Turning bacteria into chemical factories
Kristala Jones Prather engineers cells to produce useful compounds such as drugs and biofuels.
Kristala Jones Prather engineers cells to produce useful compounds such as drugs and biofuels.
Carbon nanotubes that detect nitric oxide can be implanted under the skin for more than a year.
New nanoparticles weaken tumor-cell defenses, then strike with chemotherapy drug.
Startup Semprus Biosciences develops a permanent solution for keeping bacteria off implanted medical devices.
Researchers find that tiny molecules passing through nanotubes can be propelled or slowed depending on their size.
Institute’s undergraduate engineering program is again ranked No. 1; undergraduate business program is No. 2.
Unusual reaction, never fully understood, is important to fuel combustion, atmospheric chemistry and biochemistry.
Fog-harvesting system developed by MIT and Chilean researchers could provide potable water for the world’s driest regions.
Chemical engineers find that arrays of carbon nanotubes can detect flaws in drugs and help improve production.
Understanding the properties that control surface dissipation of heat could lead to improved power plants and electronics with high heat-transfer rates.
New research enables high-speed customization of novel nanoparticles for drug delivery and other uses.
Proposed method could be more efficient than previous systems and easier to retrofit in existing power plants.
Helping RNA escape from cells’ recycling process could make it easier to shut off disease-causing genes.
Chemical engineers’ new synthesis could make biofuel more appealing for mass production.
Sam Shaner recognized for contributing to spirit of entrepreneurship at the Institute