Commentary in 2010

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  • The low cost of short-read sequencing has motivated the development of de novo assemblies from only short-read data; impressively, assemblies for large mammalian genomes are now available. However, this is still a developing field, and these de novo assemblies have many artifacts, as do all de novo assemblies.

    • Ewan Birney
    Commentary
  • Optogenetics is routinely used to activate and inactivate genetically defined neuronal populations in vivo. A second optogenetic revolution will occur when spatially distributed and sparse neural assemblies can be precisely manipulated in behaving animals.

    • Simon Peron
    • Karel Svoboda
    Commentary
  • Rhodopsins from microalgae and eubacteria are powerful tools for manipulating the function of neurons and other cells, but these tools still have limitations. We discuss engineering approaches that can help advance optogenetics.

    • Peter Hegemann
    • Andreas Möglich
    Commentary
  • Optogenetics is a technology that allows targeted, fast control of precisely defined events in biological systems as complex as freely moving mammals. By delivering optical control at the speed (millisecond-scale) and with the precision (cell type–specific) required for biological processing, optogenetic approaches have opened new landscapes for the study of biology, both in health and disease.

    • Karl Deisseroth
    Commentary
  • Methods and tools for visualizing biological data have improved considerably over the last decades, but they are still inadequate for some high-throughput data sets. For most users, a key challenge is to benefit from the deluge of data without being overwhelmed by it. This challenge is still largely unfulfilled and will require the development of truly integrated and highly useable tools.

    • Seán I O'Donoghue
    • Anne-Claude Gavin
    • Bang Wong
    Commentary