STATIC ANALYSIS / STRUCTURAL DESIGN GLASSCON SHADOGLASS LOUVERS SYSTEM

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Transcript:

STATIC ANALYSIS / STRUCTURAL DESIGN GLASSCON SHADOGLASS LOUVERS SYSTEM 1/28

CONTENTS 1. Technical Description - Assumptions... 3 1.1 Technical Description... 3 1.2 Design Standards and Norms... 3 1.3 Loads - Load Combinations... 4 1.4 Material Properties... 5 1.5 Stress and deflection limits... 5 2. Checks... 6 2.1 Glass Panels... 6 2.2 Connections... 6 3. Finite Element Model... 13 2/28

1. Technical Description - Assumptions 1.1 Technical Description The subject of the present study is the structural design of the louver system in EUROMEDICA Rehabilitation Center in Athens, Greece. Louvers consist of glass panels (1 Fully Tempered Glass Panel of 15mm thickness) supported by a system of aluminium and steel members. The whole louver system is bolted onto a steel UPN180 front beam, which is connected to cantilever IPE180 beams, anchored to concrete elements. Most unfavorable considerations are Building Height = 21.00m and Glass Panel Dimensions = 600x2620mm 2. The structure is modeled using the SAP2000 structural analysis software. 1.2 Design Standards and Norms ΕΛΟΤ ΕΝ 1990:2002 Basis of structural design ΕΛΟΤ ΕΝ 1990:2002/ΝΑ National Annex to ΕΛΟΤ ΕΝ 1990:2002 ΕΛΟΤ EN 1991-1-1:2002 General actions - Densities, self-weight, imposed loads for buildings ΕΛΟΤ EN 1991-1-1:2002/NA National Annex to ΕΛΟΤ EN 1991-1-1:2002 ΕΛΟΤ EN 1991-1-4:2005 General actions - Wind actions ΕΛΟΤ EN 1991-1-4:2005/NA National Annex to ΕΛΟΤ EN 1991-1-4:2005 ΕΛΟΤ EN 1993-1-1:2005 Design of steel structures - General rules and rules for buildings ΕΛΟΤ EN 1993-1-1:2005/NA National Annex to ΕΛΟΤ EN 1993-1-1:2005 ΕΛΟΤ EN 1993-1-8:2005 Design of steel structures - Design of joints ΕΛΟΤ EN 1993-1-8:2005/NA National Annex to ΕΛΟΤ EN 1993-1-8:2005 ΕΛΟΤ EN 1999-1-1:2007 Design of aluminium structures - General structural rules ΕΛΟΤ EN 1999-1-1:2007/NA National Annex to ΕΛΟΤ EN 1999-1-1:2007 pren 13474-3 Glass in building Determination of the determination of testing strength of glass panes Part 3: General method of calculation and strength of glass by 3/28

1.3 Loads - Load Combinations Wind loads according to ΕΝ 1991-1-4: Terrain Category IV (z0=1.00m) Structure height z=21.00m Wind velocity v b,0 = v b = 33 m/s Direction coefficient c dir = 1.00 Season coefficient c season = 1.00 Dynamic coefficient c sc d = 1.00 k r = 0.19 x (z 0/z 0,II)^0.07 = 0.234 c r(z) =k r x ln(z/z 0) = 0.713 Coefficient c 0(z) = 1.00 v m(z) = c r(z) x c 0(z) x v b = 23.543 m/sec Turbulence coefficient k I = 1.00 I v(z) = k I/ (c 0(z) x ln(z/z 0)) = 0.328 Wind pressure at peak velocity q p (z)=[1+7 I v (z)] 1/2 ρ v m (z) 2 =1.143kN/m 2 where ρ = 1.25 kg/m³ is the air density External pressure coefficients c p,e c p,e = 1.20 System self weight: 64.20 kg (for dimensions 600x2620 mm 2 ) The following combinations are considered: 1.35xG + 1.50W (Ultimate Limit State - ULS) G + W (Serviceability Limit State - SLS) 4/28

1.4 Material Properties Modulus of Elasticity E (GPa) Poisson Ratio ν (-) Density ρ (kg/m 3 ) Steel S235 210.0 0.30 7850.0 Stainless Steel SS304 (1.4301) 210.0 0.30 7900.0 Glass 70.0 0.23 2500.0 Aluminium alloy EN AW 6060 T6 70.0 0.30 2700.0 Bolts of quality 8.8, unless otherwise specified 1.5 Stress and deflection limits According to pren 13474-3, 5.3, Table 2, we obtain: γ MA,ULS = 1.80 γ MA,SLS = 1.00 The stress limit is calculated as following (pren 13474-3, 8.1.1, 8.1.2, 8.1,3): f g,d = k mod,c k sp f g,k γ Μ,Α, where k sp = 1.00, k mod,c = 0.740 f g,k = 120 N/mm 2 Thus we obtain: f g,d = 49.33 N/mm 2 The deflection limit is (pren 13474-3, 9.1.4): w max = min (L/65, 50 mm) = min (2.62/65, 50 mm) = 0.0403 m 5/28

