Yimin Luo

Assistant Professor

Yale 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

Yimin Luo is an Assistant Professor at Yale University in the United States. His research focuses on cell shape transformation, polymerization kinetics, and the dynamics of active matter, as evidenced by his recent articles. He explores topics such as coacervate emulsions, anisotropic hydrogels, and the behavior of colloidal micro-robots to advance understanding in the fields of microscopy and materials science.

Articles (15)

Year:

2025

Year:

2025

Year:

2024

Year:

2024

Year:

2024

Year:

2023

Year:

2023

Year:

2022

Year:

2022

Year:

2022

Year:

2022

Year:

2021

Year:

2021

Year:

2020

Year:

2020

Collaborators (4)

Matthew Helgeson

Assistant Professor

University of California, Santa Barbara

UNITED STATES

View details

francesca serra

Associate Professor

University of Southern Denmark

DENMARK

View details

Tianyi Yao

University of Pennsylvania

UNITED STATES

View details

Megan Valentine

Professor

University of California, Santa Barbara

UNITED STATES

View details

ApplyKite TwinLearns as you apply

Make your next move.

Prepare your application

Review drafts before you send them.

Yimin Luo

Research Interests

Explore related searches

Contact this professor

About

Articles (15)

Cell‐Sheet Shape Transformation by Internally‐Driven, Oriented Forces

Optimizing gelation time for cell shape control through active learning

Evaluating polymerization kinetics using microrheology

Ab initio uncertainty quantification in scattering analysis of microscopy

Disodium Cromoglycate Templates Anisotropic Short-Chain PEG Hydrogels

Data-Driven Model Construction for Anisotropic Dynamics of Active Matter

Coacervate or precipitate? Formation of non-equilibrium microstructures in coacervate emulsions

Nematic Colloidal Micro‐Robots as Physically Intelligent Systems

Topological defect-propelled swimming of nematic colloids

High-throughput microscopy to determine morphology, microrheology, and phase boundaries applied to phase separating coacervates

Microstructure of continuous shear thickening colloidal suspensions determined by rheo-VSANS and rheo-USANS

Uncertainty quantification and estimation in differential dynamic microscopy

Microstructure and rheology of shear-thickening colloidal suspensions with varying interparticle friction: Comparison of experiment with theory and simulation models

One-step, in situ jamming point measurements by immobilization cell rheometry

Experimental test of a frictional contact model for shear thickening in concentrated colloidal suspensions

Collaborators (4)

Matthew Helgeson

francesca serra

Tianyi Yao

Megan Valentine

Make your next move.