Long particles are internalized by cancer cells more efficiently than are round particles.
Long particles are internalized by cancer cells more efficiently than are round particles.
A recent review article delineates engineering principles that may prove valuable for engineering complex nanosystems that can be discerned from the molecular mechanisms by which such biological molecular motors operate and are controlled.
A novel toroidal-shaped nanoparticle provides a nanotech way to image blood clots without using magnetic resonance imaging contrast agents that are toxic to some patients.
A major advance in mimicking protein function has been made by scientists working with peptoids.
Single walled carbon nanotube (SWNT) bundles may provide a nanotech method to activate certain cancer-fighting white blood cells outside a patient’s body in the hope that they will more effectively fight the patient’s cancer upon being returned to the patient.
A nanotech method to capture cancer cells and remove them from the body might be useful for combating ovarian cancer, in particular.
Researchers expect protein-conjugated quantum rods to be able to transport multiple agents across the blood-brain barrier so that they could function synergistically.
In experiments in mice, chemotherapy drugs encapsulated in nanoparticles targeted to the blood vessels that supply nutrients to tumor cells prevented the usually fatal spread of the cancer to additional sites.
The nanotech-prepared titanium surface serves as a sensor to detect bone formation.
An ‘artificial DNA’ in which the two natural DNA base pairs have been replaced by two non-natural base pairs may provide useful new nanotech building blocks.
