Recognizes highly distinguished research on the brain, spinal cord or peripheral nervous system. Nominations require the official form and a current CV without a full publication list; up to two support letters are welcome. Materials must be in English and received by 15 December 2026.
Parallel ascending spinal pathways for affective touch and pain
Seungwon (Sebastian) Choi · Harvard
Wed, Oct 21, 2020 · 08:30 UTC
Each day we experience myriad somatosensory stimuli: hugs from loved ones, warm showers, a mosquito bite, and sore muscles after a workout. These tactile, thermal, itch, and nociceptive signals are detected by peripheral sensory neuron terminals distributed throughout our body, propagated into the spinal cord, and then transmitted to the brain through ascending spinal pathways. Primary sensory neurons that detect a wide range of somatosensory stimuli have been identified and characterized. In contrast, very little is known about how peripheral signals are integrated and processed within the sp
How the brain comes to balance: Development of postural stability and its neural architecture in larval zebrafish
David Schoppik · New York University Grossman School of Medicine
Thu, Jul 2, 2020 · 13:00 UTC
Maintaining posture is a vital challenge for all freely-moving organisms. As animals grow, their relationship to destabilizing physical forces changes. How does the nervous system deal with this ongoing challenge? Vertebrates use highly conserved vestibular reflexes to stabilize the body. We established the larval zebrafish as a new model system to understand the development of the vestibular reflexes responsible for balance. In this talk, I will begin with the biophysical challenges facing baby fish as they learn to swim. I’ll briefly review published work by David Ehrlich, Ph.D., establishin