Kenneth H. Nealson
University of Southern California
508 Papers
4.3K Citations
Kenneth H. Nealson is an academic researcher from University of Southern California. The author has contributed to research in topics: Shewanella oneidensis & Biology. The author has an hindex of 108, co-authored 483 publications. Previous affiliations of Kenneth H. Nealson include Oak Ridge National Laboratory & University of California, San Diego.
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Papers
Environmental Genome Shotgun Sequencing of the Sargasso Sea
J. Craig Venter,Karin A. Remington,John F. Heidelberg,Aaron L. Halpern,Doug Rusch,Jonathan A. Eisen,Dongying Wu,Ian T. Paulsen,Karen E. Nelson,William C. Nelson,Derrick E. Fouts,Samuel Levy,Anthony H. Knap,Michael W. Lomas,Kenneth H. Nealson,Owen White,Jeremy Peterson,Jeff Hoffman,Rachel Parsons,Holly Baden-Tillson,Cynthia Pfannkoch,Yu-Hui Rogers,Hamilton O. Smith +22 more
TL;DR: Over 1.2 million previously unknown genes represented in these samples, including more than 782 new rhodopsin-like photoreceptors are identified, suggesting substantial oceanic microbial diversity.
Animals in a bacterial world, a new imperative for the life sciences
Margaret J. McFall-Ngai,Michael G. Hadfield,Thomas C. G. Bosch,Hannah V. Carey,Tomislav Domazet-Lošo,Angela E. Douglas,Nicole Dubilier,Gérard Eberl,Tadashi Fukami,Scott F. Gilbert,Ute Hentschel,Nicole King,Staffan Kjelleberg,Andrew H. Knoll,Natacha Kremer,Sarkis K. Mazmanian,Jessica L. Metcalf,Kenneth H. Nealson,Naomi E. Pierce,John F. Rawls,Ann H. Reid,Edward G. Ruby,Mary E. Rumpho,Jon G. Sanders,Diethard Tautz,Jennifer J. Wernegreen +25 more
TL;DR: Recent technological and intellectual advances that have changed thinking about five questions about how have bacteria facilitated the origin and evolution of animals; how do animals and bacteria affect each other’s genomes; how does normal animal development depend on bacterial partners; and how is homeostasis maintained between animals and their symbionts are highlighted.
The Sorcerer II Global Ocean Sampling Expedition: Northwest Atlantic through Eastern Tropical Pacific
Douglas B. Rusch,Aaron L. Halpern,Granger G. Sutton,Karla B. Heidelberg,Karla B. Heidelberg,Shannon J. Williamson,Shibu Yooseph,Dongying Wu,Dongying Wu,Jonathan A. Eisen,Jonathan A. Eisen,Jeff Hoffman,Karin A. Remington,Karen Beeson,Bao Duc Tran,Hamilton O. Smith,Holly Baden-Tillson,Clare Stewart,Joyce Thorpe,Jason Freeman,Cynthia Andrews-Pfannkoch,Joseph E. Venter,Kelvin Li,Saul A. Kravitz,John F. Heidelberg,John F. Heidelberg,T. Utterback,Yu-Hui Rogers,Luisa I. Falcón,Valeria Souza,Germán Bonilla-Rosso,Luis E. Eguiarte,David M. Karl,Shubha Sathyendranath,Trevor Platt,Eldredge Bermingham,Victor A. Gallardo,Giselle Tamayo-Castillo,Michael Ferrari,Robert L. Strausberg,Kenneth H. Nealson,Kenneth H. Nealson,Robert Friedman,Marvin Frazier,J. Craig Venter +44 more
TL;DR: A metagenomic study of the marine planktonic microbiota in which surface (mostly marine) water samples were analyzed as part of the Sorcerer II Global Ocean Sampling expedition, which yielded an extensive dataset consisting of 7.7 million sequencing reads.
Electrically conductive bacterial nanowires produced by Shewanella oneidensis strain MR-1 and other microorganisms
Yuri A. Gorby,Svetlana Yanina,Jeffrey S. McLean,Kevin M. Rosso,Dianne M. Moyles,Alice Dohnalkova,Terry J. Beveridge,In Seop Chang,Byung Hong Kim,Kyung Shik Kim,David E. Culley,Samantha B. Reed,Margaret F. Romine,Daad A. Saffarini,Eric A. Hill,Liang Shi,Dwayne A. Elias,Dwayne A. Elias,David W. Kennedy,Grigoriy E. Pinchuk,Kazuya Watanabe,Shun'ichi Ishii,Bruce E. Logan,Kenneth H. Nealson,James K. Fredrickson +24 more
TL;DR: Nanowires produced by the oxygenic phototrophic cyanobacterium Synechocystis PCC6803 and the thermophilic, fermentative bacterium Pelotomaculum thermopropionicum reveal that electrically conductive appendages are not exclusive to dissimilatory metal-reducing bacteria and may, in fact, represent a common bacterial strategy for efficient electron transfer and energy distribution.
1.8K
Bacterial Manganese Reduction and Growth with Manganese Oxide as the Sole Electron Acceptor
TL;DR: The characteristics of this reduction are consistent with a biological, and not an indirect chemical, reduction of manganese, which suggest that this bacterium uses manganic oxide as a terminal electron acceptor.
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