Having sensitive, lightweight, and portable gas-sensing systems could be helpful for a variety of different users: people with asthma searching for their triggers, soldiers at risk of chemical attack, or industrial workers facing toxic gas exposures.
Johns Hopkins engineers are developing a new kind of camera to help self-driving vehicles better detect obstacles and surrounding traffic and prevent accidents.
Jeff Siewerdsen and his team are advancing imaging technologies that will make surgery more precise and improve patient safety.
Stand in front of this “magic mirror,” and it seems to peer beneath your skin, revealing bones, major organs, blood vessels, and muscles.
Yannis Kevrekidis and his collaborators work on algorithms that exploit data to enhance, or even circumvent, conventional modeling of chemical and biological systems, and help scientists better predict system behavior—from reaction rates to materials properties.
Arrhythmias linked to sudden cardiac death are very rare, making it difficult to study how they occur—and how they might be prevented. To make it much easier to discover what triggers this deadly disorder Johns Hopkins scientists constructed a powerful new computer model that replicates the biological activity within the heart that precedes sudden cardiac death.
Johns Hopkins scientists conducted research analysis for the most expansive study ever conducted on how genetic patterns lead to molecular changes within specific tissues.
Biochemical engineers at Johns Hopkins University have used sequences of DNA molecules to induce shape changing in water- based gels, demonstrating a new tactic to produce soft robots and “smart” medical devices that do not rely on cumbersome wires, batteries, or tethers.
Notable quotes and comments from Johns Hopkins Engineering faculty members.