Tracks

Tracks

T01: Multiscale Biomechanical Modeling
T02: Computational Methods for Biology & Medicine
T03: Imaging, Measurement & Quantification of Biomechanical Processes
T04: Cell Mechanics & Mechanotransduction
Cells → Tissues → Organs → Whole-body systems; Computational and theoretical approaches
Finite element analysis, agent-based models, machine learning, data-driven modeling, digital twins
Novel imaging (optical, ultrasound, MRI), force measurement, data extraction from biological motion
A single mechanobiology-focused track — broad enough to include cytoskeleton, adhesions, nuclear mechanics, and signaling
T05: Tissue Mechanics & Remodeling
T06: Organ-Level Mechanics & Physiology
T07: Mechanobiology of Disease
T08: Bioengineering & Synthetic Microenvironments
Biomechanics of connective tissue, ECM, viscoelasticity, wound healing, fibrosis
Cardiovascular mechanics, respiratory mechanics, musculoskeletal systems, ocular mechanics, etc.
Cancer, fibrosis, cardiovascular disease, neurodegeneration. Mechanisms + modeling + translational aspects
Organoids, tissue engineering, 3D biomaterials, organ-on-chip, microfluidics, physiological simulations
T09: Rehabilitation Engineering & Human Movement Biomechanics
T10: Translational Biomechanics & Mechanomedicine
T11: AI/ML in Biomechanics and Mechanobiology
T12: Population-, Clinical-, and Public-Health Biomechanics
Performance, gait, prosthetics, sports science, wearable tech, motion capture
Mechanics-informed therapies, implant design, regenerative medicine, surgical planning
Surrogate modeling, predictive modeling, automated image analysis, computational discovery
Epidemiological biomechanics, injury biomechanics, aging, frailty, falls, global health mechanical challenges
T13: Neurology & Brain Computer Interface
T14: Biorobotics
T15: Clinical Application, Translational Research & Industry
T16: Student Poster and Demonstration Session
Mechanics, modeling, and technologies for neural systems, neuromechanics, and brain–machine interaction.
Bio-inspired robotics, soft robots, prosthetics, and human–robot mechanical interaction
Mechanics-driven diagnostics, therapeutics, devices, and pathways from lab to clinic and market
Student-led research highlights and demonstrations of emerging biomechanical tools and technologies
T01: Multiscale Biomechanical Modeling
T02: Computational Methods for Biology & Medicine
Cells → Tissues → Organs → Whole-body systems; Computational and theoretical approaches
Finite element analysis, agent-based models, machine learning, data-driven modeling, digital twins
T03: Imaging, Measurement & Quantification of Biomechanical Processes
T04: Cell Mechanics & Mechanotransduction
Novel imaging (optical, ultrasound, MRI), force measurement, data extraction from biological motion
A single mechanobiology-focused track — broad enough to include cytoskeleton, adhesions, nuclear mechanics, and signaling
T05: Tissue Mechanics & Remodeling
T06: Organ-Level Mechanics & Physiology
Biomechanics of connective tissue, ECM, viscoelasticity, wound healing, fibrosis
Cardiovascular mechanics, respiratory mechanics, musculoskeletal systems, ocular mechanics, etc.
T07: Mechanobiology of Disease
T08: Bioengineering & Synthetic Microenvironments
Cancer, fibrosis, cardiovascular disease, neurodegeneration. Mechanisms + modeling + translational aspects
Organoids, tissue engineering, 3D biomaterials, organ-on-chip, microfluidics, physiological simulations
T09: Rehabilitation Engineering & Human Movement Biomechanics
T10: Translational Biomechanics & Mechanomedicine
Performance, gait, prosthetics, sports science, wearable tech, motion capture
Mechanics-informed therapies, implant design, regenerative medicine, surgical planning
T11: AI/ML in Biomechanics and Mechanobiology
T12: Population-, Clinical-, and Public-Health Biomechanics
Surrogate modeling, predictive modeling, automated image analysis, computational discovery
Epidemiological biomechanics, injury biomechanics, aging, frailty, falls, global health mechanical challenges
T13: Neurology & Brain Computer Interface
T14: Biorobotics
Mechanics, modeling, and technologies for neural systems, neuromechanics, and brain–machine interaction.
Bio-inspired robotics, soft robots, prosthetics, and human–robot mechanical interaction
T15: Clinical Application, Translational Research & Industry
T16: Student Poster and Demonstration Session
Mechanics-driven diagnostics, therapeutics, devices, and pathways from lab to clinic and market
Student-led research highlights and demonstrations of emerging biomechanical tools and technologies