LecturePlan

Name : Mr. Ravikant Sharma

Discipline: Civil engg.

Course: M.tech

Semester :IISub code: -MTSE-106 A

Subject:Advanced Steel Design

Lesson Plan Duration: 15 weeks (w.e.f Jan., 2020 to April, 2020)

Week	Theory
Week	Lecture Day	Topic
1	1	Properties of Steel
	2	Mechanical Properties
	3	Hysteresis
2	4	Theory
	5	Theory
	6	Theory
3	7	Ductility
	8	Hot Rolled Sections
	9	compactness and non-compactness
4	10	Slenderness
	11	residual stresses
	12	Test and Discussion of Unit 1
5	13	Design of Steel Structures
	14	Numericals
	15	Inelastic Bending Curvature
6	16	Plastic Moments
	17	Design Criteria
	18	Stability, Strength, Drift
7	19	Numericals
	20	Numericals
	21	Numericals
8	22	Stability of Beams
	23	Local Buckling of Compression Flange &Web
	24	Numericals
9	25	Lateral Torsional Buckling
	26	Stability of Columns
	27	Numericals
10	28	Slenderness Ratio
	29	Bracing of Column about Weak Axis
	30	Numericals
11	31	Numericals

	32	Method of Designs
	33	Allowable Stress Design
12	34	Plastic Design
	35	Load and Resistance Factor Design
	36	Test and Discussion of Unit 3
13	37	Strength Criteria
	38	Beams – Flexure, Shear, Torsion
	39	Columns – Moment Magnification Factor
14	40	Effective Length PM Interaction
	41	Biaxial Bending, Joint Panel Zones.
	42	Drift Criteria: P Effect
15	43	Deformation Based Design
	44	Connections: Welded, Bolted, Location Beam Column
	45	Column Foundation, Splices.

Lecture plan

Discipline : CivilEngineering

Course : M.tech

Semester : II

Subject : Advanced Design of Foundation Subject code: -MTSE-116 A

Lesson PlanDuration: 15 weeks (w.e.f Jan., 2020 to April, 2020)

Week	Theory		Practical
Week	Lecture day	Topic (including assignment/ test)	Practical day	Topic
		Unit-I
1st	1	Planning of Soil Exploration
	2	for Different Projects
	3	Methods of Subsurface Exploration
2n d	4	Methods of Borings along with Various Penetration Test
	5	Shallow Foundations
	6	Requirements for Satisfactory Performance of Foundations
3r d	7	Methods of Estimating Bearing Capacity Settlements of Footings and Rafts
	8	Theory
	9	Theory
4th	10	Theory
	11	Proportioning of Foundations using Field Test Data
	12	Pressure – Settlement Characteristics from Constitutive Laws
		UNIT-II
5th	13	Pile Foundations
	14	Theory
	15	Methods of Estimating Load Transfer of Piles
6th	16	Settlements of Pile Foundations
	17	Pile Group Capacity and Settlement
	18	Theory
7th	19	Laterally Loaded Piles
	20	Theory
	21	Pile Load Tests
8th	22	Analytical Estimation of Load
	23	Settlement Behavior of Piles
	24	Proportioning of Pile Foundations
		UNIT-III
9th	25	Ist Sessional Test
	26	Lateral and Uplift Capacity of Piles
	27	Well Foundation
10th	28	IS and IRC Code Provisions
10th	29	Elastic Theory

	30	Ultimate Resistance Methods
11th	31	Tunnels and Arching in Soils
	32	Pressure Computations around Tunnels
	33	Open Cuts
12th	34	Sheeting and Bracing Systems in Shallow and Deep Open Cuts in Different Soil Types
	35	Coffer Dams
	36	Theory
13th	37	Various Types
	38	Analysis and Design
	39	Foundations under uplifting loads
14th	40	Theory
	41	Soil-structure interaction
	42	Theory
15th	43	Theory
	44	Theory
	45	Theory

Discipline: Civil engg.

