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Source: Day Seventy-One: "The question asked in order to save her life or take it the answer no to avoid death the answer yes would make it make it", A

Cloning Tags > Tag based links for Organism

The following links have been tagged organism by users just like you, because these resources are off-site we cannot guarantee the accuracy or quality of any third-party information.

WormBook: the online review of Caenorhabditis elegans biology: Nucleic Acids Research, Vol. 35, No. Supplement 1. (January 2007), pp. D472-D475.Gira rd, R Lisa, Fiedler, J Tristan, Harris, W Todd, Carvalho, Felicia, Antoshechkin, Igor, Han, Michael, Sternberg, W Paul, Stein, D Lincoln, Chalfie, Martin

Source: Nucleic Acids Research, Vol. 35, No. Supplement 1. (January 2007), pp. D472-D475.
The Relationship of Cell and Organism in Vascular Plants: BioScience, Vol. 41, No. 10. (1991), pp. 693-703.Donald Kaplan, Wolfgang Hagemann

Source: BioScience, Vol. 41, No. 10. (1991), pp. 693-703.
Social Coordination and the Superorganism: American Midland Naturalist, Vol. 21, No. 1. (1939), pp. 182-209.Alfred Emerson

Source: American Midland Naturalist, Vol. 21, No. 1. (1939), pp. 182-209.
Organismic Logic in the History of Science: Philosophy of Science, Vol. 3, No. 1. (1936), pp. 26-61.Raymond Wheeler

Source: Philosophy of Science, Vol. 3, No. 1. (1936), pp. 26-61.
Genome-scale reconstruction of the Saccharomyces cerevisiae metabolic network.: Genome Res, Vol. 13, No. 2. (February 2003), pp. 244-253.The metabolic network in the yeast Saccharomyces cerevisiae was reconstructed using currently available genomic, biochemical, and physiological information. The metabolic reactions were compartmentali zed between the cytosol and the mitochondria, and transport steps between the compartments and the environment were included. A total of 708 structural open reading frames (ORFs) were accounted for in the reconstructed network, corresponding to 1035 metabolic reactions. Further, 140 reactions were included on the basis of biochemical evidence resulting in a genome-scale reconstructed metabolic network containing 1175 metabolic reactions and 584 metabolites. The number of gene functions included in the reconstructed network corresponds to approximately 16% of all characterized ORFs in S. cerevisiae. Using the reconstructed network, the metabolic capabilities of S. cerevisiae were calculated and compared with Escherichia coli. The reconstructed metabolic network is the first comprehensive network for a eukaryotic organism, and it may be used as the basis for in silico analysis of phenotypic functions.J Förster, I Famili, P Fu, BŘ Palsson, J Nielsen

Source: Genome Res, Vol. 13, No. 2. (February 2003), pp. 244-253.
The extent to which ATP demand controls the glycolytic flux depends strongly on the organism and conditions for growth.: Mol Biol Rep, Vol. 29, No. 1-2. (2002), pp. 41-45.Using molecular genetics we have introduced uncoupled ATPase activity in two different bacterial species, Escherichia coli and Lactococcus lactis, and determined the elasticities of the growth rate and glycolytic flux towards the intracellular [ATP]/[ADP] ratio. During balanced growth in batch cultures of E. coli the ATP demand was found to have almost full control on the glycolytic flux (FCC=0.96) and the flux could be stimulated by 70%. In contrast to this, in L. lactis the control by ATP demand on the glycolytic flux was close to zero. However, when we used non-growing cells of L. lactis (which have a low glycolytic flux) the ATP demand had a high flux control and the flux could be stimulated more than two fold. We suggest that the extent to which ATP demand controls the glycolytic flux depends on how much excess capacity of glycolysis is present in the cells.BJ Koebmann, HV Westerhoff, JL Snoep, C Solem, MB Pedersen, D Nilsson, O Michelsen, PR Jensen

Source: Mol Biol Rep, Vol. 29, No. 1-2. (2002), pp. 41-45.
The Extent to Which ATP Demand Controls the Glycolytic Flux Depends Strongly on the Organism and Conditions for Growth: Molecular Biology Reports, Vol. 29, No. 1. (1 March 2002), pp. 41-45.Using molecular genetics we have introduced uncoupled ATPase activity in two different bacterial species, Escherichia coli and Lactococcus lactis, and determined the elasticities of the growth rate and glycolytic flux towards the intracellular [ATP]/[ADP] ratio. During balanced growth in batch cultures of E. coli the ATP demand was found to have almost full control on the glycolytic flux (FCC=0.96) and the flux could be stimulated by 70%. In contrast to this, in L. lactis the control by ATP demand on the glycolytic flux was close to zero. However, when we used non-growing cells of L. lactis (which have a low glycolytic flux) the ATP demand had a high flux control and the flux could be stimulated more than two fold. We suggest that the extent to which ATP demand controls the glycolytic flux depends on how much excess capacity of glycolysis is present in the cells.Brian Koebmann, Hans Westerhoff, Jacky Snoep, Christian Solem, Martin Pedersen, Dan Nilsson, Ole Michelsen, Peter Jensen

Source: Molecular Biology Reports, Vol. 29, No. 1. (1 March 2002), pp. 41-45.

If you would like to find additional social bookmark based links on the topic of organism we recommend the Open Tag Directory > Organism. If you would like to find related tags we recommend Tag Patterns > Organism.