p_SLS-aB_max_-y
LC10: P_SLS-AB_MAX_-Y, ISOMETRIC
205.00133.00
205.00
1070.00
133.00
1070.00
IsometricLC10: p_SLS-aB_max_-y
LC10: P_SLS-AB_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC11: p_AG_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -85.00 123.00 -498.00 0.00 0.00 0.00
LC11
p_AG_min_+y
LC11: P_AG_MIN_+Y, ISOMETRIC
498.00
85.00123.00
498.00
85.00123.00
IsometricLC11: p_AG_min_+y
LC11: P_AG_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC12: p_AG_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -85.00 -123.00 -498.00 0.00 0.00 0.00
LC12
p_AG_min_-y
LC12: P_AG_MIN_-Y, ISOMETRIC
X
498.00
85.00
498.00
85.00123.00
123.00
IsometricLC12: p_AG_min_-y
LC12: P_AG_MIN_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC13: p_AG_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 145.00 223.00 1193.00 0.00 0.00 0.00
LC13
p_AG_max_+y
LC13: P_AG_MAX_+Y, ISOMETRIC
223.00
145.00 223.00
1193.00
145.00
1193.00
IsometricLC13: p_AG_max_+y
LC13: P_AG_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC14: p_AG_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 145.00 -223.00 1193.00 0.00 0.00 0.00
LC14
p_AG_max_-y
LC14: P_AG_MAX_-Y, ISOMETRIC
223.00145.00
223.00
1193.00
145.00
1193.00
IsometricLC14: p_AG_max_-y
LC14: P_AG_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC15: p_ULS-iB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -65.00 78.00 -113.00 0.00 0.00 0.00
LC15
p_ULS-iB_min_+y
LC15: P_ULS-IB_MIN_+Y, ISOMETRIC
X
Y
65.00
113.00
78.00
65.00
113.00
78.00
IsometricLC15: p_ULS-iB_min_+y
LC15: P_ULS-IB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC16: p_ULS-iB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -65.00 -78.00 -113.00 0.00 0.00 0.00
LC16
p_ULS-iB_min_-y
LC16: P_ULS-IB_MIN_-Y, ISOMETRIC
X
Y
65.00
113.00
65.00
113.00
78.00
78.00
IsometricLC16: p_ULS-iB_min_-y
LC16: P_ULS-IB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC17: p_ULS-iB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 150.00 200.00 1130.00 0.00 0.00 0.00
LC17
p_ULS-iB_max_+y
LC17: P_ULS-IB_MAX_+Y, ISOMETRIC
200.00
150.00 200.00
1130.00
150.00
1130.00
IsometricLC17: p_ULS-iB_max_+y
LC17: P_ULS-IB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC18: p_ULS-iB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 150.00 -200.00 1130.00 0.00 0.00 0.00
LC18
p_ULS-iB_max_-y
LC18: P_ULS-IB_MAX_-Y, ISOMETRIC
200.00150.00
200.00
1130.00
150.00
1130.00
IsometricLC18: p_ULS-iB_max_-y
LC18: P_ULS-IB_MAX_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC19: p_ULS-aB_min_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -138.00 215.00 -723.00 0.00 0.00 0.00
LC19
p_ULS-aB_min_+y
LC19: P_ULS-AB_MIN_+Y, ISOMETRIC
X
Y
723.00
138.00215.00
723.00
138.00215.00
IsometricLC19: p_ULS-aB_min_+y
LC19: P_ULS-AB_MIN_+Y, ISOMETRIC
3.1 NODAL LOADS LC20: p_ULS-aB_min_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 -138.00 -215.00 -723.00 0.00 0.00 0.00
LC20
p_ULS-aB_min_-y
LC20: P_ULS-AB_MIN_-Y, ISOMETRIC
723.00
138.00
723.00
138.00215.00
215.00
IsometricLC20: p_ULS-aB_min_-y
LC20: P_ULS-AB_MIN_-Y, ISOMETRIC
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LOADS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
3.1 NODAL LOADS LC21: p_ULS-aB_max_+y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 208.00 323.00 1638.00 0.00 0.00 0.00
LC21
p_ULS-aB_max_+y
LC21: P_ULS-AB_MAX_+Y, ISOMETRIC
323.00
208.00 323.00
1638.00
208.00
1638.00
IsometricLC21: p_ULS-aB_max_+y
LC21: P_ULS-AB_MAX_+Y, ISOMETRIC
3.1 NODAL LOADS LC22: p_ULS-aB_max_-y
Force [kN] Moment [kNm]
No. On Nodes No. PX PY PZ MX MY MZ
1 27,70 208.00 -323.00 1638.00 0.00 0.00 0.00
LC22
p_ULS-aB_max_-y
LC22: P_ULS-AB_MAX_-Y, ISOMETRIC
323.00208.00
323.00
1638.00
208.00
1638.00
IsometricLC22: p_ULS-aB_max_-y
LC22: P_ULS-AB_MAX_-Y, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentLC1 - g_Dead load
Sum of loads in X 0.00 kNSum of support reactions in X 0.00 kNSum of loads in Y 0.00 kNSum of support reactions in Y 0.00 kNSum of loads in Z 2188.10 kNSum of support reactions in Z 2188.10 kN Deviation 0.00%Resultant of reactions about X 0.00 kNm At center of gravity of model (X:-1.73, Y:1.00, Z:2.60 m)Resultant of reactions about Y 0.00 kNm At center of gravity of modelResultant of reactions about Z 0.00 kNm At center of gravity of modelMax. displacement in X -0.5 mm FE Node No. 1102 (X: -1.769, Y: 0.775, Z: -4.242 m)Max. displacement in Y -0.0 mm FE Node No. 1359 (X: -1.717, Y: 1.675, Z: 4.461 m)Max. displacement in Z 0.5 mm Member No. 26, x: 0.000 mMax. vector displacement 0.7 mm Member No. 27, x: 0.000 mMax. rotation about X -0.1 mrad FE Node No. 43 (X: -4.585, Y: 4.250, Z: 5.212 m)Max. rotation about Y 0.1 mrad Member No. 29, x: 0.000 mMax. rotation about Z -0.0 mrad FE Node No. 1288 (X: -2.729, Y: 1.675, Z: 3.711 m)Method of analysis Linear Geometrically linear static analysisStiffness reduction multiplied by coefficientNumber of load increments 6Number of iterations 1LC2 - g_Earth pressureSum of loads in X -652.41 kNSum of support reactions in X -652.41 kN Deviation 0.00%
