CONTENT OF PRESENTATION
• ABSTRACT
• INTRODUCTION
• METHODOLOGY
• PLAN DETAILS
• MANUAL DESIGN CALCULATIONS
• REINFORCEMENT DETAILING
• STAAD.PRO ANALYSIS
• REFERENCES
• CONCLUSION
ABSTRACT
ABSTRACT
 Our project deals with the Planning, Analysis and Design of a Multi-
Speciality Hospital Building. We took this as our project for theoretical
knowledge in the areas of planning and design.
 “HEALTH IS WEALTH” so hospital is an essential thing for man happy
life. We have proposed to execute our project at gomangalamputhur. Our
project comprises of ground floor, first floor and second floor.
 Hospital consist doctors to checking patients for multi-disease, health check
up and surgical operations. In our project, consultant rooms are separately
available for all diseases.
 Basically the hospital building which is more important. Our project serves
to be useful for the public. Special arrangements have been made for the
emergency service and provide the fire safety, emergency exit for the safety
of public.
INTRODUCTION
INTRODUCTION
“Construction is the important aspect of civil Engineering”. Mankind has
been evolving different kinds of environment with the change and time.
Our project deals with planning, analysis and design of Multi-
Speciality Hospital Building. The proposed site of the hospital building is
located at Gomangalamputhur.
In this project, a two storey building (G+2) has been designed in
detail for a framed connection.
The ground floor consists of administrative office, store, pharmacy,
consultancy room, OP ward, doctor’s room, etc.,
The first floor consist of general wards, consultancy rooms,
operation theatre, emergency ward, etc., The second floor consist of general
wards, special wards, etc.,
The structural aspects
LOCATION : Gomangalamputhur
NAME OF STRUCTURE : Hospital building
FLOOR AREA : 25,400 sq.ft
PLINTH AREA : 17,500 sq.ft
FLOOR HEIGHT : 4.5 m
MAIN WALL THICKNESS : 0.75 ft
PARTITION WALL THICKNESS : 0.5 ft
METHODOLOGY &
STAGES OF PROJECT
METHODOLOGY
 The planning of Multi-Speciality Hospital Building is done by
using AUTOCADD 2017 software.
 The manual design of our project Multi-Speciality Hospital
Building is done as per Limit State method with the reference
of IS 456 : 2000 (Fourth edition) and SP 16 for the design of
structural elements of slabs, beams, columns, staircases, lintel
cum sunshade, footing, septic tank, dispersion trench, water
tank, etc.,
 The analysis of concrete members in our project is analysed
by using STAAD.pro V8i SS6 software.
STAGES OF PROJECT
Data collection for planning with the reference of NBC 2005
Planning of the structure using AUTOCADD 2017
Analysing the structure using STAAD.pro V8i SS6
Design of the structural elements by Limit state method using
IS 456 – 2000 & SP-16
PLANNING DETAILS
GROUND FLOOR PLAN
COLUMN LAYOUT
MANUAL DESIGN
CALCULATIONS OF
STRUCTURAL MEMBERS
AS PER IS 456 : 2000
DESIGN OF SLAB
Size of slab = 9m × 4.8m
Wall thickness = 230mm
Slab thickness = 150mm
Based on the Ly/Lx ratio, here it is found that the
Type of slab = Two way slab
 Main reinforcement
Longer Direction = 20mm Ø bars @ 400mm c/c spacing
Shorter Direction = 20mm Ø bars @ 200mm c/c spacing
 Edge strips
Longer Direction = 8mm Ø bars @ 250mm c/c spacing
Shorter direction = 8mm Ø bars @ 250mm c/c spacing
 Middle strips
Longer Direction = 20mm Ø bars @ 400mm c/c spacing
Shorter Direction = 20mm Ø bars @ 200mm c/c spacing
REINFORCEMENT DETAILING OF SLAB
DESIGN OF BEAM
Size of beam = 300mm × 450mm
Length of beam = 9150mm
Width of support (Wall thickness)= 230mm
Type of beam = Doubly reinforced beam
 Tension reinforcement
4 no’s of 20mm Ø bars @ bottom
 Compression reinforcement
2 no’s of 20mm Ø bars @ top
 Shear reinforcement or Distribution reinforcement
8mm Ø bars @ 160mm c/c spacing
REINFORCEMENT DETAILING OF BEAM
DESIGN OF COLUMN
(1) Type of column = Short Uniaxially loaded column
Size of column = 450mm × 300mm
Shape of column = Rectangular column
 Main reinforcement
12 no’s of 16mm Ø bars @ 80mm c/c spacing
 Lateral ties
8mm Ø bars @ 300mm c/c spacing
