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executed, ideally involving 3D image analysis, inverse problems, or physics-informed modeling. Cryo-EM/ET and computational structural biology projects are especially relevant. Discuss results, limitations
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health and welfare benefits. Access to advanced facilities in instrument design and fabrication, imaging, and computation. The opportunity to engage with world-class researchers, software engineers and AI
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light microscopy imaging methodologies, including confocal, and light-sheet microscopy, hydrogel-tissue engineering, data analysis, and project management. 1-2 years of experience post-PhD is preferred
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of a vision transformer, U-Net architecture, or Diffusion model that you trained yourself. Projects in computer vision for microscopy image analysis are especially relevant. Include a link to a code
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use of supervised fine tuning of a pre-trained vision transformer, U-Net architecture, or related topic. Projects in computer vision for microscopy image analysis are especially relevant. Include a link
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engineering, including multiphoton microscopy and wavefront shaping. Using these novel imaging tools, the lab seeks to advance our understanding of previously underexplored biology, while contributing
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join the Henry Lab at the Massachusetts Institute of Technology (MIT), led by Dr. Whitney Henry, an HHMI Freeman Hrabowski Scholar. The Henry Lab investigates the fundamental biology of ferroptosis
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students and junior researchers Collaborates closely with lab members, facility staff, and research partners. What you bring: A PhD in neuroscience or related field of the life sciences. A PhD in engineering
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receptors (ORs) lays the groundwork for the rational design of novel classes of insect repellents to control human disease vectors, and to engineer synthetic diagnostic “noses” to detect human disease