April 16, 2024
Hang 1xbet online sports betting to present Biochemistry and Molecular Biophysics Seminar
Submitted by Biochemistry and Molecular Biophysics
Hang 1xbet online sports betting , Georgia Institute of Technology professor of chemical and biological engineering, will be the featured speaker for this week's Biochemistry and Molecular Biophysics Seminar. 1xbet online sports betting will present "Microtechnology and Deep Learning for Neurogenetics" at 4 p.m. Wednesday, April 17, in Room 120 of Ackert Hall.
1xbet online sports betting 'slab is interested in engineering machine learning tools and microsystems to address questions in systems neuroscience, developmental biology and cell biology that are difficult to answer with conventional techniques. Microfluidics provide the appropriate length scale for investigating molecules, cells and small organisms; moreover, one can also take advantage of unique phenomena associated with small-scale flow and field effects, as well as unprecedented parallelization and automation to gather quantitative and large-scale data about complex biological systems. In parallel, ML technologies have now vastly expanded the capabilities for scientific inquiry, both in data processing and data interpretation.
1xbet online sports betting 's lab is particularly interested in the questions of how the brain is assembled during development — and changes during aging — and information is processed by brain circuits. We work with a powerful genetic system — the free-living soil nematode C. elegans. In this talk,1xbet online sports betting will introduce powerful mathematical and physics-based tools to accelerate the biological understanding.1xbet online sports betting will talk about two recent developments in discrete microfluidic systems exploiting multiphase and dynamical behavior of the fluids and microswimmers — i.e. C. elegans — (Aubry, Small, 2022; Sun, Adv Healthcare Mat'l, 2021).
1xbet online sports betting will also talk about a powerful graph-theory-based framework to build probabilistic models of brain atlases (Chaudhary, eLife, 2021), as well as a deep-learning tool to denoise calcium activities in the brain (Chaudhary, NComm, 2022). These machine-learning approaches greatly reduce bias, enable automated and robust cell identification and signal extraction, and will enable a variety of applications including gene-expression analysis, whole-brain imaging and connectomics.