Arthur R. Grossman
Carnegie Institution for Science
352 Papers
4.4K Citations
Arthur R. Grossman is an academic researcher from Carnegie Institution for Science. The author has contributed to research in topics: Chlamydomonas reinhardtii & Biology. The author has an hindex of 94, co-authored 321 publications. Previous affiliations of Arthur R. Grossman include Rockefeller University & University of Idaho.
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Papers
Building the GreenCut2 suite of proteins to unmask photosynthetic function and regulation.
TL;DR: The suite of GreenCut proteins, initially assembled in 2007 and updated in 2011 (GreenCut2), comprises 597 Chlamydomonas reinhardtii proteins; potential functions of individual member proteins, especially those linked to photosynthesis are described.
In the Grip of Algal Genomics
TL;DR: Potential criteria for determining which organisms should be targeted for genome projects, successful forays into algal genomic sequencing, and some of the inferences generated from the analysis of the sequence information are discussed.
UNDERSTANDING NITROGEN LIMITATION IN AUREOCOCCUS ANOPHAGEFFERENS (PELAGOPHYCEAE) THROUGH cDNA AND qRT‐PCR ANALYSIS1
TL;DR: Characterization of a cDNA library suggests that A. anophagefferens can assimilate eight different forms of N, and suggests that purines are an important source of N for the growth of this organism and could possibly contribute to the initiation and maintenance of blooms in the natural environment.
The GreenCut: re-evaluation of physiological role of previously studied proteins and potential novel protein functions
TL;DR: Analysis of the GreenCut indicates that many processes critical to green lineage organisms remain unstudied or poorly characterized, and begins to examine the functions of some GreenCut proteins in detail.
Anaerobic Acclimation in Chlamydomonas reinhardtii ANOXICGENEEXPRESSION,HYDROGENASEINDUCTION,ANDMETABOLICPATHWAYS *
Florence Mus,Alexandra Dubini,Michael Seibert,Matthew C. Posewitz,Arthur R. Grossman +4 more
- 01 Jan 2007
TL;DR: Overall, this study uses metabolite, genomic, and transcriptome data to provide genome-wide insights into the regulation of the complex metabolic networks utilized by Chlamydomonas under the anaerobic conditions associated with H2 production.