University of Washington and Microsoft researchers develop "nanopore-tal" enabling cells to talk to computers

The research team, which includes MolE graduate student Nicolas Cardozo, introduce a new class of reporter proteins that can be directly read by a commercially available nanopore sensing device. The new system "• dubbed "Nanopore-addressable protein Tags Engineered as Reporters," also known as NanoporeTERs or NTERs for short "• can perform multiplexed detection of protein expression levels from bacterial and human cell cultures far beyond the capacity of existing techniques.

MolES faculty members elected to Washington State Academy of Sciences

Chemistry Professors Alshakim Nelson and Munira Khalil are among the 38 new members of the Washington State Academy of Sciences recognized for their "outstanding record of scientific and technical achievement and willingness to work on behalf of the Academy to bring the best available science to bear on issues within the state of Washington."

Role of solvent molecules in light-driven electron transfer revealed

An artistic depiction of small molecules moving within a solvent
In a study published in Nature Chemistry, a research team led by MolES faculty member Munira Khalil, professor and chair of chemistry at the UW, has captured the rapid motions of solvent molecules that impact light-driven electron transfer in a molecular complex for the first time. This information could help researchers learn how to control energy flow in molecules, potentially leading to more efficient clean energy sources.

MolES 2019-20 Annual Report

Annual report cover

The Molecular Engineering & Sciences Institute annual report for the 2019-20 academic year is now available. Learn about the work being done at MolES and the MAF by our faculty, students, and staff! The report features a snapshot of our institute, research highlights, faculty awards, our work to address racism in STEM, graduating students, and letters from the MolES and MAF directors.

Read the full report here. Read More

Researchers use lasers and molecular tethers to create perfectly patterned platforms for tissue engineering

Image of a biological scaffold for tissue engineering that has had proteins tethered to it in a specific pattern, in this case the University of Washington's former logo
MolES faculty member Cole DeForest and colleagues have developed a technique to modify naturally occurring biological polymers with protein-based biochemical messages that affect cell behavior. Their approach, published in the Proceedings of the National Academy of Sciences, uses a near-infrared laser to trigger chemical adhesion of protein messages to a scaffold made from biological polymers such as collagen, a connective tissue found throughout our bodies.