Course: M.tech

Semester : II Sub code: -MTSE-102 A

Subject: Finite Element Method in Structural Engineering

Lesson Plan Duration: 15 weeks (w.e.f Jan., 2020 to April, 2020)

Week	Theory
Week	Lecture Day	Topic
1	1	History and Applications
	2	Spring and Bar Elements
	3	Spring and Bar Elements
2	4	Numericals
	5	Numericals
	6	Numericals
3	7	Numericals
	8	Minimum Potential Energy Principle
	9	Direct Stiffness Method, Nodal Equilibrium equations
4	10	Assembly of Global Stiffness
	11	Matrix, Element Strain and Stress
	12	Test and Discussion of Unit 1
5	13	Numericals
	14	Numericals
	15	Beam Elements: Flexure Element
6	16	Element Stiffness Matrix
	17	Element Load Vector
	18	Numericals
7	19	Method of Weighted Residuals: Galerkin Finite Element Method
	20	Application to Structural Elements, Interpolation Functions
	21	Numericals
8	22	Compatibility and Completeness Requirements
	23	Polynomial Forms
	24	Applications
9	25	Test and Discussion of Unit 2
	26	Types: Triangular Elements
	27	Rectangular Elements
10	28	Three-Dimensional Elements
	29	Isoparametric Formulation
	30	Axi-Symmetric Elements
11	31	Numerical Integration

	32	Gaussian Quadrature
	33	Numericals
12	34	Numericals
	35	Numericals
	36	Test and Discussion of Unit 3
13	37	Numericals
	38	Numericals
	39	Numericals
14	40	Numericals
	41	Application to Solid Mechanics
	42	Plane Stress, CST Element
15	43	Plane Strain Rectangular Element
	44	Isoparametric Formulation of the Plane Quadrilateral Element
	45	Test and Discussion of Unit 4

Discipline : CivilEngineering

Course : M.tech

Semester : II

Subject : Structural Dynamics Subject code: – MTSE-104 A

Lesson PlanDuration: 15 weeks (w.e.f Jan., 2020 to April, 2020)

Week	Theory		Practical
Week	Lecture day	Topic (including assignment/ test)	Practical day	Topic
		Unit-I
1st	1	Introduction
	2	Objectives
	3	Importance of Vibration Analysis
2n d	4	Numericals
	5	Numericals
	6	Numericals
3r d	7	Nature of Exciting Forces
	8	Mathematical Modeling of Dynamic Systems.
	9	Single Degree of Freedom System
4th	10	Free and Forced Vibration with and without Damping
	11	Response to Harmonic Loading
	12	Numericals
		UNIT-II
5th	13	Response to General Dynamic Loading using Duhamel‟s Integral
	14	Fourier Analysis for Periodic Loading
	15	State Space Solution for Response
6th	16	Numerical Solution to Response
	17	using Newmark Method and Wilson Method
	18	Numericals
7th	19	Numericals
	20	Numericals
	21	Numericals
8th	22	Numerical Solution for State Space Response using Direct Integration.
	23	Numericals
	24	Numericals
		UNIT-III
9th	25	Ist Sessional Test
	26	Multiple Degree of Freedom System (Lumped parameter)
	27	Two Degree of Freedom System
10th	28	Multiple Degree of Freedom System
10th	29	Inverse Iteration Method for Determination of Natural

	30	Frequencies and Mode Shapes
11th	31	Dynamic Response by Modal Superposition Method
	32	Numericals
	33	Numericals
12th	34	Numericals
	35	Numericals
	36	Numericals
13th	37	Direct Integration of Equation of Motion
	38	Multiple Degree of Freedom System (Distributed Mass and Load)
	39	Single Span Beams
14th	40	Free and Forced Vibration
	41	Generalized Single Degree of Freedom System
	42	Special Topics in Structural Dynamics (Concepts only): Dynamic Effects of Wind Loading,
15th	43	Moving Loads, Vibrations caused by Traffic
	44	Blasting and Pile Driving
	45	Foundations for Industrial Machinery, Base Isolation

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