Alexander-Katz group: lipid bilayer physics, biopolymer physics, self-assembly
Anikeeva lab: bioelectronics, flexible neural probes, optoelectronics, magnetic devices
Baker lab: computational protein engineering, de novo protein design, the protein folding problem, homology modeling, ab initio modeling, crowdsourcing methods for protein folding
Barron group: using the bee brain as a basis for understanding cognition, biomimetic artificial intelligence, insect neurobiology
Berger group: hippocampal prosthesis, brain-brain interfacing, signal processing, implantable neuroelectronics
Boyden lab: synthetic neurobiology, expansion microscopy, optogenetic tools, connectomics, directed evolution, protein engineering, optical tools for neuroscience
Bruns lab: nanomechanical devices, supramolecular chemistry, rotaxanes
Chittka lab: honeybee neurobiology and ecology, sensory neurobiology of honeybees, computational neuroscience
Chung lab: CLARITY, related tools for connectomics
Church lab: synthetic biology, DNA nanotechnology, tools for systems biology, evolutionary biology, genome engineering, CRISPR, aging research, tissue engineering, nanopore sequencing
Cohen lab: computational approaches to neural oscillations, experimental approaches to neural oscillations
Covert lab: computational systems biology, whole-cell simulation, reporters for live-cell imaging, computational image analysis for live-cell imaging
Cronin group: molecular computing, information theory in chemistry, automated synthetic chemistry, understanding the origin of life by exploring chemical processes
Dionne group: biophotonics, nanophotonics, upconversion nanoparticles, tools for visualizing chemical processes, surface plasmon resonance, nanoparticle-based reporters for mechanobiology and electrophysiology
Douglas lab: DNA nanotechnology, protein engineering, nanorobotics
Doyle group: microparticles for biomedicine, microfluidics, DNA polymer physics
Frangakis group: structural biology, cryo-electron tomography for imaging cellular organization, integrating data from atomic resolution reconstruction techniques with cryo-electron tomography, pattern recognition methods to find spatial locations of biomolecules in 3D cryo-electron tomograms
Häusser group: neural computations in the cerebellum and neocortex, recording neural activity with Neuropixels, focused ion beam scanning electron microscopy for connectomics, simultaneous two-photon imaging and optogenetic manipulation, patch-clamp tools
Holten group: bio-inspired interfaces, materials science, polymers
Horiuchi group: computational sensorimotor neuroscience, neuromorphic VSLI design, neural computation in bats, mobile robotics inspired by neural computations in bats
Jeong lab: flexible electronics, brain-machine interfaces, biophotonics, wearable electronic “tattoos”
Ji lab: optical microscopy tools for neuroscience, neural circuits, computation in visual pathways
Johnson group: branched polymer nanomaterials, hydrogel networks, semiconducting organometallic polymers
Kleinfeld lab: brain microcirculation, imaging with two-photon microscopy and adaptive optics, orofacial motor actions and sensory processing, engineered cell-based reporters for detecting neurotransmitters
Lee lab: connectomics, electron microscopy of brain tissue, two-photon calcium imaging, neurobiology of motor circuits and association cortex, correlative microscopy, x-ray holographic nanotomography
Leifer lab: C. elegans neurobiology, optogenetics, calcium indicators, whole-organism optical neurophysiology, computational neuroscience
Lieber lab: injectable electronics, biomaterials, brain-machine interfaces, flexible electronics, immunological responses to implanted electronics
Lipson group: robotics, autonomous self-replication, self-aware machines, food printing, computational evolution of soft robots, robots which show creativity, biomimetic machines, particle robotics.
Liu group: custom light-sheet and confocal microscopes for clinical applications, custom endoscopes, nanoparticle contrast agents, disease biomarker imaging.
Lytton group: computational neuroscience, multiscale modeling of neurobiological systems, software development for biophysical modeling, dendritic processing models, network models, molecular models
Maharbiz lab: neural dust, implantable microelectronics, brain-computer interfaces, bioelectronics, electrical engineering
Metscher lab: x-ray microscopy for developmental morphology, x-ray microscopy of arthropod specimens, contrast agents for x-ray microscopy, dual energy x-ray microscopy, molecular probes for x-ray microscopy
Mizutani lab: x-ray microtomography and nanotomography for imaging brain tissue, comparison of neuronal microarchitecture between healthy and diseased states, synchrotron x-ray microscopy
Olsen lab: polymers, protein engineering, network chemistry, nanotechnology
Oron lab: far-field super-resolution imaging techniques, optics of biogenic crystals, nanoparticle optics, multiphoton microscopy
Pessoa lab: emotion and cognition, computational neuroscience, affective brain networks
Ramirez group: neurobiology of learning and memory, engineering memories using optogenetics and other techniques in order to treat psychiatric disorders
Rodriguez group: micro-electron diffraction for solving molecular structures, new methods for x-ray crystallography, protein engineering, imaging cells using lens-less x-ray diffraction techniques
Schiller lab: cortical computation, single neuron computation, plasticity mechanisms in cortex, sensorimotor learning mechanisms
Sestan lab: spatial transcriptomics in the brain, computational neuroscience, systems neuroscience, RNA sequencing
Stavrinidou group: electronic plants, organic electronics, bioelectronics
Wang lab (Joeseph Wang): nanobioelectronics, nanorobotics, nanobiosensors, flexible materials
Cover image source: Aksimentiev group
Very useful article!
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