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. Specifically, our core technique is scanning electrochemical cell microscopy (SECCM) , a powerful electrochemical imaging method for probing electrochemical processes at nanoscale sites on complex electrodes. We
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their microscopic world. We study how microbes adapt to their ever-changing environment, using simple and complex survival strategies. We hope to deeply understand how bacteria react and respond to stress and use
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for candidates with interests in multiscale simulations of complex physical phenomena, from the atomistic/electronic scale to mesocopics and beyond. Of particular interest is the development and application
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for the identification, estimation, transportability, and generalization of the causal effects in complex real-world settings. Among others, methodological areas will span: ● Causal inference for spatiotemporal data
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brain aging and neurodegenerative diseases. We specialize in decoding glycans—complex carbohydrates that decorate our cells and permeate our brain’s extracellular environment. Despite their fundamental
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apply new approaches to link key metabolic activities in complex microbial communities to specific microbes, genes, and enzymes, to uncover the functions of uncharacterized genes in microbiome sequencing
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, and/or microscopy. A background in soft materials, complex fluids, or colloidal science is desirable but not strictly required. Special Instructions Please submit a current CV with publications listed
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complex survival strategies. We hope to deeply understand how bacteria react and respond to stress and use this knowledge to engineer useful functions in bacteria. We invite applications from postdoctoral