In enzymology, a (S)-2-haloacid dehalogenase (EC 3.8.1.2) is an enzyme that catalyzes the chemical reaction (S)-2-haloacid + H2O (R)-2-hydroxyacid + halide Thus, the two substrates of this enzyme are (S)-2-haloacid and H2O, whereas its two products are (R)-2-hydroxyacid and halide. http://en.wikipedia.org/wiki/(S)-2-haloacid_dehalogenase
The father of Chemistry is Sir Robert Boyle
Eraka Baths Father is Dr.Beny J.
I am named Davis, so this is something I looked into. As I understand it, Davis sometimes is a simplification of Davies, a common Welsh surname which in the Middle Ages meant son of David. Davis has sometimes been a shortened form of Davidson, which is English. There have been so many migrants to England over the centuries that many people named Davis and Davies that although people in England anad Wales usually assume Davis and Davies are Welsh, having that name is not a guarantee that your father's father's father's father's father's father's father (if you catch my meaning) came from Wales.
his father's name was jean-antoine lavoisier. i found this site really helpfulantoine-lavoisier
father of mordern enzymology "James Batcheller Sumner"
Methods in Enzymology was created in 1955.
Hans Bisswanger has written: 'Practical Enzymology'
For catalytic proteins, enzymology and for structural biology, structural proteins
Sidney Paul Colowick has written: 'Methods in enzymology'
R. L. Foster has written: 'The nature of enzymology' -- subject(s): Enzymes
Rachael Ing has written: 'Enzymology and induction of hepatic cytochrome P450s in the guinea pig'
Marc le Maire has written: 'Laboratory guide to biochemistryt, enzymology, and protein physical chemistry'
William J. Dickinson has written: 'Gene-enzyme systems in drosophila' -- subject(s): Biochemical Genetics, Drosophila, Enzymes, Enzymology, Eye, Genes, Genetics, Insects, Mutation, Biochemical genetics
Mark W. Robinson has written: 'Cysteine proteases of pathogenic organisms' -- subject(s): Cysteine proteinases, Cysteine Proteases, Pathogenic microorganisms, Eukaryota, Pathophysiology, Microbial enzymes, Enzymology, Viruses, Immunology, Chemistry, Bacteria
human
In enzymology, the turnover number (also termed kcat) is defined as the maximum number of molecules of substrate that an enzyme can convert to product per catalytic site per unit of time and can be calculated as follows: kcat = Vmax/[E]T (see Michaelis-Menten kinetics).