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Research areas

Advanced Materials & Interfacial Engineering

Overview

Leveraging excellence in nanoscale and molecular engineering and science, UW ChemE researchers design a broad range of advanced materials — from biocompatible coatings to plasmonic nanoparticles to electronic polymers — for applications in medicine, energy, and beyond. Our investigators are renowned for their expertise in biomaterials, colloids, polymers, and surface chemistry, and are pioneering methods to guide assembly, engineer defects and manipulate order over broad length scales to optimize material properties.

Research topics

  • Biocompatible materials
  • Bio-inspired materials
  • Surfaces and interfaces
  • Transport properties
  • Drug delivery
  • Nanostructured materials
  • Quantum materials
  • Defect engineering
  • Luminescent and plasmonic materials
  • Hybrid and hierarchical materials
  • Directed assembly

Featured research clusters

Surface engineering

Faculty: Berg, Bergsman, Overney, Posner, Ratner, Schwartz
UW ChemE researchers use advanced synthetic routes to control surface chemistry and structure at molecular and nanometer length scales. We are also recognized as experts in the molecular analysis of surfaces with ex-situ and in-situ probing. Applications of designed surfaces include water purification, biomedical devices, adhesives, catalysis, electronic devices and many others.

Biomaterials

Faculty: Baneyx, Beck, DeForest, Nance, Posner, Pozzo, Ratner
We design biological and bio-inspired materials for biomedical implants, nanomedicines, medical diagnostics, and chemical sensors, as well as for synthesizing hybrid organic–inorganic materials. We integrate molecular simulations, data sciences, advanced microscopy and scattering tools to gain insight into these complex systems.

Colloidal, polymeric and nanomaterials

Faculty: Berg, Holmberg, Hillhouse, Jenekhe, Posner, Pozzo, Sherman
Fundamental understanding of interactions at molecular, nano and colloidal scales is key to achieving control over properties that govern the real-world behavior of dispersions and polymers. ChemE researchers have literally written the book on the rules for controlling soft matter systems

Campus opportunities

In the curriculum

Related News

Wed, 07/19/2017 | Chemical Engineering

Building a Better Battery

Imagine revolutionizing the renewable energy market with the silica gel packets you find in shoeboxes and snack bags. The research team behind Membrion is working to do just that. Developed by chemical engineering researchers Greg Newbloom (PhD ’14) and Weyerhaeuser Endowed Associate Professor Lilo Pozzo, the Membrion technology seeks to innovate battery storage with a lower cost, improved battery membrane that uses silica gel. And, the team says, they couldn’t be doing it without the support of partners on and off campus committed to advancing alternative energy research, innovation and commercialization.