MIT engineers create nanoparticles for delivering personalized cancer vaccines
The particles carry a customized dose of cancer antigens that can provoke a strong immune response against tumors.
The particles carry a customized dose of cancer antigens that can provoke a strong immune response against tumors.
By tracking over 1 million cells, researchers created a detailed map of embryonic development in mice. It could provide development and disease insights.
This targeted approach could offer a way to prevent the recurrence of aggressive brain tumors.
A new approach can program these cells inside the body and shows promise against diseases caused by dysfunctional T cells, including lymphoma and autoimmune hepatitis.
Some tumor cells develop resistance by amplifying the KRAS gene, while others change their tumor type, MIT researchers have found.
They also found that obesity may put patients at higher risk for activation of the pathway. Drugs that block the pathway may help prevent metastasis.
MIT researchers developed a handheld system that gently collects living cells from patient samples to aid cancer testing and development of personalized medicines.
This summer, BSG-MSRP-Bio student Marina Milea investigated how lung cancers become resistant to targeted therapies, gaining hands-on research experience in the Jacks Lab at the Koch Institute.
MIT researchers show implanted nanoantennas can be activated wirelessly to kill brain cancer cells without damage to healthy tissue.
This discovery points toward new combination strategies against cancer, and may explain the iron buildup seen in disorders such as early-onset Parkinson’s disease.
MIT researchers’ approach, which uses naturally occurring sugars as antifreeze, could make it easier for hospitals to deploy this type of cancer treatment.
A new study by MIT researchers shows that inhibiting caspase-1 can reduce the risk of tumor growth.
MIT researchers discovered a cellular dance that may offer clues to the development of cancer, asthma, and other diseases.
A new short film from MIT Open Learning explores the influential career of Institute Professor and School of Engineering Dean Paula Hammond.
Derived from patient tumor samples and available to researchers around the world, the cells will aid the development of new cancer treatments.