Contd……
(2) Type of column = Short Biaxially Loaded column
Size of column = 300mm × 450mm
Shape of column = Rectangular column
 Main reinforcement
12 no’s of 20mm Ø bars 80mm c/c spacing
 Lateral ties
8mm Ø bars @ 300mm c/c spacing
REINFORCEMENT DETAILING OF COLUMN
DESIGN OF STAIRCASE
Type of staircase = Dog legged staircase
Tread = 300mm
Riser = 150mm
Width of flight slab = 4.5m
Thickness of flight slab = 150mm
Width of landing = 1.25m
No of flight = 2 no’s
Floor height = 4.5m
 Main reinforcement
16mm Ø bars @ 410mm c/c spacing
 Distribution reinforcement
12mm Ø bars @ 400mm c/c spacing
REINFORCEMENT DETAILS OF
STAIRCASE
REINFORCEMENT DETAILS OF
FOOTING
Size of column = 300mm × 450mm
Size of footing = 2.75m × 1.65m
Live load = 1000kN
Self weight = 100kN
Safe bearing capacity = 250kN/m^2
Longer Direction
12mm Ø bars @ 400mm c/c spacing
Shorter Direction
12mm Ø bars @ 135mm c/c spacing
REINFORCEMENT DETAILS OF LINTEL
CUM SUNSHADE
Size of lintel = 230mm × 150mm
Bearing = 150mm
Width of window = 1.83m
Total Load = 10.185kN/m
 Main reinforcement
Using 4 no’s of 8mm Ø bars
 Shear reinforcement
Using 6mm Ø bars of two legged stirrups
Clear projection of sunshade = 600mm
Thickness at centre = 100mm
Thickness at free end = 75mm
Total load = 3.09kN/m
 Main reinforcement
Using 8mm Ø bars @ 200mm c/c spacing
 Distribution reinforcement
Using 6mm Ø bars @ 300mm c/c spacing
DESIGN OF UNDER GROUND WATER
TANK
Per capita demand = 135 lit/capita/day
No of persons = 100
Size of tank = 3m × 1.5m × 3.8m
Thickness of tank wall = 230mm
 Main reinforcement
Provide 16mm Ø bars @ 270mm c/c spacing in longer direction
Provide 12mm Ø bars @ 140mm c/c spacing in shorter direction
 Distribution reinforcement
Using 12mm Ø bars @ 400mm c/c spacing in longer direction
Using 12mm Ø bars @ 400mm c/c spacing in shorter direction
 Roof slab
8mm Ø bars @ 460mm c/c spacing as both main &
distribution reinforcement
 Base slab
12mm Ø bars @ 170mm c/c spacing as both main &
distribution reinforcement
DESIGN OF SEPTIC TANK AND
DISPERSION TRENCH
Septic tank:-
No of users = 100 users per day
Rate of water supply = 120 lit/capita/day
(Assume total quantity of water appears as sewage)
Total capacity of sewage = 26.7m^3
Size of septic tank = 4.5m × 3m × 2.5m
Dispersion trench:-
Flow of sewage = 18.2m^3
No of trenches = 6 no’s
Spacing of trenches = 15m
Percolation rate = 0.204m^3/m^2/day
STAAD.PRO ANALYSIS
DEAD LOAD ACTING ON THE STRUCTURE
LIVE LOAD ACTING ON THE STRUCTURE
SHEAR FORCE OF SLAB
DEFLECTION IN Z DIRECTION DUE TO LIVE LOAD
DEFLECTION IN Z DIRECTION DUE TO DEAD LOAD
3 D RENDERING
CONCLUSION
CONCLUSION
 Thus we conclude the layout of our hospital building which
satisfy the functional requirements up to a great extend.
 The hospital building consists of two storey building.
 It is designed to stage ground floor, first floor and second floor.
 The building can accommodate 100 patients with all the standard
facilities in it.
 In this project, the action of load on the structure is calculated
and analysis is made using STAAD.Pro software.
 The structural design has been done by using the limit state
method.
 The structural drawing and detailing are prepared for the same.
 On taking this project we have learnt analysis and design of
MULTI – SPECIALITY HOSPITAL BUILDING at every
stage like planning, analysis and design, etc., and thus we got an
opportunity for expressing our ideas on the topic.
BIBLIOGRAPHY
BIBLIOGRAPHY
 IS 456 : 2000 Plain and Reinforced Concrete – Code of
Practice (Fourth Revision)
 IS 875 – 1987 Code of Practice
 SP : 16 -1980 ( Design Aids for Reinforced Concrete to IS
456)
 Dr.B.C.Punmia, “Soil Mechanics and Foundations”, S.Chand
& Co., New Delhi
 N.Krishna Raju, “Advance Reinforced Concrete Designing”,
Tata Mc-Graw Hill Publication, New Delhi
 Er.A.P.Arulmanickam M.E., “Structural Engineering”
 P.C.Varghese, “Limit State of Design of Reinforced Concrete”,
Prentice hall of India Limited, New Delhi
 V.N.Vazirani & M.M.Ratwani, “Analysis of Structures”,
Khanka Publication, New Delhi
QUERIES….???
