Mirrored chip could enable handheld dark-field microscopes
Simple chip powered by quantum dots allows standard microscopes to visualize difficult-to-image biological organisms.
Materials Research Science and Engineering Center welcomes ultra-high vacuum microscopes
Transmission electron microscope and scanning tunneling microscope offer unique capabilities.
Creating new opportunities from nanoscale materials
MIT Professor Frances Ross is pioneering new techniques to study materials growth and how structure relates to performance.
A chemical approach to imaging cells from the inside
Researchers develop a new microscopy system for creating maps of cells, using chemical reactions to encode spatial information.
Scope advance gives first look through all cortical layers of the awake brain
Substantial refinements of three-photon microscopy allow for novel discoveries in neuroscience.
Solving a multi-million dollar problem
In MIT visit, BP chemist details new X-ray and sample chamber technologies, yielding insights into fighting metal corrosion, improving catalytic reactions, and more.
During IAP, MIT community steps out of its comfort zone
For a campus that prizes creative risk-taking, Independent Activities Period is a cultural touchstone.
![“…[I]f a fluorescence microscope’s resolution is set at 2 micrometers, our technique can have 300 nanometer resolution — about a sixfold improvement over regular microscopes,” says MIT graduate student Frederick Sangyeon Cho. “The idea is very simple but very powerful and can be useful in many different imaging applications.”](/sites/default/files/styles/term_page__news_article/public/images/201611/MIT-Laser-Particles.jpg?itok=6w5kR_BC)
Laser particles could provide sharper images of tissues
New imaging technique stimulates particles to emit laser light, could create higher-resolution images.
Imaging the brain at multiple size scales
New technique can reveal subcellular details and long-range connections.
Cell squeezing enhances protein imaging
Compressing cells allows delivery of new fluorescent tags to track proteins in living cells.
New microscope creates near-real-time videos of nanoscale processes
Instrument scans images 2,000 times faster than commercial models.
Protein imaging reveals detailed brain architecture
New technique could contribute to efforts to map the human brain.
Automating single-molecule image studies
MIT physics graduate student James Owen Andrews is developing software to improve dynamic image capture from super-resolution fluorescent microscopes.
Faculty Highlight: Ibrahim Cissé
Assistant professor of physics probes the formation of enzyme clusters that enable gene copying and protein production in living cells.
