Code(Credit) : CUTM2370(2-2-0)
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Course Objective
· To introduce the basic concepts and steps for reinforced concrete sectional design mainly in accordance with ultimate strength design.
· To help the student develop an intuitive feeling about structural and material wise behavior and design of reinforced concrete systems and elements. · To make the students capable of identify and apply the applicable industry design codes relevant to the design of reinforced concrete members. · To become familiar with professional and contemporary issues in the design and fabrication of reinforced concrete members. |
Course Outcome
COs | Course Outcomes | POs |
CO1 | Understand the general knowledge on mechanical behaviour of reinforced concrete. | PO1 [3], |
CO2 | Understand the problems and its analysis of flexural members through design solutions. | PO2 [3], PO3 [2] |
CO3 | Analyze the transfer and development length of concrete reinforcement. | PO5 (3) |
CO4 | Understand the design and development of types of slabs, footings using software and laboratory experiments. | PO5 (3), PO4 [2] |
MODULE-1: INTRODUCTION (4Th+2Pra) Hrs.
Analysis of Indeterminate beams: Determination of internal forces at various sections of the beam by using force method (Consistent deformation method), three moment theorems.
Practices Session:
Determination of Shear force and bending moment, at various sections of the beam subjected to different types of loads using StaaD Analysis software.
Identification of point of contraflexure and point of zero shear.
MODULE-2: ANALYSIS OF FRAMES (4Th+4Pra) Hrs.
Determination of internal forces at various sections of the portal frames by using displacement method (Slope-deflection method).
Practices Session:
Determination of Shear force and bending moment, at various sections/joints of the portal frame subjected to different types of loads using StaaD Analysis software.
Identification of point of contraflexure and point of zero shear.
MODULE-3: DEFLECTION IN INDETERMINATE BEAMS (4Th+3Pra) Hrs.
Determination of slope and deflection at various sections of the beam by using moment area method and conjugate beam method.
Practices Session:
Determination of deflections at various sections of the beam subjected to different types of loads using StaaD Analysis software.
MODULE-4: DEFLECTION IN RIGID AND PIN JOINTED FRAMES (4Th+3Pra) Hrs.
Determination of slope and deflection at various sections/joints of the pin and rigid jointed frames by using Strain Energy method and unit load method.
Practices Session:
Determination of deflections at various sections of the frame subjected to different types of loads using StaaD Analysis software.
MODULE-5: STRUCTURAL ANALYSIS USING FLEXIBILITY MATRIX METHOD (4Th+4Pra) Hrs.
Properties of flexibility matrix, Development of flexibility matrix for various cases, Analysis of different types of beams and frames by using Flexibility matrix approach.
Practices Session:
Flexibility coefficients and their use in formulation of compatibility equations using MAT LAB.
MODULE-6: STRUCTURAL ANALYSIS USING STIFFNESS MATRIX METHOD (6Th+4Pra) Hrs.
Properties of stiffness matrix, Development of stiffness matrix for various cases, Analysis of different types of beams and frames by using stiffness matrix approach.
Practices Session:
Stiffness coefficients for prismatic members and their use for formulation of equilibrium equation using MATLAB including the effect of settlement of supports.
MODULE-7: ANALYSIS AND CHECK FOR SAFETY (4Th+4Pra) Hrs.
Analysis checks, Post design checks, Pushover analysis, response spectrum analysis, time history analysis.