2. Checks 2.1 Glass Panels Maximum Stress is 47.24 N/mm² < 49.33 N/mm² Maximum Deflection is 0.0390 m < 0.0403 m 2.2 Connections All connections calculations are presented in the following pages. 6/28

BRACKET TO PIVOT PLATE Shear Action VEd = 0,81 kn Number of Shear Planes 1 Number of Bolts 1 Diameter of Bolts d = 10,00 mm Bolt Material A2 fu = 500,00 MPa Plate Material 6060 T6 fu = 170,00 MPa Plate thickness tpl = 10,00 mm (extruded bracket profile is considered) Distance e1 = 12,50 mm Distance e2 = 20,00 mm Distance p1 = - mm Distance p2 = - mm Bolt Resistance Fv,Rd = 11,60 kn Bearing Resistance Fb,Rd = 12,92 kn CHECK Fv,Rd > VEd ok Fb,Rd > VEd ok 7/28

PIVOT PLATE TO MOTION PLATE Shear Action VEd = 5,39 kn Number of Shear Planes 1 Number of Bolts 1 Diameter of Bolts d = 8,00 mm Bolt Material A2 fu = 500,00 MPa Plate Material 6082 T651 fu = 310,00 MPa Plate thickness tpl = 5,00 mm Distance e1 = 11,00 mm Distance e2 = 11,00 mm Distance p1 = - mm Distance p2 = 22,00 mm Bolt Resistance Fv,Rd = 7,32 kn Bearing Resistance Fb,Rd = 6,96 kn CHECK Fv,Rd > VEd ok Fb,Rd > VEd ok 8/28

MOTION PLATE TO GUIDE PLATE Shear Action VEd = 3,15 kn Number of Shear Planes 1 Number of Bolts 1 Diameter of Bolts d = 8,00 mm Bolt Material A2 fu = 500,00 MPa Plate Material 6082 T651 fu = 310,00 MPa Plate thickness tpl = 5,00 mm Distance e1 = 18,00 mm Distance e2 = 18,00 mm Distance p1 = - mm Distance p2 = - mm Bolt Resistance Fv,Rd = 7,32 kn Bearing Resistance Fb,Rd = 16,54 kn CHECK Fv,Rd > VEd ok Fb,Rd > VEd ok 9/28

PIVOT PIN TO ALUMINIUM PROFILE 50x50x4 Shear Action VEd = 1,62 kn Number of Shear Planes 1 Number of Bolts 1 Diameter of Bolts d = 16,00 mm Bolt Material SS304 fu = 500,00 MPa Plate Material 6060 T6 fu = 170,00 MPa Plate thickness tpl = 4,00 mm Distance e1 = 25,00 mm Distance e2 = 25,00 mm Distance p1 = - mm Distance p2 = - mm Bolt Resistance Fv,Rd = 31,40 kn Bearing Resistance Fb,Rd = 8,73 kn CHECK Fv,Rd > VEd ok Fb,Rd > VEd ok 10/28

ALUMINIUM PROFILE 50x50x4 TO STEEL PROFILE UPN180 Shear Action VEd = 1,62 kn Number of Shear Planes 1 Number of Bolts 1 Diameter of Bolts d = 10,00 mm Bolt Material A2 fu = 500,00 MPa Plate Material 6060 T6 fu = 170,00 MPa Plate thickness tpl = 4,00 mm Distance e1 = 25,00 mm Distance e2 = 25,00 mm Distance p1 = - mm Distance p2 = - mm Bolt Resistance Fv,Rd = 11,60 kn Bearing Resistance Fb,Rd = 10,20 kn CHECK Fv,Rd > VEd ok Fb,Rd > VEd ok 11/28

MOTION PLATE BENDING Shear Reaction VEd = 3,05 kn Plate length Lpl = 0,136 m Equivalent uniform load qed = 44,92 kn/m Plate bending moment Msd = 0,104 knm Plate Material 6082 T651 fu = 310,00 MPa Plate width bpl = 36,00 mm Plate thickness tpl = 5,00 mm Plate bending resistance MRd = 0,304 mm CHECK MRd > Msd ok 12/28

3. FINITE ELEMENT MODEL 13/28

Glazed louvres.sdb 04/6/2015 SAP17.1.1 3D View KN, m, C 14/28

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Glazed louvres.sdb 04/6/2015 SAP17.1.1 Area Labe KN, m, C 16/28