Sum of loads in Y -1449.00 kNSum of support reactions in Y -1449.00 kN Deviation 0.00%Sum of loads in Z 4153.90 kNSum of support reactions in Z 4153.90 kN Deviation 0.00%Resultant of reactions about X 1189.87 kNm At center of gravity of model (X:-1.73, Y:1.00, Z:2.60 m)Resultant of reactions about Y -2571.96 kNm At center of gravity of modelResultant of reactions about Z -356.02 kNm At center of gravity of modelMax. displacement in X -3.6 mm Member No. 1, x: 1.660 mMax. displacement in Y -9.2 mm Member No. 29, x: 1.200 mMax. displacement in Z 0.8 mm FE Node No. 805 (X: -1.463, Y: -2.250, Z: 5.211 m)Max. vector displacement 9.9 mm Member No. 28, x: 1.200 mMax. rotation about X -0.2 mrad FE Node No. 1488 (X: -1.717, Y: 1.675, Z: 3.461 m)Max. rotation about Y 0.1 mrad FE Node No. 213 (X: -3.505, Y: 1.690, Z: 5.211 m)Max. rotation about Z 0.2 mrad FE Node No. 1243 (X: -0.197, Y: 1.675, Z: 2.301 m)Method of analysis Linear Geometrically linear static analysisStiffness reduction multiplied by coefficientNumber of load increments 6Number of iterations 1CO1 - SLS_iB_min_+ySum of loads in X -708.41 kNSum of support reactions in X -708.41 kN Deviation 0.00%Sum of loads in Y -1413.00 kN
Sum of support reactions in Y -1413.00 kN Deviation 0.00%Sum of loads in Z 6592.10 kNSum of support reactions in Z 6592.10 kN Deviation 0.00%Resultant of reactions about X 1426.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -1984.9 kNm At center of gravity of modelResultant of reactions about Z -386.7 kNm At center of gravity of modelMax. displacement in X -4.8 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -8.7 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.3 mm Member No. 29, x: 1.200 mMax. vector displacement 10.0 mm Member No. 28, x: 1.200 mMax. rotation about X -0.2 mrad FE Node No. 1819 (X: -1.717, Y: 0.325, Z: 2.961 m)Max. rotation about Y 0.2 mrad Member No. 29, x: 0.000 mMax. rotation about Z 0.1 mrad FE Node No. 1244 (X: -0.198, Y: 1.675, Z: 2.531 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO2 - SLS_iB_min_-ySum of loads in X -708.41 kN
Sum of support reactions in X -708.41 kN Deviation 0.00%Sum of loads in Y -1485.00 kNSum of support reactions in Y -1485.00 kN Deviation 0.00%Sum of loads in Z 6592.10 kNSum of support reactions in Z 6592.10 kN Deviation 0.00%Resultant of reactions about X 949.7 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -1984.8 kNm At center of gravity of modelResultant of reactions about Z -324.5 kNm At center of gravity of modelMax. displacement in X -4.9 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -9.8 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.4 mm Member No. 29, x: 1.200 mMax. vector displacement 11.0 mm Member No. 27, x: 0.000 mMax. rotation about X -0.3 mrad FE Node No. 1817 (X: -1.717, Y: 0.325, Z: 2.460 m)Max. rotation about Y 0.2 mrad Member No. 28, x: 0.000 mMax. rotation about Z 0.2 mrad FE Node No. 1243 (X: -0.197, Y: 1.675, Z: 2.301 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO3 - SLS_iB_max_+ySum of loads in X -466.41 kNSum of support reactions in X -466.41 kN Deviation 0.00%Sum of loads in Y -1203.00 kN
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentSum of support reactions in Y -1203.00 kN Deviation 0.00%
Sum of loads in Z 7792.10 kNSum of support reactions in Z 7792.10 kN Deviation 0.00%Resultant of reactions about X 2817.1 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2551.5 kNm At center of gravity of modelResultant of reactions about Z -568.1 kNm At center of gravity of modelMax. displacement in X -3.3 mm Member No. 3, x: 1.660 mMax. displacement in Y -5.9 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.4 mm Member No. 27, x: 0.000 mMax. vector displacement 6.5 mm FE Node No. 1091 (X: -0.903, Y: 0.325, Z: -1.074 m)Max. rotation about X -0.2 mrad FE Node No. 43 (X: -4.585, Y: 4.250, Z: 5.212 m)Max. rotation about Y 0.2 mrad Member No. 4, x: 0.567 mMax. rotation about Z -0.1 mrad Member No. 4, x: 0.567 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO4 - SLS_iB_max_-ySum of loads in X -466.41 kNSum of support reactions in X -466.41 kN Deviation 0.00%Sum of loads in Y -1695.00 kN
Sum of support reactions in Y -1695.00 kN Deviation 0.00%Sum of loads in Z 7792.10 kNSum of support reactions in Z 7792.10 kN Deviation 0.00%Resultant of reactions about X -446.7 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2550.4 kNm At center of gravity of modelResultant of reactions about Z -142.2 kNm At center of gravity of modelMax. displacement in X -3.5 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -13.1 mm Member No. 29, x: 1.200 mMax. displacement in Z 1.7 mm Member No. 26, x: 0.000 mMax. vector displacement 13.5 mm Member No. 27, x: 0.000 mMax. rotation about X -0.6 mrad Member No. 29, x: 1.200 mMax. rotation about Y 0.2 mrad Member No. 2, x: 0.567 mMax. rotation about Z 0.4 mrad Member No. 2, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO5 - SLS_aB_min_+ySum of loads in X -812.41 kN
