Meredith Silberstein

Assistant Professor

Cornell University

United States

Research Interests

Explore related searches

Professors in United States

Contact this professor

Get a free first email built on one of their papers, ready for you to edit and send yourself.

About

Meredith Silberstein is an Assistant Professor at Cornell University, USA. Her research focuses on the mechanical properties of materials, including plant cell walls, hydrogels, and elastomers, as well as modeling approaches for ionic circuits and polymer composites. Recent publications explore topics such as the design of dynamic materials and the implications of microstructure on mechanical behavior.

Articles (18)

Year:

2025

Year:

2025

Year:

2025

Year:

2025

Year:

2025

Year:

2024

Year:

2024

Year:

2024

Year:

2023

Year:

2023

Year:

2023

Year:

2022

Year:

2022

Year:

2022

Year:

2022

Year:

2022

Year:

View details

Kristopher A. Kilian

University of New South Wales

AUSTRALIA

View details

ApplyKite TwinLearns as you apply

Make your next move.

Prepare your application

Review drafts before you send them.

Meredith Silberstein

Research Interests

Explore related searches

Contact this professor

About

Articles (18)

Fibrous network nature of plant cell walls enables tunable mechanics for development

Harnessing ionic complexity: A modeling approach for hierarchical ionic circuit design

Bond exchange reactions as a paradigm for mitigating residual stress in polymer matrix fiber composites

A foundational framework for the mesoscale modeling of dynamic elastomers and gels

Regulating hydrogel mechanical properties with an electric field

Modeling the Transient Behavior of Ionic Diodes with the Nernst–Planck–Poisson Equations

Elucidating the impact of microstructure on mechanical properties of phase-segregated polyurea: Finite element modeling of molecular dynamics derived microstructures

Engineering bacterial biomanufacturing: characterization and manipulation of Sphingomonas sp. LM7 extracellular polymers

Understanding How Metal–Ligand Coordination Enables Solvent Free Ionic Conductivity in PDMS

Mechanical Properties of Highly Deformable Elastomeric Gyroids for Multifunctional Capacitors

A constitutive model for elastomers tailored by ionic bonds and entanglements

Enabling Tunable Water‐Responsive Surface Adaptation of PDMS via Metal–Ligand Coordinated Dynamic Networks

Modeling coupled electrochemical and mechanical behavior of soft ionic materials and ionotronic devices

Examining the impact of asymmetry in lattice-based mechanical metamaterials

Structural aspects controlling the mechanical and biological properties of tough, double network hydrogels

Highly stretchable ionically crosslinked acrylate elastomers inspired by polyelectrolyte complexes

Chain breaking in the statistical mechanical constitutive theory of polymer networks

Pathways to tough yet soft materials

Collaborators (6)

Jingjie Yeo

Robert Wagner

Adrienne Roeder

Anthony S. Clare

Brett P. Fors

Kristopher A. Kilian

Make your next move.