Glazed louvres.sdb 04/6/2015 SAP17.1.1 Wind Loads KN, m, C 17/28

SAP2000 v17.1.1 6/4/15 22:55:50 Table: Material Properties 02 - Basic Mechanical Properties Material UnitWeight UnitMass E1 G12 U12 A1 KN/m3 KN-s2/m4 KN/m2 KN/m2 1/C glass 2,4517E+01 2,5000E+00 70000000,00 28455284,55 0,230000 9,0000E-06 Table: Area Section Properties, Part 1 of 4 Section Material MatAngle AreaType Type DrillDOF Thickness BendThick Arc Degrees m m Degrees T15-FT glass 0,000 Shell Shell-Thin Yes 0,015000 0,015000 Table: Area Section Properties, Part 2 of 4 Section InComp CoordSys Color TotalWt TotalMass F11Mod F22Mod KN KN-s2/m T15-FT Magenta 0,578 5,895E-02 1,000000 1,000000 Table: Area Section Properties, Part 3 of 4 Section F12Mod M11Mod M22Mod M12Mod V13Mod V23Mod MMod WMod T15-FT 1,000000 1,000000 1,000000 1,000000 1,000000 1,000000 1,000 1,000 Table: Area Section Properties, Part 4 of 4 Section GUID Notes T15-FT Added 25/5/2015 11:39:29 Table: Joint Coordinates, Part 1 of 2 Joint CoordSys CoordType XorR Y Z SpecialJt GlobalX m m m m 1 GLOBAL Cartesian 0,00000 0,00000 0,00000 No 0,00000 2 GLOBAL Cartesian 0,10000 0,00000 0,00000 No 0,10000 3 GLOBAL Cartesian 0,10000 0,00000 0,15500 No 0,10000 4 GLOBAL Cartesian 0,00000 0,00000 0,15500 No 0,00000 5 GLOBAL Cartesian 0,30000 0,00000 0,00000 No 0,30000 6 GLOBAL Cartesian 0,30000 0,00000 0,15500 No 0,30000 7 GLOBAL Cartesian 0,50000 0,00000 0,00000 No 0,50000 8 GLOBAL Cartesian 0,50000 0,00000 0,15500 No 0,50000 9 GLOBAL Cartesian 0,60000 0,00000 0,00000 No 0,60000 10 GLOBAL Cartesian 0,60000 0,00000 0,15500 No 0,60000 11 GLOBAL Cartesian 0,10000 0,00000 0,32000 No 0,10000 12 GLOBAL Cartesian 0,00000 0,00000 0,32000 No 0,00000 13 GLOBAL Cartesian 0,30000 0,00000 0,32000 No 0,30000 14 GLOBAL Cartesian 0,50000 0,00000 0,32000 No 0,50000 15 GLOBAL Cartesian 0,60000 0,00000 0,32000 No 0,60000 16 GLOBAL Cartesian 0,10000 0,00000 0,48500 No 0,10000 17 GLOBAL Cartesian 0,00000 0,00000 0,48500 No 0,00000 18 GLOBAL Cartesian 0,30000 0,00000 0,48500 No 0,30000 19 GLOBAL Cartesian 0,50000 0,00000 0,48500 No 0,50000 18/28