THANK YOU…

pptt.pptx

  • 1.
    CONTENT OF PRESENTATION •ABSTRACT • INTRODUCTION • METHODOLOGY • PLAN DETAILS • MANUAL DESIGN CALCULATIONS • REINFORCEMENT DETAILING • STAAD.PRO ANALYSIS • REFERENCES • CONCLUSION
  • 2.
  • 3.
    ABSTRACT  Our projectdeals with the Planning, Analysis and Design of a Multi- Speciality Hospital Building. We took this as our project for theoretical knowledge in the areas of planning and design.  “HEALTH IS WEALTH” so hospital is an essential thing for man happy life. We have proposed to execute our project at gomangalamputhur. Our project comprises of ground floor, first floor and second floor.  Hospital consist doctors to checking patients for multi-disease, health check up and surgical operations. In our project, consultant rooms are separately available for all diseases.  Basically the hospital building which is more important. Our project serves to be useful for the public. Special arrangements have been made for the emergency service and provide the fire safety, emergency exit for the safety of public.
  • 4.
  • 5.
    INTRODUCTION “Construction is theimportant aspect of civil Engineering”. Mankind has been evolving different kinds of environment with the change and time. Our project deals with planning, analysis and design of Multi- Speciality Hospital Building. The proposed site of the hospital building is located at Gomangalamputhur. In this project, a two storey building (G+2) has been designed in detail for a framed connection. The ground floor consists of administrative office, store, pharmacy, consultancy room, OP ward, doctor’s room, etc., The first floor consist of general wards, consultancy rooms, operation theatre, emergency ward, etc., The second floor consist of general wards, special wards, etc.,
  • 6.
    The structural aspects LOCATION: Gomangalamputhur NAME OF STRUCTURE : Hospital building FLOOR AREA : 25,400 sq.ft PLINTH AREA : 17,500 sq.ft FLOOR HEIGHT : 4.5 m MAIN WALL THICKNESS : 0.75 ft PARTITION WALL THICKNESS : 0.5 ft
  • 7.
  • 8.
    METHODOLOGY  The planningof Multi-Speciality Hospital Building is done by using AUTOCADD 2017 software.  The manual design of our project Multi-Speciality Hospital Building is done as per Limit State method with the reference of IS 456 : 2000 (Fourth edition) and SP 16 for the design of structural elements of slabs, beams, columns, staircases, lintel cum sunshade, footing, septic tank, dispersion trench, water tank, etc.,  The analysis of concrete members in our project is analysed by using STAAD.pro V8i SS6 software.
  • 9.
    STAGES OF PROJECT Datacollection for planning with the reference of NBC 2005 Planning of the structure using AUTOCADD 2017 Analysing the structure using STAAD.pro V8i SS6 Design of the structural elements by Limit state method using IS 456 – 2000 & SP-16
  • 10.
  • 11.
  • 15.
  • 16.
    MANUAL DESIGN CALCULATIONS OF STRUCTURALMEMBERS AS PER IS 456 : 2000
  • 17.
    DESIGN OF SLAB Sizeof slab = 9m × 4.8m Wall thickness = 230mm Slab thickness = 150mm Based on the Ly/Lx ratio, here it is found that the Type of slab = Two way slab  Main reinforcement Longer Direction = 20mm Ø bars @ 400mm c/c spacing Shorter Direction = 20mm Ø bars @ 200mm c/c spacing  Edge strips Longer Direction = 8mm Ø bars @ 250mm c/c spacing Shorter direction = 8mm Ø bars @ 250mm c/c spacing  Middle strips Longer Direction = 20mm Ø bars @ 400mm c/c spacing Shorter Direction = 20mm Ø bars @ 200mm c/c spacing
  • 18.
  • 19.
    DESIGN OF BEAM Sizeof beam = 300mm × 450mm Length of beam = 9150mm Width of support (Wall thickness)= 230mm Type of beam = Doubly reinforced beam  Tension reinforcement 4 no’s of 20mm Ø bars @ bottom  Compression reinforcement 2 no’s of 20mm Ø bars @ top  Shear reinforcement or Distribution reinforcement 8mm Ø bars @ 160mm c/c spacing
  • 20.
  • 21.
    DESIGN OF COLUMN (1)Type of column = Short Uniaxially loaded column Size of column = 450mm × 300mm Shape of column = Rectangular column  Main reinforcement 12 no’s of 16mm Ø bars @ 80mm c/c spacing  Lateral ties 8mm Ø bars @ 300mm c/c spacing Contd……
  • 22.
    (2) Type ofcolumn = Short Biaxially Loaded column Size of column = 300mm × 450mm Shape of column = Rectangular column  Main reinforcement 12 no’s of 20mm Ø bars 80mm c/c spacing  Lateral ties 8mm Ø bars @ 300mm c/c spacing
  • 23.