Sum of support reactions in X -812.41 kN Deviation 0.00%Sum of loads in Y -1219.00 kNSum of support reactions in Y -1219.00 kN Deviation 0.00%Sum of loads in Z 5736.10 kNSum of support reactions in Z 5736.10 kN Deviation 0.00%Resultant of reactions about X 2710.7 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2035.5 kNm At center of gravity of modelResultant of reactions about Z -554.3 kNm At center of gravity of modelMax. displacement in X -5.2 mm Member No. 3, x: 1.660 mMax. displacement in Y -6.0 mm Member No. 15, x: 3.759 mMax. displacement in Z 1.0 mm FE Node No. 336 (X: -4.585, Y: 0.750, Z: 5.212 m)Max. vector displacement 7.8 mm Member No. 2, x: 0.850 mMax. rotation about X -0.1 mrad FE Node No. 300 (X: -4.315, Y: 2.993, Z: 5.212 m)Max. rotation about Y 0.2 mrad Member No. 26, x: 0.084 mMax. rotation about Z -0.1 mrad Member No. 2, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO6 - SLS_aB_min_-ySum of loads in X -812.41 kNSum of support reactions in X -812.41 kN Deviation 0.00%Sum of loads in Y -1679.00 kNSum of support reactions in Y -1679.00 kN Deviation 0.00%Sum of loads in Z 5736.10 kNSum of support reactions in Z 5736.10 kN Deviation 0.00%Resultant of reactions about X -330.7 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2034.5 kNm At center of gravity of modelResultant of reactions about Z -157.5 kNm At center of gravity of modelMax. displacement in X -5.4 mm Member No. 4, x: 0.850 mMax. displacement in Y -12.8 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.3 mm Member No. 29, x: 0.000 mMax. vector displacement 13.9 mm Member No. 28, x: 1.200 mMax. rotation about X -0.5 mrad Member No. 27, x: 0.335 mMax. rotation about Y 0.2 mrad Member No. 28, x: 1.200 mMax. rotation about Z 0.4 mrad Member No. 4, x: 0.567 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO7 - SLS_aB_max_+ySum of loads in X -386.41 kN
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentSum of support reactions in X -386.41 kN Deviation 0.00%
Sum of loads in Y -1039.00 kNSum of support reactions in Y -1039.00 kN Deviation 0.00%Sum of loads in Z 8482.10 kNSum of support reactions in Z 8482.10 kN Deviation 0.00%Resultant of reactions about X 3906.3 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2485.3 kNm At center of gravity of modelResultant of reactions about Z -710.2 kNm At center of gravity of modelMax. displacement in X -3.1 mm Member No. 3, x: 1.660 mMax. displacement in Y -5.6 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.7 mm Member No. 27, x: 0.419 mMax. vector displacement 6.1 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X 0.3 mrad Member No. 27, x: 0.084 mMax. rotation about Y 0.3 mrad Member No. 4, x: 0.567 mMax. rotation about Z -0.3 mrad Member No. 4, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO8 - SLS_aB_max_-ySum of loads in X -386.41 kN
Sum of support reactions in X -386.41 kN Deviation 0.00%Sum of loads in Y -1859.00 kNSum of support reactions in Y -1859.00 kN Deviation 0.00%Sum of loads in Z 8482.10 kNSum of support reactions in Z 8482.10 kN Deviation 0.00%Resultant of reactions about X -1539.1 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2483.5 kNm At center of gravity of modelResultant of reactions about Z 0.3 kNm At center of gravity of modelMax. displacement in X -3.4 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Y -15.6 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.1 mm Member No. 26, x: 0.419 mMax. vector displacement 16.0 mm Member No. 27, x: 0.000 mMax. rotation about X -0.8 mrad Member No. 29, x: 1.200 mMax. rotation about Y 0.3 mrad Member No. 2, x: 0.567 mMax. rotation about Z 0.6 mrad Member No. 2, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO9 - SLS_AG_min_+ySum of loads in X -822.41 kNSum of support reactions in X -822.41 kN Deviation 0.00%Sum of loads in Y -1203.00 kNSum of support reactions in Y -1203.00 kN Deviation 0.00%Sum of loads in Z 5346.10 kNSum of support reactions in Z 5346.10 kN Deviation 0.00%Resultant of reactions about X 2816.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2305.6 kNm At center of gravity of modelResultant of reactions about Z -568.1 kNm At center of gravity of modelMax. displacement in X -5.1 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -5.9 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 0.9 mm FE Node No. 336 (X: -4.585, Y: 0.750, Z: 5.212 m)Max. vector displacement 7.5 mm FE Node No. 1113 (X: -1.644, Y: 0.325, Z: -3.784 m)Max. rotation about X 0.1 mrad Member No. 29, x: 1.200 mMax. rotation about Y 0.2 mrad Member No. 26, x: 0.084 mMax. rotation about Z -0.1 mrad Member No. 2, x: 0.567 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO10 - SLS_AG_min_-ySum of loads in X -822.41 kNSum of support reactions in X -822.41 kN Deviation 0.00%Sum of loads in Y -1695.00 kNSum of support reactions in Y -1695.00 kN Deviation 0.00%Sum of loads in Z 5346.10 kNSum of support reactions in Z 5346.10 kN Deviation 0.00%Resultant of reactions about X -434.8 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2304.5 kNm At center of gravity of modelResultant of reactions about Z -143.8 kNm At center of gravity of modelMax. displacement in X -5.3 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -13.1 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.2 mm Member No. 25, x: 0.000 mMax. vector displacement 14.1 mm Member No. 28, x: 1.200 mMax. rotation about X -0.6 mrad Member No. 27, x: 0.000 mMax. rotation about Y 0.2 mrad Member No. 27, x: 0.168 mMax. rotation about Z 0.4 mrad Member No. 4, x: 0.567 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentCO11 - SLS_AG_max_+y