20 GLOBAL Cartesian 0,60000 0,00000 0,48500 No 0,60000 21 GLOBAL Cartesian 0,10000 0,00000 0,65000 No 0,10000 22 GLOBAL Cartesian 0,00000 0,00000 0,65000 No 0,00000 23 GLOBAL Cartesian 0,30000 0,00000 0,65000 No 0,30000 24 GLOBAL Cartesian 0,50000 0,00000 0,65000 No 0,50000 25 GLOBAL Cartesian 0,60000 0,00000 0,65000 No 0,60000 26 GLOBAL Cartesian 0,10000 0,00000 0,81500 No 0,10000 27 GLOBAL Cartesian 0,00000 0,00000 0,81500 No 0,00000 28 GLOBAL Cartesian 0,30000 0,00000 0,81500 No 0,30000 29 GLOBAL Cartesian 0,50000 0,00000 0,81500 No 0,50000 30 GLOBAL Cartesian 0,60000 0,00000 0,81500 No 0,60000 31 GLOBAL Cartesian 0,10000 0,00000 0,98000 No 0,10000 32 GLOBAL Cartesian 0,00000 0,00000 0,98000 No 0,00000 33 GLOBAL Cartesian 0,30000 0,00000 0,98000 No 0,30000 34 GLOBAL Cartesian 0,50000 0,00000 0,98000 No 0,50000 35 GLOBAL Cartesian 0,60000 0,00000 0,98000 No 0,60000 36 GLOBAL Cartesian 0,10000 0,00000 1,14500 No 0,10000 37 GLOBAL Cartesian 0,00000 0,00000 1,14500 No 0,00000 38 GLOBAL Cartesian 0,30000 0,00000 1,14500 No 0,30000 39 GLOBAL Cartesian 0,50000 0,00000 1,14500 No 0,50000 40 GLOBAL Cartesian 0,60000 0,00000 1,14500 No 0,60000 41 GLOBAL Cartesian 0,10000 0,00000 1,31000 No 0,10000 42 GLOBAL Cartesian 0,00000 0,00000 1,31000 No 0,00000 43 GLOBAL Cartesian 0,30000 0,00000 1,31000 No 0,30000 44 GLOBAL Cartesian 0,50000 0,00000 1,31000 No 0,50000 45 GLOBAL Cartesian 0,60000 0,00000 1,31000 No 0,60000 46 GLOBAL Cartesian 0,10000 0,00000 1,47500 No 0,10000 47 GLOBAL Cartesian 0,00000 0,00000 1,47500 No 0,00000 48 GLOBAL Cartesian 0,30000 0,00000 1,47500 No 0,30000 49 GLOBAL Cartesian 0,50000 0,00000 1,47500 No 0,50000 50 GLOBAL Cartesian 0,60000 0,00000 1,47500 No 0,60000 51 GLOBAL Cartesian 0,10000 0,00000 1,64000 No 0,10000 52 GLOBAL Cartesian 0,00000 0,00000 1,64000 No 0,00000 53 GLOBAL Cartesian 0,30000 0,00000 1,64000 No 0,30000 54 GLOBAL Cartesian 0,50000 0,00000 1,64000 No 0,50000 55 GLOBAL Cartesian 0,60000 0,00000 1,64000 No 0,60000 56 GLOBAL Cartesian 0,10000 0,00000 1,80500 No 0,10000 57 GLOBAL Cartesian 0,00000 0,00000 1,80500 No 0,00000 58 GLOBAL Cartesian 0,30000 0,00000 1,80500 No 0,30000 59 GLOBAL Cartesian 0,50000 0,00000 1,80500 No 0,50000 60 GLOBAL Cartesian 0,60000 0,00000 1,80500 No 0,60000 61 GLOBAL Cartesian 0,10000 0,00000 1,97000 No 0,10000 62 GLOBAL Cartesian 0,00000 0,00000 1,97000 No 0,00000 63 GLOBAL Cartesian 0,30000 0,00000 1,97000 No 0,30000 64 GLOBAL Cartesian 0,50000 0,00000 1,97000 No 0,50000 65 GLOBAL Cartesian 0,60000 0,00000 1,97000 No 0,60000 66 GLOBAL Cartesian 0,10000 0,00000 2,13500 No 0,10000 67 GLOBAL Cartesian 0,00000 0,00000 2,13500 No 0,00000 68 GLOBAL Cartesian 0,30000 0,00000 2,13500 No 0,30000 69 GLOBAL Cartesian 0,50000 0,00000 2,13500 No 0,50000 70 GLOBAL Cartesian 0,60000 0,00000 2,13500 No 0,60000 71 GLOBAL Cartesian 0,10000 0,00000 2,30000 No 0,10000 72 GLOBAL Cartesian 0,00000 0,00000 2,30000 No 0,00000 73 GLOBAL Cartesian 0,30000 0,00000 2,30000 No 0,30000 74 GLOBAL Cartesian 0,50000 0,00000 2,30000 No 0,50000 75 GLOBAL Cartesian 0,60000 0,00000 2,30000 No 0,60000 76 GLOBAL Cartesian 0,10000 0,00000 2,46500 No 0,10000 77 GLOBAL Cartesian 0,00000 0,00000 2,46500 No 0,00000 78 GLOBAL Cartesian 0,30000 0,00000 2,46500 No 0,30000 79 GLOBAL Cartesian 0,50000 0,00000 2,46500 No 0,50000 80 GLOBAL Cartesian 0,60000 0,00000 2,46500 No 0,60000 81 GLOBAL Cartesian 0,10000 0,00000 2,62000 No 0,10000 82 GLOBAL Cartesian 0,00000 0,00000 2,62000 No 0,00000 83 GLOBAL Cartesian 0,30000 0,00000 2,62000 No 0,30000 84 GLOBAL Cartesian 0,50000 0,00000 2,62000 No 0,50000 85 GLOBAL Cartesian 0,60000 0,00000 2,62000 No 0,60000 86 GLOBAL Cartesian 0,20000 0,00000 0,00000 No 0,20000 87 GLOBAL Cartesian 0,20000 0,00000 0,15500 No 0,20000 88 GLOBAL Cartesian 0,40000 0,00000 0,00000 No 0,40000 89 GLOBAL Cartesian 0,40000 0,00000 0,15500 No 0,40000 90 GLOBAL Cartesian 0,20000 0,00000 0,32000 No 0,20000 19/28

