Philip Bayly

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Professor

Washington University in St. Louis

United States

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About

Philip Bayly is a Professor at Washington University in Saint Louis, USA. His research focuses on various aspects of biomechanics, particularly in relation to brain development and mechanical properties of biological tissues. Recent publications include studies on cortical folding, magnetic resonance elastography, and the mechanical stiffness of the brain. He is also involved in the design of 3D-printed hydrogel lattices with anisotropic properties.

Recent Grants

Grant: Close

Skull-brain interactions and anisotropic brain material properties measured by MR Elastography

Open Date: 2022-03-01

Close Date: 2025-02-28

Grant: Close

Linking Brain Deformation to Environmental Sensor Data via Validating a Gyrated Human Head Phantom Under Impulsive Loading

Open Date: 2020-10-01

Close Date: 2021-09-01

Grant: Close

MRI Measurement of the Mechanical Vulnerability of the Brain

Open Date: 2019-09-15

Close Date: 2024-07-31

Grant: Close

Connecting the mechanobiology of tissue and cells in cerebral cortical folding

Open Date: 2019-07-15

Close Date: 2024-04-30

Grant: Close

High-Resolution, Anisotropic MR Elastography of the Brain

Open Date: 2019-02-01

Close Date: 2023-12-31

Articles (17)

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2022

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2022

Collaborators (6)

Kshitiz Upadhyay

Assistant Professor

Louisiana State University

UNITED STATES

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Ulugbek S. Kamilov

Washington University in St. Louis

UNITED STATES

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Kevin Eckstein

Washington University in St. Louis

UNITED STATES

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John Meacham

Assistant Professor

Washington University in St. Louis

UNITED STATES

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Susan Dutcher

Professor

Washington University in St. Louis

UNITED STATES

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Curtis Johnson

University of Delaware

UNITED STATES

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Philip Bayly

Research Interests

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About

Recent Grants

Articles (17)

Mechanically anisotropic phantoms for magnetic resonance elastography

Force and energy transmission at the brain-skull interface of the minipig in vivo and post-mortem

Mechanical stress connects cortical folding to fiber organization in the developing brain

Effects of anatomy and head motion on spatial patterns of deformation in the human brain

Structural tuning of anisotropic mechanical properties in 3D-Printed hydrogel lattices

Post-mortem changes of anisotropic mechanical properties in the porcine brain assessed by MR elastography

Theoretical relationships between axoneme distortion and internal forces and torques in ciliary beating

Robust acoustic trapping and perturbation of single-cell microswimmers illuminate three-dimensional swimming and ciliary coordination

Mechanical stiffness and anisotropy measured by MRE during brain development in the minipig

Design and characterization of 3-D printed hydrogel lattices with anisotropic mechanical properties

Effects of stress-dependent growth on evolution of sulcal direction and curvature in models of cortical folding

In vivo estimation of anisotropic mechanical properties of the gastrocnemius during functional loading with MR elastography

Development and validation of subject-specific 3D human head models based on a nonlinear visco-hyperelastic constitutive framework

Islet primary cilia motility controls insulin secretion

Generation of ciliary beating by steady dynein activity: the effects of inter-filament coupling in multi-filament models

Mapping heterogenous anisotropic tissue mechanical properties with transverse isotropic nonlinear inversion MR elastography

Estimation of the mechanical properties of a transversely isotropic material from shear wave fields via artificial neural networks

Collaborators (6)

Kshitiz Upadhyay

Ulugbek S. Kamilov

Kevin Eckstein

John Meacham

Susan Dutcher

Curtis Johnson

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