Jennifer Ross

Professor

Syracuse University

United States

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Jennifer Ross is a Professor at Syracuse University in the United States. Her research areas focus on the interactions between biological materials and soft matter, with recent publications covering topics such as cytoskeletal dynamics, enzyme tethering to DNA, and the mechanical properties of cellular composites. Through her work, she explores applications in both physics and biology, contributing to advancements in the understanding of molecular transport and self-assembly processes.

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UNITED STATES

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Jennifer Ross

Research Interests

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Articles (22)

Strengthening Your Networks and Responding to Stress and Strain: What Humans in STEM Can Learn from Soft Matter and Biological Materials

Kinesin‐Driven De‐Mixing of Cytoskeleton Composites Drives Emergent Mechanical Properties

Learning physics and biology from cytoskeletal and condensate interactions

A method for site-specifically tethering the enzyme urease to DNA origami with sustained activity

DNA Transport is Topologically Sculpted by Active Microtubule Dynamics

Protocol for purifying biologically active microtubule-severing protein UNC-45A from E.coli using GST-affinity and spin columns

Multimotor cargo navigation in microtubule networks with various mesh sizes

Programming scheduled self-assembly of circadian materials

Active and passive crosslinking of cytoskeleton scaffolds tune the effects of cell inclusions on composite structure

Ionic strength alters crosslinker‐driven self‐organization of microtubules

Kinesin and myosin motors compete to drive rich multiphase dynamics in programmable cytoskeletal composites

Interplay of self-organization of microtubule asters and crosslinking protein condensates

A Tale of 12 Tails: Katanin Severing Activity Affected by Carboxy-Terminal Tail Sequences

Effects of cytoskeletal network mesh size on cargo transport

Lateral and longitudinal compaction of PRC1 overlap zones drives stabilization of interzonal microtubules

Nonequilibrium fluctuations and nonlinear response of an active bath

Controlling Liquid Crystal Configuration and Phase Using Multiple Molecular Triggers

Sustained order–disorder transitions in a model colloidal system driven by rhythmic crosslinking

Crowder and surface effects on self-organization of microtubules

Active cytoskeletal composites display emergent tunable contractility and restructuring

Direct Observation of Liquid Crystal Droplet Configurational Transitions using Optical Tweezers

Actin and microtubule crosslinkers tune mobility and control co-localization in a composite cytoskeletal network

Collaborators (6)

Aaron Wolfe

Ruxandra I. Dima

Megan Valentine

Wylie Ahmed

William Rogers

Ryan McGorty

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