91 GLOBAL Cartesian 0,40000 0,00000 0,32000 No 0,40000 92 GLOBAL Cartesian 0,20000 0,00000 0,48500 No 0,20000 93 GLOBAL Cartesian 0,40000 0,00000 0,48500 No 0,40000 94 GLOBAL Cartesian 0,20000 0,00000 0,65000 No 0,20000 95 GLOBAL Cartesian 0,40000 0,00000 0,65000 No 0,40000 96 GLOBAL Cartesian 0,20000 0,00000 0,81500 No 0,20000 97 GLOBAL Cartesian 0,40000 0,00000 0,81500 No 0,40000 98 GLOBAL Cartesian 0,20000 0,00000 0,98000 No 0,20000 99 GLOBAL Cartesian 0,40000 0,00000 0,98000 No 0,40000 100 GLOBAL Cartesian 0,20000 0,00000 1,14500 No 0,20000 101 GLOBAL Cartesian 0,40000 0,00000 1,14500 No 0,40000 102 GLOBAL Cartesian 0,20000 0,00000 1,31000 No 0,20000 103 GLOBAL Cartesian 0,40000 0,00000 1,31000 No 0,40000 104 GLOBAL Cartesian 0,20000 0,00000 1,47500 No 0,20000 105 GLOBAL Cartesian 0,40000 0,00000 1,47500 No 0,40000 106 GLOBAL Cartesian 0,20000 0,00000 1,64000 No 0,20000 107 GLOBAL Cartesian 0,40000 0,00000 1,64000 No 0,40000 108 GLOBAL Cartesian 0,20000 0,00000 1,80500 No 0,20000 109 GLOBAL Cartesian 0,40000 0,00000 1,80500 No 0,40000 110 GLOBAL Cartesian 0,20000 0,00000 1,97000 No 0,20000 111 GLOBAL Cartesian 0,40000 0,00000 1,97000 No 0,40000 112 GLOBAL Cartesian 0,20000 0,00000 2,13500 No 0,20000 113 GLOBAL Cartesian 0,40000 0,00000 2,13500 No 0,40000 114 GLOBAL Cartesian 0,20000 0,00000 2,30000 No 0,20000 115 GLOBAL Cartesian 0,40000 0,00000 2,30000 No 0,40000 116 GLOBAL Cartesian 0,20000 0,00000 2,46500 No 0,20000 117 GLOBAL Cartesian 0,40000 0,00000 2,46500 No 0,40000 118 GLOBAL Cartesian 0,20000 0,00000 2,62000 No 0,20000 119 GLOBAL Cartesian 0,40000 0,00000 2,62000 No 0,40000 Table: Joint Coordinates, Part 2 of 2 Joint GlobalY GlobalZ GUID m m 1 0,00000 0,00000 2 0,00000 0,00000 3 0,00000 0,15500 4 0,00000 0,15500 5 0,00000 0,00000 6 0,00000 0,15500 7 0,00000 0,00000 8 0,00000 0,15500 9 0,00000 0,00000 10 0,00000 0,15500 11 0,00000 0,32000 12 0,00000 0,32000 13 0,00000 0,32000 14 0,00000 0,32000 15 0,00000 0,32000 16 0,00000 0,48500 17 0,00000 0,48500 18 0,00000 0,48500 19 0,00000 0,48500 20 0,00000 0,48500 21 0,00000 0,65000 22 0,00000 0,65000 23 0,00000 0,65000 24 0,00000 0,65000 25 0,00000 0,65000 26 0,00000 0,81500 27 0,00000 0,81500 28 0,00000 0,81500 29 0,00000 0,81500 30 0,00000 0,81500 31 0,00000 0,98000 32 0,00000 0,98000 33 0,00000 0,98000 34 0,00000 0,98000 35 0,00000 0,98000 36 0,00000 1,14500 37 0,00000 1,14500 20/28

