Researchers from MIT have now found a safe and efficient way to get large molecules through the cell membrane, by squeezing the cells through a narrow constriction that opens up tiny, temporary holes in the membrane.
A computer simulation shows the way a patch of nutrient material is pulled apart into swirling filaments by turbulence in the water, eventually dissolving away completely.
Jellyfish-inspired device that rapidly and efficiently captures cancer cells from blood samples could enable better patient monitoring.
MIT researchers answer a longstanding question in biology: How do cells know when to progress through the cell cycle?
A team of researchers at MIT has discovered a way to harness the wrinkling process in a controlled and orderly way.
Learn more about how the Love lab is using miniature micro titer plates and micro fluidics to evaluate populations of cells, maximize their productivity, and ultimately improve the process for developing cancer biologics.
Learn more about how the Love lab is using miniature micro titer plates and micro fluidics to evaluate populations of cells, maximize their productivity, and ultimately improve the process for developing cancer biologics.
Marine microbes -- though invisible to the naked eye -- perform functions that are vital for the health of the ocean. With no vision or hearing, they navigate their environment by following chemical signals. One of these chemicals, DMSP, elicits attraction among several marine microorganisms. ...
Professor Joel Voldman of MIT discusses research and education in his group, and the intellectual challenges facing engineers at the frontiers of applying microtechnology to cell biology.