Trauma Biomechanics

Course Information

  • Course Title: Trauma Biomechanics
  • Course Code: 2014471-01
  • Credits: 3
  • Level: MSc
  • Class Schedule: Sunday 8:00-10:00 & Monday 14:00-16:00
  • Class Location: Class 30
  • Instructor: Seyed Sadjad Abedi-Shahri
  • Lecture Materials: Provided weekly via LMS

Course Overview

This course introduces the biomechanical principles underlying traumatic injuries of the human body under high-rate and impact loading. Emphasis is placed on injury mechanisms, injury criteria, and models used in trauma biomechanics, including numerical, experimental, analytical, and systems-level approaches.

The course adopts a model-driven and interpretation-focused philosophy, enabling students to analyze trauma problems. Students will engage with realistic injury scenarios drawn from automotive safety, sports, occupational accidents, and protective equipment design.


Learning Objectives

By the end of the course, students will be able to:

  • Explain major traumatic injury mechanisms across different anatomical regions
  • Interpret and apply commonly used injury criteria and injury metrics
  • Compare experimental, numerical, analytical, and systems-level models in trauma biomechanics
  • Critically evaluate trauma biomechanics studies and standards
  • Design and justify injury assessment or prevention strategies under real-world constraints
  • Communicate biomechanical reasoning clearly, including assumptions and limitations

Syllabus (Topics)

  1. Module 1 - Foundations of Trauma Biomechanics
  2. Module 2 - Methods in Trauma Biomechanics
  3. Module 3 - Head and Brain Trauma
  4. Module 4 - Spine and Thoracic Trauma
  5. Module 5 - Abdomen and Extremities
  6. Module 6 - Special Topics and Synthesis

References

Schmitt, K.U., Niederer, P.F., Cronin, D.S., Muser, M.H., Walz, F. Trauma Biomechanics: An Introduction to Injury Biomechanics, 5th ed.


Evaluation Scheme

  • Final Project: 50%
    • Individual project, chosen from structured project cards
    • Includes report and oral presentation
  • Final Exam: 50%
    • Conceptual and interpretive questions

This course uses continuous assessment through a major project rather than frequent quizzes.


Project Structure

Each student selects one project from a curated set of project cards, organized into four equally valued pathways:

All pathways:

  • Have comparable difficulty
  • Use pathway-specific grading rubrics
  • Are equally weighted in assessment

See the Project Cards document and the guide β€œHow to Choose Your Project Pathway” for details.


Project Timeline & Milestones

The course project is a semester-long individual project designed to support deep, mature engagement with trauma biomechanics.
Project assessment combines process-based milestones with final quality-based evaluation, and applies equally to all project pathways.


Overall Grading Context

  • Final Exam: 50% of course grade
  • Project (total): 50% of course grade

Important:
The detailed grading rubric provided in each Project Card is applied only to the final written report and oral presentation.
Early milestones are assessed using simplified criteria focused on progress, clarity, and appropriate scope.


Week 1-2 | Project Orientation

  • Introduction to project pathways and expectations
  • Release of:
    • Project Cards (all projects)
    • β€œHow to Choose Your Project Pathway” guide
  • Discussion of grading philosophy and examples

πŸ“Œ No graded deliverables


Week 3 | Project Selection

  • Students review all project cards
  • Each student submits:
    • Ranked list of three preferred projects
    • Brief justification (2-3 sentences per choice)

πŸ“Œ Instructor confirms project assignments
πŸ“Œ Not graded


Week 4 | Project Proposal (Milestone 1)

Deliverable: Short written proposal (2-3 pages)

Must include:

  • Selected project card and pathway
  • Problem statement and objectives
  • Planned approach and scope
  • Key assumptions and anticipated challenges

Assessment focus:

  • Clarity of problem definition
  • Appropriate project scope
  • Feasibility of the proposed approach

πŸ“Š Weight: 5% of course grade


Week 6-7 | Mid-Project Review (Milestone 2)

Deliverable: Progress review (written summary or oral meeting)

Should cover:

  • Work completed to date
  • Preliminary analysis, design, or concepts
  • Identified difficulties or limitations
  • Revised plan if needed

Assessment focus:

  • Evidence of meaningful progress
  • Quality of reasoning and engagement
  • Awareness of limitations and challenges

πŸ“Š Weight: 10% of course grade


Week 11-12 | Draft Check (Optional, Not Graded)

  • Informal submission of:
    • report outline,
    • preliminary figures or concepts,
    • early results or designs
  • Feedback provided by the instructor

πŸ“Œ Strongly recommended but not graded


Final Week | Final Submission & Presentation (Milestone 3)

Final Written Report

  • Length: 20-25 pages (excluding appendices)
  • Evaluated using the Project Card grading rubric

πŸ“Š Weight: 25% of course grade

Oral Presentation & Discussion

  • Duration: 15-20 minutes + discussion
  • Evaluated using presentation-related criteria from the Project Card rubric

πŸ“Š Weight: 10% of course grade


Summary of Project Assessment

ComponentCourse WeightEvaluation Method
Project Proposal5%Milestone criteria (scope, clarity, feasibility)
Mid-Project Review10%Progress and reasoning
Final Written Report25%Project Card rubric
Oral Presentation10%Project Card rubric
Total Project Weight50%

General Notes

  • All milestones apply equally to all project pathways
  • Projects are individual by default
  • Final project quality is evaluated using pathway-specific rubrics
  • Early milestones are designed to support learning, not penalize exploration

A successful project is one that is well-scoped, well-argued, and intellectually honest.


Session Outline

SessionDateOutlineAdditional Resources
13 EsfandModule 1 (U)1-

Policies

  1. Attendance is recommended but not mandatory.
  2. Active participation in discussions is encouraged.
  3. Collaboration in discussion is allowed; all submitted work must be individual.
  4. Academic integrity is strictly enforced. Plagiarism or misrepresentation will not be tolerated.


  1. (U): Unfinished β†©οΈŽ

Seyed Sadjad Abedi-Shahri
Seyed Sadjad Abedi-Shahri
Assistant Professor of Biomedical Engineering

My research interests include Numerical Methods in Biomechanics, Scientific Computation, and Computational Geometry.