38 0,00000 1,14500 39 0,00000 1,14500 40 0,00000 1,14500 41 0,00000 1,31000 42 0,00000 1,31000 43 0,00000 1,31000 44 0,00000 1,31000 45 0,00000 1,31000 46 0,00000 1,47500 47 0,00000 1,47500 48 0,00000 1,47500 49 0,00000 1,47500 50 0,00000 1,47500 51 0,00000 1,64000 52 0,00000 1,64000 53 0,00000 1,64000 54 0,00000 1,64000 55 0,00000 1,64000 56 0,00000 1,80500 57 0,00000 1,80500 58 0,00000 1,80500 59 0,00000 1,80500 60 0,00000 1,80500 61 0,00000 1,97000 62 0,00000 1,97000 63 0,00000 1,97000 64 0,00000 1,97000 65 0,00000 1,97000 66 0,00000 2,13500 67 0,00000 2,13500 68 0,00000 2,13500 69 0,00000 2,13500 70 0,00000 2,13500 71 0,00000 2,30000 72 0,00000 2,30000 73 0,00000 2,30000 74 0,00000 2,30000 75 0,00000 2,30000 76 0,00000 2,46500 77 0,00000 2,46500 78 0,00000 2,46500 79 0,00000 2,46500 80 0,00000 2,46500 81 0,00000 2,62000 82 0,00000 2,62000 83 0,00000 2,62000 84 0,00000 2,62000 85 0,00000 2,62000 86 0,00000 0,00000 87 0,00000 0,15500 88 0,00000 0,00000 89 0,00000 0,15500 90 0,00000 0,32000 91 0,00000 0,32000 92 0,00000 0,48500 93 0,00000 0,48500 94 0,00000 0,65000 95 0,00000 0,65000 96 0,00000 0,81500 97 0,00000 0,81500 98 0,00000 0,98000 99 0,00000 0,98000 100 0,00000 1,14500 101 0,00000 1,14500 102 0,00000 1,31000 103 0,00000 1,31000 104 0,00000 1,47500 105 0,00000 1,47500 106 0,00000 1,64000 107 0,00000 1,64000 108 0,00000 1,80500 21/28

109 0,00000 1,80500 110 0,00000 1,97000 111 0,00000 1,97000 112 0,00000 2,13500 113 0,00000 2,13500 114 0,00000 2,30000 115 0,00000 2,30000 116 0,00000 2,46500 117 0,00000 2,46500 118 0,00000 2,62000 119 0,00000 2,62000 Table: Connectivity - Area, Part 1 of 2 Area NumJoints Joint1 Joint2 Joint3 Joint4 Perimeter AreaArea m m2 1 4 1 2 3 4 0,510000 0,015500 4 4 7 9 10 8 0,510000 0,015500 5 4 4 3 11 12 0,530000 0,016500 8 4 8 10 15 14 0,530000 0,016500 9 4 12 11 16 17 0,530000 0,016500 12 4 14 15 20 19 0,530000 0,016500 13 4 17 16 21 22 0,530000 0,016500 16 4 19 20 25 24 0,530000 0,016500 17 4 22 21 26 27 0,530000 0,016500 20 4 24 25 30 29 0,530000 0,016500 21 4 27 26 31 32 0,530000 0,016500 24 4 29 30 35 34 0,530000 0,016500 25 4 32 31 36 37 0,530000 0,016500 28 4 34 35 40 39 0,530000 0,016500 29 4 37 36 41 42 0,530000 0,016500 32 4 39 40 45 44 0,530000 0,016500 33 4 42 41 46 47 0,530000 0,016500 36 4 44 45 50 49 0,530000 0,016500 37 4 47 46 51 52 0,530000 0,016500 40 4 49 50 55 54 0,530000 0,016500 41 4 52 51 56 57 0,530000 0,016500 44 4 54 55 60 59 0,530000 0,016500 45 4 57 56 61 62 0,530000 0,016500 48 4 59 60 65 64 0,530000 0,016500 49 4 62 61 66 67 0,530000 0,016500 52 4 64 65 70 69 0,530000 0,016500 53 4 67 66 71 72 0,530000 0,016500 56 4 69 70 75 74 0,530000 0,016500 57 4 72 71 76 77 0,530000 0,016500 60 4 74 75 80 79 0,530000 0,016500 61 4 77 76 81 82 0,510000 0,015500 64 4 79 80 85 84 0,510000 0,015500 65 4 2 86 87 3 0,510000 0,015500 66 4 86 5 6 87 0,510000 0,015500 67 4 5 88 89 6 0,510000 0,015500 68 4 88 7 8 89 0,510000 0,015500 69 4 3 87 90 11 0,530000 0,016500 70 4 87 6 13 90 0,530000 0,016500 71 4 6 89 91 13 0,530000 0,016500 72 4 89 8 14 91 0,530000 0,016500 73 4 11 90 92 16 0,530000 0,016500 74 4 90 13 18 92 0,530000 0,016500 75 4 13 91 93 18 0,530000 0,016500 76 4 91 14 19 93 0,530000 0,016500 77 4 16 92 94 21 0,530000 0,016500 78 4 92 18 23 94 0,530000 0,016500 79 4 18 93 95 23 0,530000 0,016500 80 4 93 19 24 95 0,530000 0,016500 81 4 21 94 96 26 0,530000 0,016500 82 4 94 23 28 96 0,530000 0,016500 83 4 23 95 97 28 0,530000 0,016500 84 4 95 24 29 97 0,530000 0,016500 85 4 26 96 98 31 0,530000 0,016500 22/28