Sum of loads in X -362.41 kNSum of support reactions in X -362.41 kN Deviation 0.00%Sum of loads in Y -1003.00 kNSum of support reactions in Y -1003.00 kN Deviation 0.00%Sum of loads in Z 8728.10 kNSum of support reactions in Z 8728.10 kN Deviation 0.00%Resultant of reactions about X 4145.9 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2431.8 kNm At center of gravity of modelResultant of reactions about Z -741.5 kNm At center of gravity of modelMax. displacement in X -3.0 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -5.5 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.8 mm Member No. 27, x: 0.419 mMax. vector displacement 6.1 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X 0.4 mrad Member No. 27, x: 0.084 mMax. rotation about Y 0.3 mrad Member No. 4, x: 0.567 mMax. rotation about Z -0.3 mrad Member No. 4, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2
CO12 - SLS_AG_max_-ySum of loads in X -362.41 kNSum of support reactions in X -362.41 kN Deviation 0.00%Sum of loads in Y -1895.00 kNSum of support reactions in Y -1895.00 kN Deviation 0.00%Sum of loads in Z 8728.10 kNSum of support reactions in Z 8728.10 kN Deviation 0.00%Resultant of reactions about X -1779.8 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2429.7 kNm At center of gravity of modelResultant of reactions about Z 31.7 kNm At center of gravity of modelMax. displacement in X -3.4 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Y -16.2 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.2 mm Member No. 26, x: 0.419 mMax. vector displacement 16.5 mm Member No. 28, x: 1.200 mMax. rotation about X -0.8 mrad Member No. 26, x: 0.084 mMax. rotation about Y 0.3 mrad Member No. 2, x: 0.567 mMax. rotation about Z 0.6 mrad Member No. 2, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO13 - ULS_iB_min_+ySum of loads in X -1010.80 kNSum of support reactions in X -1010.80 kN Deviation 0.00%Sum of loads in Y -1800.20 kNSum of support reactions in Y -1800.20 kN Deviation 0.00%Sum of loads in Z 8335.80 kNSum of support reactions in Z 8335.80 kN Deviation 0.00%Resultant of reactions about X 2637.0 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2805.7 kNm At center of gravity of modelResultant of reactions about Z -614.9 kNm At center of gravity of modelMax. displacement in X -6.6 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -10.1 mm FE Node No. 1173 (X: -3.236, Y: 0.865, Z: -3.841 m)Max. displacement in Z 1.5 mm Member No. 5, x: 4.752 mMax. vector displacement 12.1 mm Member No. 27, x: 0.000 mMax. rotation about X -0.2 mrad FE Node No. 1414 (X: -1.717, Y: 1.675, Z: 4.211 m)Max. rotation about Y 0.2 mrad Member No. 29, x: 0.300 mMax. rotation about Z 0.1 mrad FE Node No. 1244 (X: -0.198, Y: 1.675, Z: 2.531 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO14 - ULS_iB_min_-ySum of loads in X -1010.80 kNSum of support reactions in X -1010.80 kN Deviation 0.00%Sum of loads in Y -2112.20 kNSum of support reactions in Y -2112.20 kN Deviation 0.00%Sum of loads in Z 8335.80 kNSum of support reactions in Z 8335.80 kN Deviation 0.00%Resultant of reactions about X 572.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2804.8 kNm At center of gravity of modelResultant of reactions about Z -345.3 kNm At center of gravity of modelMax. displacement in X -6.8 mm Member No. 1, x: 1.660 mMax. displacement in Y -14.9 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.8 mm Member No. 29, x: 0.720 mMax. vector displacement 16.4 mm Member No. 27, x: 0.000 mMax. rotation about X -0.5 mrad Member No. 27, x: 0.084 mMax. rotation about Y 0.2 mrad Member No. 28, x: 0.300 mMax. rotation about Z 0.4 mrad FE Node No. 1243 (X: -0.197, Y: 1.675, Z: 2.301 m)Method of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentNumber of load increments 6
Number of iterations 2CO15 - ULS_iB_max_+ySum of loads in X -580.75 kNSum of support reactions in X -580.75 kN Deviation 0.00%Sum of loads in Y -1556.20 kNSum of support reactions in Y -1556.20 kN Deviation 0.00%Sum of loads in Z 10822.00 kNSum of support reactions in Z 10822.00 kN Deviation 0.00%Resultant of reactions about X 4254.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3506.1 kNm At center of gravity of modelResultant of reactions about Z -826.0 kNm At center of gravity of modelMax. displacement in X -4.2 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -7.8 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 2.0 mm Member No. 27, x: 0.335 mMax. vector displacement 8.5 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X -0.3 mrad FE Node No. 43 (X: -4.585, Y: 4.250, Z: 5.212 m)Max. rotation about Y 0.3 mrad Member No. 4, x: 0.567 mMax. rotation about Z -0.2 mrad Member No. 4, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor
