Researchers in McGill’s Department of Physics have developed a new device that can trap and study DNA molecules without touching or damaging them. The device, which uses carefully tuned electric fields, offers scientists unprecedented control over how DNA behaves in real time, creating the opportunity for faster, more precise molecular analysis that could improve diagnostics, genome mapping and the study of disease-related molecules.

Classified as: Matheus Azevedo Silva Pessôa, Sara Mahshid, Walter Reisner, nanofluids, nanobiophysics, bioengineering
Published on: 2 Oct 2025

McGill University researchers have chemically imprinted polymer particles with DNA strands – a technique that could lead to new materials for applications ranging from biomedicine to the promising field of “soft robotics.”

In a study published in Nature Chemistry, the researchers describe a method to create asymmetrical polymer particles that bind together in a spatially defined manner, the way that atoms come together to make molecules.

Classified as: Hanadi Sleiman, chemistry, scaffolds, DNA, University of Vermont, soft robotics, drug delivery, Texas A&M, bioengineering, dna-imprinted polymer
Published on: 19 Dec 2017

By Cynthia Lee, McGill Newsroom

It’s not unusual for siblings to seem more dissimilar than similar: one becoming a florist, for example, another becoming a flutist, and another becoming a physicist.

Classified as: McGill University, DNA, disease, genes, diversity, bioengineering, health and lifestyle, proteins, brood, isoforms, human cells, splicing, Dana-Farber Cancer Institute, University of California, San Diego School of Medicine, Yu Xia
Published on: 11 Feb 2016
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