86 4 96 28 33 98 0,530000 0,016500 87 4 28 97 99 33 0,530000 0,016500 88 4 97 29 34 99 0,530000 0,016500 89 4 31 98 100 36 0,530000 0,016500 90 4 98 33 38 100 0,530000 0,016500 91 4 33 99 101 38 0,530000 0,016500 92 4 99 34 39 101 0,530000 0,016500 93 4 36 100 102 41 0,530000 0,016500 94 4 100 38 43 102 0,530000 0,016500 95 4 38 101 103 43 0,530000 0,016500 96 4 101 39 44 103 0,530000 0,016500 97 4 41 102 104 46 0,530000 0,016500 98 4 102 43 48 104 0,530000 0,016500 99 4 43 103 105 48 0,530000 0,016500 100 4 103 44 49 105 0,530000 0,016500 101 4 46 104 106 51 0,530000 0,016500 102 4 104 48 53 106 0,530000 0,016500 103 4 48 105 107 53 0,530000 0,016500 104 4 105 49 54 107 0,530000 0,016500 105 4 51 106 108 56 0,530000 0,016500 106 4 106 53 58 108 0,530000 0,016500 107 4 53 107 109 58 0,530000 0,016500 108 4 107 54 59 109 0,530000 0,016500 109 4 56 108 110 61 0,530000 0,016500 110 4 108 58 63 110 0,530000 0,016500 111 4 58 109 111 63 0,530000 0,016500 112 4 109 59 64 111 0,530000 0,016500 113 4 61 110 112 66 0,530000 0,016500 114 4 110 63 68 112 0,530000 0,016500 115 4 63 111 113 68 0,530000 0,016500 116 4 111 64 69 113 0,530000 0,016500 117 4 66 112 114 71 0,530000 0,016500 118 4 112 68 73 114 0,530000 0,016500 119 4 68 113 115 73 0,530000 0,016500 120 4 113 69 74 115 0,530000 0,016500 121 4 71 114 116 76 0,530000 0,016500 122 4 114 73 78 116 0,530000 0,016500 123 4 73 115 117 78 0,530000 0,016500 124 4 115 74 79 117 0,530000 0,016500 125 4 76 116 118 81 0,510000 0,015500 126 4 116 78 83 118 0,510000 0,015500 127 4 78 117 119 83 0,510000 0,015500 128 4 117 79 84 119 0,510000 0,015500 23/28

Table: Connectivity - Area, Part 2 of 2 Area Volume CentroidX CentroidY CentroidZ GUID m3 m m m 1 0,000233 0,05000 0,00000 0,07750 4 0,000233 0,55000 0,00000 0,07750 5 0,000248 0,05000 0,00000 0,23750 8 0,000248 0,55000 0,00000 0,23750 9 0,000248 0,05000 0,00000 0,40250 12 0,000248 0,55000 0,00000 0,40250 13 0,000248 0,05000 0,00000 0,56750 16 0,000248 0,55000 0,00000 0,56750 17 0,000248 0,05000 0,00000 0,73250 20 0,000248 0,55000 0,00000 0,73250 21 0,000248 0,05000 0,00000 0,89750 24 0,000248 0,55000 0,00000 0,89750 25 0,000248 0,05000 0,00000 1,06250 28 0,000248 0,55000 0,00000 1,06250 29 0,000248 0,05000 0,00000 1,22750 32 0,000248 0,55000 0,00000 1,22750 33 0,000248 0,05000 0,00000 1,39250 36 0,000248 0,55000 0,00000 1,39250 37 0,000248 0,05000 0,00000 1,55750 40 0,000248 0,55000 0,00000 1,55750 41 0,000248 0,05000 0,00000 1,72250 44 0,000248 0,55000 0,00000 1,72250 45 0,000248 0,05000 0,00000 1,88750 48 0,000248 0,55000 0,00000 1,88750 49 0,000248 0,05000 0,00000 2,05250 52 0,000248 0,55000 0,00000 2,05250 53 0,000247 0,05000 0,00000 2,21750 56 0,000247 0,55000 0,00000 2,21750 57 0,000248 0,05000 0,00000 2,38250 60 0,000248 0,55000 0,00000 2,38250 61 0,000233 0,05000 0,00000 2,54250 64 0,000233 0,55000 0,00000 2,54250 65 0,000233 0,15000 0,00000 0,07750 66 0,000233 0,25000 0,00000 0,07750 67 0,000233 0,35000 0,00000 0,07750 68 0,000233 0,45000 0,00000 0,07750 69 0,000248 0,15000 0,00000 0,23750 70 0,000248 0,25000 0,00000 0,23750 71 0,000248 0,35000 0,00000 0,23750 72 0,000248 0,45000 0,00000 0,23750 73 0,000248 0,15000 0,00000 0,40250 74 0,000248 0,25000 0,00000 0,40250 75 0,000248 0,35000 0,00000 0,40250 76 0,000248 0,45000 0,00000 0,40250 77 0,000248 0,15000 0,00000 0,56750 78 0,000248 0,25000 0,00000 0,56750 79 0,000248 0,35000 0,00000 0,56750 80 0,000248 0,45000 0,00000 0,56750 81 0,000248 0,15000 0,00000 0,73250 82 0,000248 0,25000 0,00000 0,73250 83 0,000248 0,35000 0,00000 0,73250 84 0,000248 0,45000 0,00000 0,73250 85 0,000248 0,15000 0,00000 0,89750 86 0,000248 0,25000 0,00000 0,89750 87 0,000248 0,35000 0,00000 0,89750 88 0,000248 0,45000 0,00000 0,89750 89 0,000248 0,15000 0,00000 1,06250 90 0,000248 0,25000 0,00000 1,06250 91 0,000248 0,35000 0,00000 1,06250 92 0,000248 0,45000 0,00000 1,06250 93 0,000248 0,15000 0,00000 1,22750 94 0,000248 0,25000 0,00000 1,22750 95 0,000248 0,35000 0,00000 1,22750 96 0,000248 0,45000 0,00000 1,22750 24/28