  • 24.
    DESIGN OF STAIRCASE Typeof staircase = Dog legged staircase Tread = 300mm Riser = 150mm Width of flight slab = 4.5m Thickness of flight slab = 150mm Width of landing = 1.25m No of flight = 2 no’s Floor height = 4.5m  Main reinforcement 16mm Ø bars @ 410mm c/c spacing  Distribution reinforcement 12mm Ø bars @ 400mm c/c spacing
  • 25.
  • 26.
    REINFORCEMENT DETAILS OF FOOTING Sizeof column = 300mm × 450mm Size of footing = 2.75m × 1.65m Live load = 1000kN Self weight = 100kN Safe bearing capacity = 250kN/m^2 Longer Direction 12mm Ø bars @ 400mm c/c spacing Shorter Direction 12mm Ø bars @ 135mm c/c spacing
  • 27.
    REINFORCEMENT DETAILS OFLINTEL CUM SUNSHADE Size of lintel = 230mm × 150mm Bearing = 150mm Width of window = 1.83m Total Load = 10.185kN/m  Main reinforcement Using 4 no’s of 8mm Ø bars  Shear reinforcement Using 6mm Ø bars of two legged stirrups
  • 28.
    Clear projection ofsunshade = 600mm Thickness at centre = 100mm Thickness at free end = 75mm Total load = 3.09kN/m  Main reinforcement Using 8mm Ø bars @ 200mm c/c spacing  Distribution reinforcement Using 6mm Ø bars @ 300mm c/c spacing
  • 29.
    DESIGN OF UNDERGROUND WATER TANK Per capita demand = 135 lit/capita/day No of persons = 100 Size of tank = 3m × 1.5m × 3.8m Thickness of tank wall = 230mm  Main reinforcement Provide 16mm Ø bars @ 270mm c/c spacing in longer direction Provide 12mm Ø bars @ 140mm c/c spacing in shorter direction  Distribution reinforcement Using 12mm Ø bars @ 400mm c/c spacing in longer direction Using 12mm Ø bars @ 400mm c/c spacing in shorter direction
  • 30.
     Roof slab 8mmØ bars @ 460mm c/c spacing as both main & distribution reinforcement  Base slab 12mm Ø bars @ 170mm c/c spacing as both main & distribution reinforcement
  • 31.
    DESIGN OF SEPTICTANK AND DISPERSION TRENCH Septic tank:- No of users = 100 users per day Rate of water supply = 120 lit/capita/day (Assume total quantity of water appears as sewage) Total capacity of sewage = 26.7m^3 Size of septic tank = 4.5m × 3m × 2.5m Dispersion trench:- Flow of sewage = 18.2m^3 No of trenches = 6 no’s Spacing of trenches = 15m Percolation rate = 0.204m^3/m^2/day
  • 32.
  • 33.
    DEAD LOAD ACTINGON THE STRUCTURE
  • 34.
    LIVE LOAD ACTINGON THE STRUCTURE
  • 35.
  • 36.
    DEFLECTION IN ZDIRECTION DUE TO LIVE LOAD
  • 37.
    DEFLECTION IN ZDIRECTION DUE TO DEAD LOAD
  • 40.
  • 41.
  • 42.
    CONCLUSION  Thus weconclude the layout of our hospital building which satisfy the functional requirements up to a great extend.  The hospital building consists of two storey building.  It is designed to stage ground floor, first floor and second floor.  The building can accommodate 100 patients with all the standard facilities in it.  In this project, the action of load on the structure is calculated and analysis is made using STAAD.Pro software.  The structural design has been done by using the limit state method.  The structural drawing and detailing are prepared for the same.  On taking this project we have learnt analysis and design of MULTI – SPECIALITY HOSPITAL BUILDING at every stage like planning, analysis and design, etc., and thus we got an opportunity for expressing our ideas on the topic.
  • 43.
  • 44.
    BIBLIOGRAPHY  IS 456: 2000 Plain and Reinforced Concrete – Code of Practice (Fourth Revision)  IS 875 – 1987 Code of Practice  SP : 16 -1980 ( Design Aids for Reinforced Concrete to IS 456)  Dr.B.C.Punmia, “Soil Mechanics and Foundations”, S.Chand & Co., New Delhi  N.Krishna Raju, “Advance Reinforced Concrete Designing”, Tata Mc-Graw Hill Publication, New Delhi  Er.A.P.Arulmanickam M.E., “Structural Engineering”  P.C.Varghese, “Limit State of Design of Reinforced Concrete”, Prentice hall of India Limited, New Delhi  V.N.Vazirani & M.M.Ratwani, “Analysis of Structures”, Khanka Publication, New Delhi
  • 45.
  • 46.