Research
  /  
Areas of Research
Polymers and Soft Materials

Soft materials and polymers are ubiquitous in our lives and form the basis of many advances in medicine, sustainability, manufacturing, and clean water access. What makes these materials unique is that their structure and dynamics span multiple length- and time- scales, and these microscopic characteristics can be engineered to control material properties. At Northwestern, researchers seek to discover and exploit these relationships to design materials that improve the performance of technologies that address important societal challenges including lowering the cost of renewable energy generation and storage, generating renewable fuels, circularizing the plastics economy, and creating the next-generation of high-performance composites.

Research Areas

Areas of emphasis for faculty in our department include controlling electronic and ionic transport, enhancing mechanical durability and reprocessability, enabling the next generation of soft robots and flexible electronics, and discovering new material properties and structure-property relationships. These efforts are informed by a deep expertise in synthesis, fabrication, and characterization techniques including small angle scattering, optical microscopy, electrochemical measurements, rheology and mechanics, and simulation.

At Northwestern, the soft matter and polymer research community is vibrant and includes faculty from diverse personal and academic backgrounds. The proximity to Argonne National Laboratory, our strong inter-departmental relationships, and the International Institute for Nanotechnology (IIN) make our department and Northwestern a hub for soft matter and polymer research world-wide.

Faculty

Photo of Linda Broadbelt

Linda Broadbelt

Sarah Rebecca Roland Professor

Professor of Chemical and Biological Engineering

Senior Associate Dean

Email Linda Broadbelt

The Broadbelt Lab is developing polyurethanes that can be recycled via simple thermal treatment or from which monomer can be recovered by solvolytic means.

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Wesley Burghardt

Professor of Chemical and Biological Engineering

Associate Dean of Undergraduate Engineering

Email Wesley Burghardt

The Burghardt lab seeks to understand the dynamics of complex fluids and polymers during flow.

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Ella King

Assistant Professor of Chemical and Biological Engineering (beginning on September 1, 2026)

Assistant Professor of Materials Science and Engineering (beginning on September 1, 2026)

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Sam Kriegman

Assistant Professor of Computer Science

Assistant Professor of Mechanical Engineering

Assistant Professor of Chemical and Biological Engineering

Email Sam Kriegman

Photo of Jeffrey Lopez

Jeffrey Lopez

Assistant Professor of Chemical and Biological Engineering

Email Jeffrey Lopez

Polymeric materials for energy storage applications, charge transport in polymer membranes, reactions at electrochemical interfaces, automated experimentation

Photo of Tobin Marks

Tobin Marks

Vladimir N. Ipatieff Professor of Catalytic Chemistry and Chemical and Biological Engineering and (by courtesy) Materials Science and Engineering

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The Marks group has chemists and engineers working on waste polymer deconstruction and recycling, solar energy, and efficient hydrocarbon utilization.

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Jeffrey Richards

Associate Professor of Chemical and Biological Engineering

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The Richards Laboratory studies the properties of soft materials and engineers them for applications including renewable energy storage and new sensors.

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Krishna Shrinivas

Assistant Professor of Chemical and Biological Engineering and (by courtesy) Engineering Sciences and Applied Mathematics and Cell and Developmental Biology

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John Torkelson

Walter P. Murphy Professor of Chemical and Biological Engineering and Materials Science and Engineering

Email John Torkelson

The Torkelson group seeks to both understand molecular-scale behavior of polymers to engineer their properties by tuning molecular-scale responses via dynamic chemistry, nanoscale confinement, chain architecture, and novel solid-state processing, among other methods.

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Danielle Tullman-Ercek

James N. and Nancy J. Farley Professor in Manufacturing and Entrepreneurship

Professor of Chemical and Biological Engineering

Director, Master of Science in Biotechnology Program

Email Danielle Tullman-Ercek

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Lisa Volpatti

Assistant Professor of Biomedical Engineering

Assistant Professor of Chemical and Biological Engineering

Email Lisa Volpatti

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Muzhou Wang

Associate Professor of Chemical and Biological Engineering

Email Muzhou Wang

The Wang Laboratory uses optics, synthesis, and high-throughput characterization to understand and design polymers for biomaterials and sustainability.

Courtesy

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Richard Lueptow

Professor of Mechanical Engineering and (by courtesy) Chemical and Biological Engineering

Senior Associate Dean

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The Lueptow lab combines modeling, simulation, and experiments to study mixing in granular materials and transport processes in polymeric materials.

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Chad Mirkin

George B. Rathmann Professor of Chemistry, Materials Science and Engineering, and (by courtesy) Chemical and Biological Engineering and Biomedical Engineering

Director, International Institute for Nanotechnology

Email Chad Mirkin

The Mirkin lab uses spherical nucleic acids for the monitoring and manipulation of biological processes at the single-cell, tissue, and whole organism level.

Photo of Monica Olvera de la Cruz

Monica Olvera de la Cruz

Lawyer Taylor Professor of Materials Science and Engineering, Chemistry and (by courtesy) Chemical and Biological Engineering, Physics and Astronomy

Director, Center for Computation & Theory of Soft Materials

Deputy Director, Center for Bio-Inspired Energy Science

Email Monica Olvera de la Cruz

The Olvera de la Cruz group develops models to study the self-assembly and structure of amphiphiles, copolymers, and synthetic and biological polyelectrolytes as well as segregation and interface adsorption in multicomponent complex fluids.

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George Schatz

Professor of Chemistry and (by courtesy) Chemical and Biological Engineering

Email George Schatz

Schatz uses molecular dynamics and electronic structure theory methods to describe self-assembly of biopolymers, and polymer mechanical/structural properties.

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Igal Szleifer

Christina Enroth-Cugell Professor of Biomedical Engineering

Professor of Chemistry

Professor of Chemical and Biological Engineering

Professor of Medicine

Email Igal Szleifer

The Szliefer group develops molecular models of biointerphases to gain fundamental understanding of the properties of complex molecular systems that encompass problems at the interface between medicine, biology, chemistry, physics and materials science.