97 0,000248 0,15000 0,00000 1,39250 98 0,000248 0,25000 0,00000 1,39250 99 0,000248 0,35000 0,00000 1,39250 100 0,000248 0,45000 0,00000 1,39250 101 0,000248 0,15000 0,00000 1,55750 102 0,000248 0,25000 0,00000 1,55750 103 0,000248 0,35000 0,00000 1,55750 104 0,000248 0,45000 0,00000 1,55750 105 0,000248 0,15000 0,00000 1,72250 106 0,000248 0,25000 0,00000 1,72250 107 0,000248 0,35000 0,00000 1,72250 108 0,000248 0,45000 0,00000 1,72250 109 0,000248 0,15000 0,00000 1,88750 110 0,000248 0,25000 0,00000 1,88750 111 0,000248 0,35000 0,00000 1,88750 112 0,000248 0,45000 0,00000 1,88750 113 0,000248 0,15000 0,00000 2,05250 114 0,000248 0,25000 0,00000 2,05250 115 0,000248 0,35000 0,00000 2,05250 116 0,000248 0,45000 0,00000 2,05250 117 0,000247 0,15000 0,00000 2,21750 118 0,000247 0,25000 0,00000 2,21750 119 0,000247 0,35000 0,00000 2,21750 120 0,000247 0,45000 0,00000 2,21750 121 0,000248 0,15000 0,00000 2,38250 122 0,000248 0,25000 0,00000 2,38250 123 0,000248 0,35000 0,00000 2,38250 124 0,000248 0,45000 0,00000 2,38250 125 0,000233 0,15000 0,00000 2,54250 126 0,000233 0,25000 0,00000 2,54250 127 0,000233 0,35000 0,00000 2,54250 128 0,000233 0,45000 0,00000 2,54250 Table: Load Pattern Definitions Notes LoadPat DesignType SelfWtMult AutoLoad GUID DEAD DEAD 1,000000 W WIND 0,000000 None Table: Combination Definitions, Part 1 of 3 ComboName ComboType AutoDesign CaseType CaseName ScaleFactor SteelDesign ULS Linear Add No Linear Static DEAD 1,350000 None ULS Linear Static W 1,500000 SLS Linear Add No Linear Static DEAD 1,000000 None SLS Linear Static W 1,000000 Table: Combination Definitions, Part 2 of 3 ComboName CaseName ConcDesign AlumDesign ColdDesign 25/28

ULS DEAD None None None ULS W SLS DEAD None None None SLS W Table: Combination Definitions, Part 3 of 3 ComboName CaseName GUID Notes ULS ULS SLS SLS DEAD W DEAD W 26/28

Glazed louvres.sdb 04/6/2015 SAP17.1.1 Stresses S22 (ULS) KN, m, C 27/28

Glazed louvres.sdb 04/6/2015 SAP17.1.1 Joint Displacements (SLS) KN, m, C 28/28