Multimedia About Basic Research
- NIMH Multimodal Brain Stimulation Speaker Series: Christian Windischberger, PhD and Faranak Farzan, PhD
- Unearthing Secrets of New Neurons
Heather Frank, then a senior majoring in neuroscience at Colgate University, explains studies on neurogenesis that she worked on during an internship in the NIMH Unit on Neuroplasticity.
- Channel Makover Switches Off Neurons in a Flash
Scientists have bioengineered an enhancement to a cutting edge technology that provides instant control over brain circuit activity with a flash of light. The research adds the same level of control over switching neurons off that, until now, had been limited to switching them on. What had been working through a weak pump now works through a highly responsive channel -- like going from a squirt to a gushing hose. Project officer Michelle Freund, Ph.D., of the NIMH Office of Technology Development and Coordination, explains the significance of the new findings.
Karl Deisseroth, M.D. Ph.D, Stanford University
Andre Berndt, Ph.D., Stanford University
Soo Yeun Lee, Ph.D., Stanford University
Charu Ramakrishnan, Stanford University - channels image
Michelle Freund, Ph.D., NIMH
Method of the Year 2010: Optogenetics-NatureVideo - animation
Optogenetics, Karl Deisseroth, Marina Coral, Nature Methods, 12/20/2010 - graphic
Richard Coppola, Sc.D., NIMH - MEG movie
Cristophe Lenglet, Ph.D., U. Minnesota - brain image
- Neurobiobank/Jill Bolte Taylor
Jill Bolte Taylor, Ph.D., a spokesperson for the Harvard Brain Tissue Resource Center, discusses why brain donation truly is the gift of hope.
- Dr. Michelle Freund, NIMH Project Officer on the significance of CLARITY
Project officer Michelle Freund, Ph.D., of the NIMH Division of Neuroscience and Basic Behavioral Science, explains the significance of CLARITY, a breakthrough method for analyzing the brain.
- 3-D Tour of Intact Mouse Brain
CLARITY makes possible this 3D tour of an entire, intact mouse brain. It was imaged using a fluorescence technique that previously could only be performed with thinly-sliced brain tissue, making it difficult to relate micro-level findings to macro-level information about wiring and circuitry. Source: Kwanghun Chung, Ph.D., and Karl Deisseroth, M.D., Ph.D., Stanford University.
This video has no audio.