Practices Session:
1.Mass (Weight) Irregularity check as per the code
2.Story Displacement, Story Drift checks as per code
3.Modal Analysis Case [ Eigen or Ritz Vectors], Time period
4.Time History Analysis
Text Books:
Reference Books:
(20). Modal Analysis (Dynamic Analysis)- Tall Buildings Design - Etabs
Session plan
Session – 1: Introduction to Structural analysis, Internal forces (CRT)
https://drive.google.com/file/d/1UYnhoABzpEZAtrYo_e_PQG9O8M3Vuo7J/view
https://drive.google.com/file/d/1N0u4oF7LkiEddDdor9J-BMkmon1SEQ7f/view
https://drive.google.com/file/d/1sd563RgHeTiwKp0CYaHC5FV43M3RANPS/view
Session – 2: Determinate and indeterminate structure (CRT)
https://drive.google.com/file/d/1BD4zj6Aco7jaRhaI38VHHdIeSqpvsRJf/view
Session – 3: Shear force and bending moment diagram of beam (CRT)
https://drive.google.com/file/d/1UOVDz5aQ6rhbMPpLAXSK3DGPPNL9yLWq/view
Session – 4: Methods of analysis of indeterminate structures (force method and displacement method) (CRT)
Session – 5, 6 & 7: Consistent deformation method (CRT)
Session – 8, 9 & 10: Analysis of beam using three moment theorems (CRT)
Session – 11: Analysis of Propped cantilever in Staad (PRACTICE)
Session – 12: Analysis of Continuous beams in Staad (PRACTICE)
Session – 13: Analysis of Fixed beams in Staad (PRACTICE)
https://youtu.be/2iawYdSk46s
Session – 14: Introduction to Slope-deflection method (CRT)
Session – 15: Analysis of Rigid jointed portal frame using StaaD Analysis software (PRACTICE)
Session – 16: Analysis of Pin-jointed frame using StaaD Analysis software (PRACTICE)
Session – 17: Introduction to Moment area method (CRT)
Session – 18: Introduction to Conjugate beam method (CRT)
Session – 19: Deflection in Propped cantilever (PRACTICE)
Session – 20: Deflection in Continuous beams (PRACTICE)
Session – 21: Deflection in Over hanging beams (PRACTICE)
Session – 22: Strain energy method (CRT)
Session – 23: Virtual work (Unit load method) (CRT)
Session – 24: Deflection in Rigid jointed portal frame (PRACTICE)
Session – 25: Deflection in Pin-jointed frame (PRACTICE)
Session – 26: Introduction to Flexibility matrix (CRT)
Session – 27: Analysis of Continuous beam by flexibility method (CRT)
Session – 28: Analysis of Propped cantilever by flexibility method (CRT)
Session – 29: Analysis of Pin-jointed frame by flexibility method (CRT)
Session – 30: Analysis of Rigid-jointed frame by flexibility method (CRT)
Session – 31: Analysis of Continuous beam by flexibility matrix method in MATLAB (PRACTICE)
Session – 32: Analysis of Propped Cantilever by flexibility matrix method in MATLAB (PRACTICE)
Session – 33: Analysis of Pin-jointed frame by flexibility matrix method in MATLAB (PRACTICE)
Session – 34: Analysis of Rigid jointed portal frame by flexibility matrix method in MATLAB (PRACTICE)
Session – 35: Introduction to stiffness matrix (CRT)
Session – 36: Analysis of Pin-jointed frame by stiffness method (CRT)
Session – 37: Analysis of Pin-jointed frame by stiffness method (cont) (CRT)
Session – 38: Analysis of Beam by stiffness method (CRT)
Session – 39: Analysis of Beam by stiffness method (cont.) (CRT)
Session – 40: Analysis of Beam by stiffness method (cont.) (CRT)
Session – 41: Analysis of Rigid frame by stiffness method (CRT)
Session – 42: Analysis of Continuous beam by Stiffness matrix method in MATLAB (PRACTICE)
Session – 43: Analysis of Propped Cantilever by Stiffness matrix method in MATLAB (PRACTICE)
Session – 44: Analysis of Pin-jointed frame by Stiffness matrix method in MATLAB (PRACTICE)
Session – 45: Analysis of Rigid jointed portal frame by Stiffness matrix method in MATLAB (PRACTICE)
Session – 46: Analysis checks, Post design checks, Pushover analysis, response spectrum analysis, time history analysis.
https://www.iitk.ac.in/nicee/wcee/article/13_2522.pdf
Session – 47: Mass (Weight) Irregularity check as per the code
https://youtu.be/e2uVoUjy_hc
Session – 48: Story Displacement, Story Drift checks as per code
https://youtu.be/4mwN_LQqtJ0
Session – 49: Modal Analysis Case [ Eigen or Ritz Vectors], Time period
https://youtu.be/ZcIWWAoGt40
Session – 50: Time History Analysis
Structural Analysis · Earthquake Engineering · Structural Dynamics