Number of load increments 6Number of iterations 2CO16 - ULS_iB_max_-ySum of loads in X -580.75 kNSum of support reactions in X -580.75 kN Deviation 0.00%Sum of loads in Y -2356.20 kNSum of support reactions in Y -2356.20 kN Deviation 0.00%Sum of loads in Z 10822.00 kNSum of support reactions in Z 10822.00 kN Deviation 0.00%Resultant of reactions about X -1060.7 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3503.7 kNm At center of gravity of modelResultant of reactions about Z -131.8 kNm At center of gravity of modelMax. displacement in X -4.5 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Y -18.7 mm Member No. 29, x: 1.200 mMax. displacement in Z 2.5 mm Member No. 26, x: 0.335 mMax. vector displacement 19.3 mm Member No. 27, x: 0.000 mMax. rotation about X -0.8 mrad Member No. 26, x: 0.084 mMax. rotation about Y 0.3 mrad Member No. 2, x: 0.567 mMax. rotation about Z 0.6 mrad Member No. 2, x: 0.567 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO17 - ULS_aB_min_+ySum of loads in X -1156.80 kNSum of support reactions in X -1156.80 kN Deviation 0.00%Sum of loads in Y -1526.20 kNSum of support reactions in Y -1526.20 kN Deviation 0.00%Sum of loads in Z 7115.80 kNSum of support reactions in Z 7115.80 kN Deviation 0.00%Resultant of reactions about X 4448.6 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2892.6 kNm At center of gravity of modelResultant of reactions about Z -851.4 kNm At center of gravity of modelMax. displacement in X -7.3 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -7.8 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Z 1.2 mm Member No. 24, x: 0.150 mMax. vector displacement 9.8 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X 0.2 mrad Member No. 26, x: 0.084 mMax. rotation about Y 0.3 mrad Member No. 26, x: 0.084 mMax. rotation about Z -0.2 mrad Member No. 2, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO18 - ULS_aB_min_-ySum of loads in X -1156.80 kNSum of support reactions in X -1156.80 kN Deviation 0.00%Sum of loads in Y -2386.20 kNSum of support reactions in Y -2386.20 kN Deviation 0.00%Sum of loads in Z 7115.80 kNSum of support reactions in Z 7115.80 kN Deviation 0.00%Resultant of reactions about X -1231.7 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -2890.0 kNm At center of gravity of modelResultant of reactions about Z -109.8 kNm At center of gravity of modelMax. displacement in X -7.6 mm FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -19.2 mm Member No. 28, x: 1.200 mMax. displacement in Z 1.7 mm Member No. 25, x: 0.000 mMax. vector displacement 20.6 mm Member No. 27, x: 0.000 mMax. rotation about X -0.9 mrad Member No. 27, x: 0.084 mMax. rotation about Y 0.3 mrad Member No. 27, x: 0.084 mMax. rotation about Z 0.7 mrad Member No. 4, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RESULTS
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
4.0 RESULTS - SUMMARY
Description Value Unit CommentConsider favorable effects of tensile forces
Divide results by CO factor Number of load increments 6Number of iterations 2CO19 - ULS_aB_max_+ySum of loads in X -464.75 kNSum of support reactions in X -464.75 kN Deviation 0.00%Sum of loads in Y -1310.20 kNSum of support reactions in Y -1310.20 kN Deviation 0.00%Sum of loads in Z 11838.00 kNSum of support reactions in Z 11838.00 kN Deviation 0.00%Resultant of reactions about X 5892.4 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3396.0 kNm At center of gravity of modelResultant of reactions about Z -1039.9 kNm At center of gravity of modelMax. displacement in X -3.9 mm FE Node No. 35 (X: -1.769, Y: 0.325, Z: -4.242 m)Max. displacement in Y -7.4 mm FE Node No. 589 (X: 1.915, Y: 0.750, Z: 5.211 m)Max. displacement in Z 2.5 mm Member No. 27, x: 0.503 mMax. vector displacement 8.1 mm FE Node No. 65 (X: 1.915, Y: -2.250, Z: 5.211 m)Max. rotation about X 0.5 mrad Member No. 27, x: 0.084 mMax. rotation about Y 0.4 mrad Member No. 4, x: 0.567 mMax. rotation about Z -0.5 mrad Member No. 4, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-M
Consider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2CO20 - ULS_aB_max_-ySum of loads in X -464.75 kNSum of support reactions in X -464.75 kN Deviation 0.00%Sum of loads in Y -2602.20 kNSum of support reactions in Y -2602.20 kN Deviation 0.00%Sum of loads in Z 11838.00 kNSum of support reactions in Z 11838.00 kN Deviation 0.00%Resultant of reactions about X -2705.0 kNm At center of gravity of model (X:-1.7, Y:1.0, Z:2.6 m)Resultant of reactions about Y -3392.0 kNm At center of gravity of modelResultant of reactions about Z 82.9 kNm At center of gravity of modelMax. displacement in X -4.6 mm FE Node No. 64 (X: 1.915, Y: 4.250, Z: 5.211 m)Max. displacement in Y -22.6 mm Member No. 29, x: 1.200 mMax. displacement in Z 3.0 mm Member No. 26, x: 0.503 mMax. vector displacement 23.0 mm Member No. 29, x: 1.200 mMax. rotation about X -1.2 mrad Member No. 26, x: 0.084 mMax. rotation about Y 0.4 mrad Member No. 2, x: 0.567 mMax. rotation about Z 0.9 mrad Member No. 2, x: 0.661 mMethod of analysis 2nd Order Second order analysis (Nonlinear, Timoshenko)
Internal forces referred to deformed system for... N, Vy, Vz, My, Mz, MT
