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Topics

  1. Introduction
  2. Navigate the UI
  3. Model Setup
  4. Loadable Families and System Families
  5. Create Basic Model Elements
  6. Annotate the Project
  7. Link Additional Models
  8. Create Views and Sheets
  9. Publish Drawings and Models

The introductory BIM 101 course, aligned with New Zealand standards, covering the following modules:

  1. Introduction
  2. Typical BIM Workflow
  3. Project BIM Brief
  4. BIM Execution Plan
  5. Legal Implications of BIM
  6. Design BEP
  7. Construction BEP
  8. AM/FM BEP
  9. ISO 19650

Course Title: Finite Element Method for Structural Engineering

Course Overview: The Finite Element Method (FEM) course is designed for Master's students in Structural Engineering. It provides a comprehensive understanding of FEM principles, software tools, and practical applications in structural design. The course will cover key topics such as developing structural models, performing analysis, interpreting results, and validating designs using industry-standard tools. Students will learn through a blend of theoretical lessons, software demonstrations, and practical case studies.

Course Structure: The course consists of 12 lessons, each approximately 1 hour long. Every lesson concludes with a short comprehension test, and the course culminates in a final practical assignment.

Course Topics:

  1. Finite Element Method and Software Overview

    • Overview of FEM
    • Software and purpose
    • 3 Stages of the FEM process
  2. Developing the Structural Analytical Model 1

    • Structural Material Properties
    • Structural Section Properties
    • Types of Analytical Elements
  3. Developing the Structural Analytical Model 2

    • End Releases
    • Supports
    • Structural Loads
    • Load Combinations
  4. Structural Analysis

    • Analysis Setup
    • Analysis Results
    • Analysis Reports
  5. Structural Design

    • Math-Scripted Design to NZ3404 + AS/NZS4600
    • AI-Driven Design to NZ3404 + AS/NZS4600
    • Design Reports
  6. Introduction to Sub-Model Finite Element Analysis

    • Volumetric Finite Element Model Requirements
    • Understanding the Volumetric Meshing Process
    • Creating Model Geometry
  7. Multiphysics Analytical Model Development

    • Materials and Sections
    • Planning the Multiphysics System
    • Element Interactions
  8. Preparing for Simulation 1

    • Analysis Steps
    • Boundary Conditions
    • Loads
  9. Preparing for Simulation 2

    • Amplitudes
    • Initial Conditions
    • History Output
  10. Perform Sub-Model Analysis and Interpret Results

    • Model Stability Checks
    • Running Analysis
    • Results and Reporting
    • Results Interpretation and Validation
  11. Case Study: Portal Frame Structure Design to NZ3404 + AS/NZS4600 (Interactive)

    • 3D Model Development
    • Analysis
    • Design of Structural Columns, Rafters, and Purlins
    • Analysis of Structural Steel Connections using Sub-Model Analysis
  12. Result Validation

    • GenFEA vs SAP2000 vs Prokon Results Comparison
    • Integration with SESOC MemDes

Assessment:

  • Comprehension Tests: Short tests at the end of each lesson to reinforce learning.
  • Final Practical Assignment: A hands-on project where students will apply their skills to develop and analyze a structural model.

Learning Outcomes: By the end of this course, students will:

  • Understand the fundamental concepts and applications of FEM in structural engineering.
  • Be proficient in setting up and analyzing structural models using FEM software.
  • Gain experience in sub-model analysis and multiphysics simulations.
  • Be able to validate results and optimize designs using advanced structural analysis techniques.