OSVC_Meta-Data based Simulation Automation to overcome Verification Challenge...
6.pptx
1. CONTENTS
Abstract of the Project
Methodology
Introduction
Planning Details
Structural Designs
Conclusion
2. ABSTRACT
• Our project deals with the planning, analysis
and design of Marriage hall
• A Marriage hall an essential construction in the
town as located on udumalpet.
• The total building area will be at 6000 Sq.ft
• Our project comprises marriage hall, kitchen,
Bride & toilets, dining hall and management
room.
3. INTRODUCTION
• A building should be planned to make it
comfortable, economical and to meet all the
requirements of the dwellers.
• Functionality, utility, cost, habits, taste and
requirements.It should also be considered in
planning a building.
• The planning of this commercial building is so
planned to meet out all the above factors.
4. STRUCTURAL ASPECTS
Venue - Udumalpet
Type of structure - Marriage hall
No.of storey - G+1
Area of ground floor - 6000 sq.ft
Area of first floor - 6000 sq.ft
Floor height - 3m
Outer wall thickness - 230 mm
Partition wall thickness - 115 mm
Material grade - M20 ,Fe415
8. STRUCTURAL DESIGN
DESIGN OF SLAB
Slab size = 5m x 13m
It is designed as a one way continuous slab
Effective depth of slab = 195 mm
Overall depth of span = 220 mm
Load Calculation
Total load = 10.5 kN/m²
Design load = 15.75 kN/m²
10. Nominal Shear force
τᵥ = 0.18 N/mm²
τc = 0.48 N/mm²
Ks * τc>τᵥ
Hence safe in shear
Check for Deflection
deff < d
Hence the deflection is Safe
11. DESIGN OF BEAM
Dimension calculation
d = 1100 mm
D = 1150 mm
Effective span(L)= 13300 mm
Load calculation
Total load = 28.25 kN/m
Factored load = 42.5 kN/m
12. Bending Moment and Shear Force
Mᵤ = 642 kN.m
Vu = 187 KN
Tension Reinforcement
Mᵤ< Mᵤ(limit)
Mᵤ(limit)=1001 kN.m
So,provide singly reinforced.
Ast= 3000 mm²
Provide 16 mm diameter,4 bars at 10 mm
spacing for c/c distance
13. Check for shear
τᵥ=0.56N/mm²
τc =0.36N/mm²
τᵥ < τc
Hence shear in safe
Check for deflection
(I/d)max>(I/d)actual
Hence safe.
14. DESIGN OF COLUMN
Size of column = Uniaxial column
Dimensions
Size of column=300mmx600mm
Ultimate load=800kN
Area of steel required = 2160 𝑚𝑚2
15. Main reinforcement details
16 mm dia bars with 40 mm clear cover
d¹/D = 0.11
From chart SP16 d¹/D = 0.1 will be used
Pᵤ/fck bd = 0.12
Mᵤ/fck bd² = 0.119
P/fck = 0.06
P = 1.20%²
Provide 6 Nos of 20mm dia bars
17. DESIGN OF FOOTING
Size of Column = 300 mm x 500 mm
Ultimate load = 1500kN
Safe bearing capacity of Soil = 185 kN/m²
Grade of Concrete = M20
Grade of Steel = Fe 415
18. Area of footing
A = 8.91 m²
B = 1.89m
L = 3.15m
Size of footing = 2.75mx1.65m
Upward Pressure
Wu = Load acting on footing without
self weight / (Area of footing)
Wu = 277.5 kN/m²
19. Factored B.M for XX (longer direction)
Mux = 195 kNm
Factored B.M for YY (shorter direction)
Muy = 90 kNm
Tension reinforcement ( for shorter direction)
Ast = 465 mm²
Provide 16 mm dia bars spacing 150 mm c/c
Tension reinforcement ( for longer direction)
Ast = 1025 mm²
Provide of 16 mm dia bars spacing 160 mm c/c
20. Check for shear
τc= 0.33N/mm²
Pt= 0.28N/mm²
τv= 0.32N/mm²
Kτc>τv
Hence, shear with in the limit.
21. CONCLUSION
• Analysis of frame is carried out by STADD PRO software.
• The design adopted is limit state method M20 grade of concrete
and Fe 415 grade of steel are used.
• All structural elements are designed as under reinforced section.
• The design of slabs, beams, column and footing were done.
• All the drawings presented in this project report was drafted using
AUTO CADD
• The beams have been designed by taking maximum bending
moment of analysis results.
• We do our best in our potential and hard work in our project.
• We gain lot of experience and knowledge form this project.