Stiffness reduction by gamma-MConsider favorable effects of tensile forcesDivide results by CO factor Number of load increments 6Number of iterations 2SummaryMax. displacement in X -7.6 mm CO18, FE Node No. 32 (X: -1.769, Y: 1.675, Z: -4.242 m)Max. displacement in Y -22.6 mm CO20, Member No. 29, x: 1.200 mMax. displacement in Z 3.0 mm CO20, Member No. 26, x: 0.503 mMax. vector displacement 23.0 mm CO20, Member No. 29, x: 1.200 mMax. rotation about X -1.2 mrad CO20, Member No. 26, x: 0.084 mMax. rotation about Y 0.4 mrad CO20, Member No. 2, x: 0.567 mMax. rotation about Z 0.9 mrad CO20, Member No. 2, x: 0.661 mOther Settings Number of 1D finite elements : 154
Number of 2D finite elements : 1776Number of 3D finite elements : 0Number of FE mesh nodes : 1830Number of equations : 10980Max. number of iterations : 100Number of divisions for member results : 10Division of cable/foundation/tapered members : 10
Number of member divisions for searching maximum values : 10Subdivisions of FE mesh for graphical results : 0Percentage of iterations according to Picard method in combination withNewton-Raphson method
: 5 %
Activate ineffective supports :
Options Activate shear stiffness of members (Ay, Az) Activate member divisions for large deformation or post-critical analysis Activate entered stiffness modificationsIgnore rotational degrees of freedomCheck of critical forces of members
Method for the system of equations DirectIteration
Plate bending theory MindlinKirchhoff
Solver version 32-bit64-bit
Precision and Tolerance Change default setting
Nonlinear effects - Activate Support and elastic foundations
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
GLOBAL DEFORMATION UZ
MIN, RC1: SLS, IN Z-DIRECTION
0.9
Y
Z
X
Global Deformation
uZ [mm]
0.9
0.8
0.8
0.7
0.6
0.5
0.5
0.4
0.3
0.3
0.2
0.1
Max : 0.9Min : 0.1
IsometricRC1: SLSu-Z
Factor of deformations: 49.00Max u-Z: 0.9, Min u-Z: 0.1 [mm]
GLOBAL DEFORMATION UZ
MIN, RC1: SLS, IN Z-DIRECTION
GLOBAL DEFORMATION UZ
MAX, RC1: SLS, IN Z-DIRECTION
Z
X Y
2.2Global Deformation
uZ [mm]
2.2
2.0
1.9
1.8
1.6
1.5
1.4
1.2
1.1
1.0
0.8
0.7
Max : 2.2Min : 0.7
IsometricRC1: SLSu-Z
Factor of deformations: 49.00Max u-Z: 2.2, Min u-Z: 0.7 [mm]
GLOBAL DEFORMATION UZ
MAX, RC1: SLS, IN Z-DIRECTION
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
CONTACT STRESSES sz MIN, RC1: SLS, IN Z-DIRECTION
Z X
Y
Contact Stressess-z [kN/m2]
177.77
163.72
149.68
135.63
121.58
107.54
93.49
79.44
65.39
51.35
37.30
23.25
Max : 177.77Min : 23.25
In Z-directionRC1: SLSSurfaces Sigma-z
Surfaces Max Sigma-z: 177.77, Min Sigma-z: 23.25 [kN/m2]1.723 m
CONTACT STRESSES sz MIN, RC1: SLS, IN Z-DIRECTION
CONTACT STRESSES sz MAX, RC1: SLS, IN Z-DIRECTION
Z X
Y
Contact Stressess-z [kN/m2]
355.41
335.87
316.33
296.78
277.24
257.70
238.16
218.62
199.08
179.53
159.99
140.45
Max : 355.41Min : 140.45
In Z-directionRC1: SLSSurfaces Sigma-z
Surfaces Max Sigma-z: 355.41, Min Sigma-z: 140.45 [kN/m2]1.723 m
CONTACT STRESSES sz MAX, RC1: SLS, IN Z-DIRECTION
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Page: 146/157
RF-CONCRETE Surfaces
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
1.1 GENERAL DATA
Design according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATE
Result combination for design: RC2 ULSPersistent and Transient
DETAILS Analysis Method for Reinforcement Envelope Mixed Apply the averaged internal forces in the definedaverage region for the ULS calculation and for theanalytic method of SLS calculation.
Apply the internal forces without the rib components
1.2 MATERIALSMaterial Material Description
No. Concrete Strength Class Steel Description Comment1 Beton C16/20 B 365 / 270
1.3 SURFACES
Surface Matl. Thickness ThicknessNo. No. Type [cm] Notes Comment
1 1 Constant 70.003 1 Constant 70.004 1 Constant 70.005 1 Constant 70.006 1 Constant 70.007 1 Constant 70.008 1 Constant 70.009 1 Constant 70.00
10 1 Constant 70.0011 1 Constant 70.0012 1 Constant 70.00
1.4 REINFORCEMENT GROUP NO. 1 Applied to surfaces: All
REINFORCEMENT RATIOMinimum secondary reinforcement 20.0 %
Basic minimum reinforcement 0.0 %Minimum compression reinforcement 0.0 %Minimum tension reinforcement 0.0 %Maximum reinforcement percentage 4.0 %Minimum shear reinforcement percentage 0.0 %Concrete cover acc. to Standard
BASIC REINFORCEMENT LAYOUT - TOP (-z)Number of directions 2Cover to rebar centroid d-1: 5.70, d-2: 7.10 cmDirections of reinforcement Phi-1: 0.000°, Phi-2: 90.000°Reinforcement area As-1,-z (top): 10.26, As-2,-z (top): 10.26 cm2/m
BASIC REINFORCEMENT LAYOUT - BOTTOM (+z)Number of directions 2Cover to rebar centroid d-1: 5.70, d-2: 7.10 cmDirections of reinforcement Phi-1: 0.000°, Phi-2: 90.000°Reinforcement area As-1,+z (bottom): 10.26, As-2,+z (bottom): 10.26 cm2/m
LONGITUDINAL REINFORCEMENT FOR SHEAR FORCE DESIGN Apply required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1Minimum longitudinal reinforcement for plates acc. to 9.3.1Direction of minimum reinforcement Reinforcement direction with the main tensile force from top(-z) and bottom (+z) surfaces together:Minimum longitudinal reinforcement for walls acc. to 9.6Minimum shear reinforcementNeutral axis depth limitationVariable strut inclination - min 21.801 °Variable concrete strut inclination - max 45.000 °Partial safety factor gs PT 1.15, AC 1.00, SLS 1.00
