Course Details
Subject {L-T-P / C} : CE6270 : Advanced Computational Laboratory { 0-0-3 / 2}
Subject Nature : Practical
Coordinator : Bibekananda Mandal
Syllabus
| Module 1 : |
Introduction to Structural Engineering Software: Basics of GUI, meshing, boundary conditions, solver settings. Overview of ABAQUS CAE/ANSYS Workbench. |
| Module 2 : |
Analysis of 1D Structural Members Using FEM Software: Static analysis of beams using 1D elements. Load–displacement plots, reaction forces, and convergence study. |
| Module 3 : |
Analysis of 2D Structural Systems: Simulation of plate problems using 2D elements. Evaluation of stress, deflection, and boundary effects. |
| Module 4 : |
Modeling and Analysis of FRP Composite Plates: Simulation using Equivalent Single Layer (ESL) and Layerwise shell theories. Analysis of deformation and stress distributions. |
| Module 5 : |
Buckling Analysis of Plates: Eigenvalue buckling using 2D shell elements. Verification of critical buckling loads with theoretical values. |
| Module 6 : |
Free Vibration Analysis of Structures: Modal analysis to determine natural frequencies and mode shapes of beams and plates. |
| Module 7 : |
Modeling and Analysis of Complex Structures: Simulation of complex structural systems such as bridge decks, composite girders, and structural joints under realistic loading and support conditions. |
| Module 8 : |
Analysis of Reinforced Concrete (RCC) Beams: Modeling of RCC beams using embedded reinforcement technique or rebar layers. Linear and nonlinear static analysis under flexural loading. Evaluation of crack patterns, load–deflection behavior, stress distribution in concrete and steel, and comparison with theoretical or experimental results. |
| Module 9 : |
Mini Project / Case Study: Independent modeling and analysis of a real-life structural system. |
| Module 10 : |
Mini Project /Case Study: Emphasis on simulation accuracy, interpretation, and documentation. |
Course Objective
| 1 . |
To develop hands-on expertise in advanced structural engineering simulation software. |
| 2 . |
To develop the ability to model structural components and systems (1D, 2D, and 3D) under static, dynamic, and stability conditions using FEM-based platforms. |
| 3 . |
To simulate composite and reinforced concrete structures using appropriate material models, boundary conditions, and nonlinear analysis techniques. |
| 4 . |
To build skills in interpreting, validating, and critically analyzing FEM results for real-world structural applications. |
Course Outcome
| 1 . |
Use commercial FEM software (e.g., ANSYS, ABAQUS) to model and analyze basic structural elements and systems. |
| 2 . |
Perform static, buckling, and modal analysis of 1D, 2D, and 3D structural components and interpret the results. |
| 3 . |
Analyze the structural behavior of FRP composites and RCC beams, including linear and nonlinear material effects. |
| 4 . |
Simulate and evaluate real-life structures such as bridge decks and structural joints under realistic loading and boundary conditions. |
| 5 . |
Apply convergence checks, validate simulation results against theoretical or experimental benchmarks, and prepare technical reports. |
Essential Reading
| 1 . |
Dassault Systèmes, Abaqus Documentation, Dassault Systèmes Simulia Corp. Providence, RI, USA |
| 2 . |
Amar Khennane, Introduction to Finite Element Analysis Using MATLAB® and Abaqus, Taylor & Francis |
Supplementary Reading
| 1 . |
Ever J. Barbero, Finite element analysis of composite materials using Abaqus, CRC Press |
| 2 . |
Farzad Hejazi, Hojjat Mohammadi Esfahani, Solving Complex Problems for Structures and Bridges using ABAQUS Finite Element Package, CRC Press |
Journal and Conferences
| 1 . |