We're still actively developing this site. If you encounter any issues, please report them! - Report an issue

BIOMECHANICS

BME 315
Course Description

An introduction to the mechanical behavior of biological tissues and systems. Specific topics include: structure and function of biological tissues, mechanical properties of biological tissues, and analysis of specific tissues (i.e. bone, muscle, and soft connective tissues).

Prerequisties

(EMA 303 or ME 306 ), or member of Engineering Guest Students

Satisfies
Credits

3

Offered

Fall

Grade Point Average
3.63

6.13% from Historical

Completion Rate
100%

0.92% from Historical

A Rate
48%

38.38% from Historical

Class Size
100

57.67% from Historical

2025 Fall Grade Distribution

Instructors (2025 Fall)

Sorted by ratings from Rate My Professors

Similar Courses

ORTHOPAEDIC BIOMECHANICS - DESIGN OF ORTHOPAEDIC IMPLANTS

BME/ME 414

Apply the design process for orthopaedic implants (total joint replacements). Topics include: library skills; joint anatomy; tissue properties; surgical approach; joint loading; implants materials; preclinical testing and analysis.

TISSUE MECHANICS

BME/ME 615

Focus on solid mechanics of prominent musculoskeletal and cardiovascular tissues. Their normal and pathological behaviors (stiffness, strength, relaxation, creep, adaptive remodeling, etc.) in response to physiologic loading will be examined and quantified.

FINITE ELEMENTS FOR BIOLOGICAL AND OTHER SOFT MATERIALS

BME/ME 516

Finite element modeling of soft materials, with an emphasis on biological tissues. Basics of the finite element method, verification and validation methods, and selection of constitutive models. Emphasis on finite element modeling for materials that are generally nonlinear, and that generally undergo large deformation.

SPECIAL TOPICS IN BIOMECHANICS

BME/ME 605

Various special topics in biomechanics.

ADVANCED TISSUE MECHANICS

BME/ME 715

Central topics in solid mechanics applied to soft tissues, including analysis of strain in the setting of large deformations, computation of stress in multiple experimental loading configurations, constitutive modeling of biomaterials using hyperelastic strain-energy functions, modeling tissue growth and remodeling, and the main theories for soft tissue failure will be covered. Application of finite elasticity theory in practical laboratory situations, and key papers and concepts in soft tissue mechanics.