Partial safety factor gc PT 1.50, AC 1.20, SLS 1.00
Consideration of long-term effects Alpha-cc PT 1.00, AC 1.00, SLS 1.00Consideration of long-term effects Alpha-ct SLS 1.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
IN Z-DIRECTION
Z X
Y
a-s,1,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 45.10Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,-z (top)
Surfaces Max a-s,1,-z (top): 45.10, Min a-s,1,-z (top): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
IN Z-DIRECTION
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
IN Z-DIRECTION
Z X
Y
a-s,2,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 51.83Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,-z (top)
Surfaces Max a-s,2,-z (top): 51.83, Min a-s,2,-z (top): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
IN Z-DIRECTION
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, IN Z-DIRECTION
X
Y
a-s,1,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 40.87Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,+z (bottom)
Surfaces Max a-s,1,+z (bottom): 40.87, Min a-s,1,+z (bottom): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, IN Z-DIRECTION
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, IN Z-DIRECTION
X
Y
a-s,2,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 70.71Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,+z (bottom)
Surfaces Max a-s,2,+z (bottom): 70.71, Min a-s,2,+z (bottom): 0.00 [cm2/m]1.724 m
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, IN Z-DIRECTION
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
ISOMETRIC
Z
XY
a-s,1,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 45.10Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,-z (top)
Surfaces Max a-s,1,-z (top): 45.10, Min a-s,1,-z (top): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,-z (top)
, CA1,
ISOMETRIC
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
ISOMETRIC
Z
XY
a-s,2,-z (top) [cm2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 51.83Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,-z (top)
Surfaces Max a-s,2,-z (top): 51.83, Min a-s,2,-z (top): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,-z (top)
, CA1,
ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, ISOMETRIC
Z
XY
a-s,1,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 40.87Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-s,1,+z (bottom)
Surfaces Max a-s,1,+z (bottom): 40.87, Min a-s,1,+z (bottom): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,1,+z (bottom)
,
CA1, ISOMETRIC
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, ISOMETRIC
Z
XY
a-s,2,+z (bottom)
[cm 2/m]
100.00
82.06
41.03
32.71
20.93
13.40
10.26
7.54
5.23
3.35
0.10
0.00
Max : 70.71Min : 0.00
IsometricRF-CONCRETE Surfaces CA1Stahlbeton-BemessungSurfaces a-s,2,+z (bottom)
Surfaces Max a-s,2,+z (bottom): 70.71, Min a-s,2,+z (bottom): 0.00 [cm2/m]
RF-CONCRETE SURFACES - REQUIRED REINFORCEMENT as,2,+z (bottom)
,
CA1, ISOMETRIC
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE SURFACES - SHEAR REINFORCEMENT asw
, CA1, IN
Z-DIRECTION
Z X
Y
Shear Reinforcement
a-sw [cm2/m2]
55.15
50.13
45.12
40.11
35.09
30.08
25.07
20.05
15.04
10.03
5.01
0.00
Max : 55.15Min : 0.00
In Z-directionRF-CONCRETE Surfaces CA1Stahlbeton-Bemessung
Surfaces a-sw
Surfaces Max a-sw: 55.15, Min a-sw: 0.00 [cm2/m2]1.56 m
RF-CONCRETE SURFACES - SHEAR REINFORCEMENT asw
, CA1, IN
Z-DIRECTION
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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RF-CONCRETE Members
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
1.1 GENERAL DATADesign according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATESResult combinations to design: RC2 ULS
Persistent and Transient
RF-CONCRETE Members
CA1
Stützenkopf
1.1 SETTINGS - NONLINEAR CALCULATION (STATE II) Activate nonlinear calculation for ULTIMATE LIMIT state:
Activate nonlinear calculation for SERVICEABILITY LIMIT state:
Activate nonlinear calculation for fire resistance
1.2 MATERIALSMatl. Material Description
No. Concrete Strength Class Reinforcing Steel Comment1 Concrete C16/20 B 365 / 270
1.3 CROSS-SECTIONSSection Matl. Cross-Section
No. No. Description Notes Comment3 1 Rectangle 65/70
Rectangle 65/70
1.6 REINFORCEMENT GROUP NO. 1 Applied to members: 2,4,26,27
LONGITUDINAL REINFORCEMENTPossible diameters: 16, 20, 26 mmMax. number of layers: 3Min. spacing for first layer: 40.0 mmMin. spacing for additional layers: 40.0 mmType of anchorage: Straight
Steel surface: RibbedReduction of reinforcement: None
SHEAR REINFORCEMENTPossible diameters: 10 mmNo. of cuts: 2Inclination: 90°Type of anchorage: HookLink layout: Uniform spacing throughout
REINFORCEMENT LAYOUTConcrete cover acc. to StandardConcrete cover c-top: 50.0 mmConcrete cover c-bottom: 50.0 mmConcrete cover c-side: 50.0 mmReinforcement layout: -z (top) - +z (bottom) (optimized distribution)Relevant internal forces: N, V-y, V-z, M-T, M-y, M-z
MINIMUM REINFORCEMENTMin. reinforcement area (min. A-s,top): 0.00 cm2
Min. reinforcement area (min. A-s,bottom): 0.00 cm2
Min. longitudinal reinforcement acc. to Standard:
