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Analysis and design of hebron cultural center

An-Najah National University Faculty of Engineering Civil Engineering Department. Analysis and design of hebron cultural center. Supervisor: Eng.Ibraheem Irman. Prepared by: Hazim Abu Alrob Imad Malayshi Sameer Tamimi. Project description:.

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Analysis and design of hebron cultural center

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  1. An-Najah National University Faculty of Engineering Civil Engineering Department Analysis and design ofhebron cultural center Supervisor: Eng.IbraheemIrman Prepared by: Hazim Abu Alrob ImadMalayshi SameerTamimi

  2. Project description: The project is located in Hebron city on level land beside Polytechnic University, this land belongs to the Association of university.

  3. Site Plan

  4. Basement Floor Area = (771 m²)

  5. Ground Floor Area = (887 m ²)

  6. First Floor Area = (762 m ²)

  7. Materials: • Structural materials: Concrete : f’c= 240 kg/cm² Ec= 15100√240 = 2.34X105 kg/cm². • Reinforcing Steel: The yield strength of steel is equal to 4200 Kg/cm2 Es = 2.04*106 Kg/cm².

  8. Materials: • None structural materials: • Blocks • Plaster • Tiles • Filling materials under tiles • Masonry stones.

  9. Loads: • Live loads: (L.L) = 4.8 KN/m² ……………. Table 16_A in (UBC97) • Dead load includes : Own weight. Super imposed = 4 KN/m²(on slab 32cm) Super imposed = 5 KN/m²(on slab 25cm) • Seismic loads: Design parameter uses as follow: • Seismic zone factor (Z)=0.15 • Soil type Sc : very dense soil • The important factor (I)=1 • The factor Ca=0.18 • The factor Cv=0.25 • The response modification factor R=5.5 (intermediate frames)

  10. Codes and standard • ACI - 318 – 08 • UBC- 97 • IBC -2009

  11. Load combination • Combination 1: 1.2DL+1.6LL • Combination 2: 1.2DL+1.6LL+1.4E • Combination 3: 0.9DL-1E • Combination 4: 0.9DL+1E • Combination 5: 1.2DL+1LL-1E • Combination 6: 1.2DL+1LL+1E • Combination 7: 1.4DL

  12. Structural System 32cm 25 cm

  13. Thickness of slab

  14. For slab 32 cm thicknesses:

  15. Thickness of slab • For slab 25 cm thicknesses:

  16. Preliminary Design • Super imposed (S.I) = (5KN/m²) • Live load (L.L) = 4.8 KN/m² • For slab thickness = 25cm

  17. Preliminary Design(Sample Calculations) • Design of Rib 2: Load assignment (kN/m) Shear Force Diagram (S.F.D KN/m)

  18. Preliminary Design(Sample Calculations) Bending Moment Diagram (KN.m) Area of steel (cm2)

  19. 3D – Structural Analysis and Design

  20. Compatibility

  21. Check equilibrium:

  22. Check equilibrium: • Dead loads %Error = • live load = 10607.89 KN %Error = 0% ok

  23. Design of slabs as 3D • Ribs is designed by taking results from sap • Representative Sample of ribs is designed • Basement floor two sample. • Ground floor three sample. • First floor three sample. • Modification factors is used

  24. Slab modification factors for slab 32 cm,25cm.

  25. Moment diagram M11 (Basement):

  26. Moment diagram M11 (Ground floor):

  27. Moment diagram M11 (First floor):

  28. Moment diagram M11 (Whole building):

  29. Design of beams: Beams are classified into three types:- • Hidden beams , with depth equal to the slab depth • Drop beams, with depth greater than the slab depth. • Tie beams used at ground level.

  30. Design of beams • Beams section: B40*32, B40*40, B40*55, B40*60, B40*70, B40*80, B40*90, B40*100 • Beams modification factor: Moment of inertia 2-axise =0.35 Moment of inertia 3-axise =0.35

  31. Design procedure B3 at basement

  32. Column Design

  33. Design of basement walls • M-ve= 12.288ton. ρ=0.0055 As=13.8cm2 (1Ø18 /15cm) • M+ve = 6.144ton. ρ=0.003 As=6.6cm2 (1sØ14 /15cm)

  34. Design of Footings Assume Bearing capacity for soil=40Kg/cm². Design of single footings:

  35. Design of Footings Design of wall footings:

  36. Design of staircase For slab: M+ve=12.6KN.m Use 1𝜙14 /15 cm In both direction For stairs: M+ve=3.12KN.m M-ve=16KN.m Use 1𝜙14 /15 cm In both direction

  37. Thanks for listening

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