A new platform for controlled delivery of key nanoscale drugs and more
The novel approach, developed by MIT chemical engineers, could help create more efficient consumer products, including drugs, cosmetics, and food.
The novel approach, developed by MIT chemical engineers, could help create more efficient consumer products, including drugs, cosmetics, and food.
MIT engineers devise a temporary film that may help treat diabetes, infections, and other conditions.
Researchers have designed a simple, low-cost device for subcutaneous injection of viscous formulations.
A new computational method fine-tunes delivery of therapeutics to specific brain regions.
MIT engineers are using computing modeling to prevent microparticles from clogging during injections.
Certain cancer therapeutics concentrate within cells — a finding that could change the way scientists think about drug design.
Studies of drug absorption in the small intestine could help researchers identify medicines that can be taken orally.
Long-lasting capsule can remain in the stomach and release contraceptive drugs over several weeks.
Coating particles with “right-handed” molecules could help them penetrate cancer cells more easily.
Materials could be useful for delivering drugs or imaging agents in the body; may offer alternative to some industrial plastics.
Study shows tumors with softer, larger cells at their periphery are more likely to spread; may suggest new route for cancer therapy.
Coated pill carries microneedles that deliver insulin and other drugs to the lining of the small intestine.
Magnetically controlled device could deliver clot-reducing therapies in response to stroke or other brain blockages.
Smart materials change properties in response to specific DNA sequences; could be used in a variety of devices.
Magnetic particles allow drugs to be released at precise times and in specific areas.