Min. shear reinforcement acc. to Standard:Longitudinal reinforcement for shear force design: Use required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1:2004/AC:2010Max. percentage of reinforcement: 8.00 %Neutral axis depth limitationPartial safety factor Gamma-c PT 1.50, AC 1.20Partial safety factor Gamma-s PT 1.15, AC 1.00Reduction factor Alpha-cc PT 1.00, AC 1.00Reduction factor Alpha-ct PT 1.00, AC 1.00Design method for shear force: Optimization of the reinforcement areaMin. inclination of concrete strut 21.80 °Max. inclination of concrete strut 45.00 °Max. factor single forces near support 5.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, Required
Reinforcement As,+z (bottom)
, CA1, ISOMETRIC
5.65
4.55
25.77
22.59
11.4512.40
5.92
5.65
7.01
8.46
25.68
22.50
11.4312.38
6.95
8.43
RF-CONCRETE Members
A-s,-z (top)
A-s,+z (bottom)
IsometricRF-CONCRETE Members CA1
Stützenkopf Members
Max A-s,+z (bottom): 25.77 cm2Max A-s,-z (top): 12.40 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, Required
Reinforcement As,+z (bottom)
, CA1, ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA1, ISOMETRIC
0.16
0.21
0.20
0.25
0.15
0.18
0.27
RF-CONCRETE Members
A-s,T
IsometricRF-CONCRETE Members CA1Stützenkopf Members
Max A-s,T: 0.27 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA1, ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA1, ISOMETRIC
27.50
16.50
26.67
27.51 16.76
16.49
26.67
16.76
RF-CONCRETE Members
2*a-sw,T,link +a-sw,V,link
IsometricRF-CONCRETE Members CA1Stützenkopf
Members
Max 2*a-sw,T,link + a-sw,V,link: 27.51 cm2/m
RF-CONCRETE MEMBERS - Required Reinforcement 2*asw,T,link
+ asw,V,link
,
CA1, ISOMETRIC
1.1 GENERAL DATADesign according to Standard: EN 1992-1-1:2004
ULTIMATE LIMIT STATESResult combinations to design: RC2 ULS
Persistent and Transient
RF-CONCRETE Members
CA2
Stützen
1.1 SETTINGS - NONLINEAR CALCULATION (STATE II) Activate nonlinear calculation for ULTIMATE LIMIT state:
Activate nonlinear calculation for SERVICEABILITY LIMIT state:
Activate nonlinear calculation for fire resistance
1.2 MATERIALSMatl. Material Description
No. Concrete Strength Class Reinforcing Steel Comment1 Concrete C16/20 B 365 / 270
2 Concrete C16/20 B 365 / 270
1.3 CROSS-SECTIONSSection Matl. Cross-Section
No. No. Description Notes Comment3 1 Rectangle 65/705 2 Rectangle 65/70
Rectangle 65/70
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RF-CONCRETE Members
Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
1.6 REINFORCEMENT GROUP NO. 1 Applied to members: 1,3,5,6,9,15,19,23-25,28,29
LONGITUDINAL REINFORCEMENTPossible diameters: 26, 30 mmMax. number of layers: 1
Min. spacing for first layer: 20.0 mmType of anchorage: StraightSteel surface: RibbedReduction of reinforcement: None
SHEAR REINFORCEMENTPossible diameters: 14 mmNo. of cuts: 2Inclination: 90°Type of anchorage: HookLink layout: Uniform spacing throughout
REINFORCEMENT LAYOUTConcrete cover acc. to StandardConcrete cover c-top: 50.0 mmConcrete cover c-bottom: 50.0 mmConcrete cover c-side: 50.0 mmReinforcement layout: -z (top) - +z (bottom) (symmetrical
distribution)Relevant internal forces: N, V-y, V-z, M-T, M-y, M-z
MINIMUM REINFORCEMENT
Min. reinforcement area (min. A-s,top): 0.00 cm2
Min. reinforcement area (min. A-s,bottom): 0.00 cm2
Min. longitudinal reinforcement acc. to Standard:Min. shear reinforcement acc. to Standard:Longitudinal reinforcement for shear force design: Use required longitudinal reinforcement
OPTIONS FOR EN 1992-1-1:2004/AC:2010Max. percentage of reinforcement: 8.00 %Neutral axis depth limitationPartial safety factor Gamma-c PT 1.50, AC 1.20Partial safety factor Gamma-s PT 1.15, AC 1.00Reduction factor Alpha-cc PT 1.00, AC 1.00Reduction factor Alpha-ct PT 1.00, AC 1.00Design method for shear force: Standard methodMin. inclination of concrete strut 21.80 °Max. inclination of concrete strut 45.00 °Max. factor single forces near support 5.00
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, CA2,
ISOMETRIC
4.5511.01
6.71
6.71
5.60
6.02
5.60
5.60
6.90
6.71
6.71
5.92
Z
Y X
6.85
16.38
6.29
6.29
5.60
9.04
5.60
6.34
6.34
5.60
8.99RF-CONCRETE Members
A-s,-z (top)
IsometricRF-CONCRETE Members CA2Stützen
Members
Max A-s,-z (top): 16.38 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,-z (top)
, CA2,
ISOMETRIC
RF-CONCRETE MEMBERS - Required Reinforcement As,+z (bottom)
, CA2,
ISOMETRIC
4.55
11.01
5.60
5.60
16.38
6.71
6.71
6.02
X
Z
Y
6.29
6.71
6.71
5.92
5.60
9.04
6.34
8.99RF-CONCRETE Members
A-s,+z (bottom)
IsometricRF-CONCRETE Members CA2StützenMembers
Max A-s,+z (bottom): 16.38 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,+z (bottom)
, CA2,
ISOMETRIC
RFEM 5.02.0021 - General 3D structures solved using FEM www.dlubal.com
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Date: 09.08.2014Project: Tower 3 Model: W1316_Tower_3_DL_002
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA2, ISOMETRIC
1.91
2.01
1.68
0.56
9.99
1.66
1.66
0.57
8.42
6.92
1.98
1.98
Z
Y X
1.05
7.20
1.19
1.33
1.21
1.56
1.63
1.38
0.78
11.58
11.39
RF-CONCRETE Members
A-s,T
IsometricRF-CONCRETE Members CA2StützenMembers
Max A-s,T: 11.58 cm2
RF-CONCRETE MEMBERS - Required Reinforcement As,T
, CA2, ISOMETRIC