Abstract: There are provided nucleic acids, including isolated DNA molecules, which encode glutamate 2,3-aminomutase enzymes, polypeptides produced from such nucleic acids and methods of making the nucleic acids and polypeptides. There are further provided methods of producing ?-glutamate from glutamate using glutamate 2,3-aminomutase.

Abstract: Purified ?-amino acids are of considerable interest in the preparation of pharmacologically active compounds and industrial precursors. Although enantiomerically pure ?-amino acids can be produced by standard chemical synthesis, this traditional approach is time consuming, requires expensive starting materials, and results in a racemic mixture which must be purified further. However, DNA molecules encoding lysine 2,3-aminomutase can be used to prepare ?-amino acids by methods that avoid the pitfalls of chemical synthesis. The present invention provides a method of producing enantiomerically pure ?-amino acids from ?-amino acids comprising catalyzing the conversion of an ?-amino acid to a corresponding ?-amino acid by utilizing a lysine 2,3-aminomutase as the catalyst.

Abstract: Purified ?-amino acids are of considerable interest in the preparation of pharmacologically active compounds. Although enantiomerically pure ?-amino acids, such as L-?-lysine, can be produced by standard chemical synthesis, this traditional approach is time consuming, requires expensive starting materials, and results in a racemic mixture which must be purified further. However, DNA molecules encoding lysine 2,3-aminomutase can be used to prepare L-?-lysine by methods that avoid the pitfalls of chemical synthesis. In particular, L-?-lysine can be synthesized by cultures of host cells that express recombinant lysine 2,3-aminomutase. Alternatively, such recombinant host cells can provide a source for isolating quantities of lysine 2,3-aminomutase, which in turn, can be used to produce L-?-lysine in vitro.

Abstract: Purified ?-amino acids are of considerable interest in the preparation of pharmacologically active compounds. Although enantiomerically pure ?-amino acids, such as L-?-lysine, can be produced by standard chemical synthesis, this traditional approach is time consuming, requires expensive starting materials, and results in a racemic mixture which must be purified further. However, DNA molecules encoding lysine 2,3-aminomutase can be used to prepare L-?-lysine by methods that avoid the pitfalls of chemical synthesis. In particular, L-?-lysine can be synthesized by cultures of host cells that express recombinant lysine 2,3-aminomutase. Alternatively, such recombinant host cells can provide a source for isolating quantities of lysine 2,3-aminomutase, which in turn, can be used to produce L-?-lysine in vitro.

Abstract: Purified &bgr;-amino acids are of considerable interest in the preparation of pharmacologically active compounds and industrial precursors. Although enantiomerically pure &bgr;-amino acids can be produced by standard chemical synthesis, this traditional approach is time consuming, requires expensive starting materials, and results in a racemic mixture which must be purified further. However, DNA molecules encoding lysine 2,3-aminomutase can be used to prepare &bgr;-amino acids by methods that avoid the pitfalls of chemical synthesis. The present invention provides a method of producing enantiomerically pure &bgr;-amino acids from &agr;-amino acids comprising catalyzing the conversion of an &agr;-amino acid to a corresponding &bgr;-amino acid by utilizing a lysine 2,3-aminomutase as the catalyst.

Abstract: Purified &bgr;-amino acids are of considerable interest in the preparation of pharmacologically active compounds. Although enantiomerically pure &bgr;-amino acids, such as L-&bgr;-lysine, can be produced by standard chemical synthesis, this traditional approach is time consuming, requires expensive starting materials, and results in a racemic mixture which must be purified further. However, DNA molecules encoding lysine 2,3-aminomutase can be used to prepare L-&bgr;-lysine by methods that avoid the pitfalls of chemical synthesis. In particular, L-&bgr;-lysine can be synthesized by cultures of host cells that express recombinant lysine 2,3-aminomutase. Alternatively, such recombinant host cells can provide a source for isolating quantities of lysine 2,3-aminomutase, which in turn, can be used to produce L-&bgr;-lysine in vitro.

Abstract: Purified &bgr;-amino acids are of considerable interest in the preparation of pharmacologically active compounds. Although enantiomerically pure &bgr;-amino acids, such as L-&bgr;-lysine, can be produced by standard chemical synthesis, this traditional approach is time consuming, requires expensive starting materials, and results in a racemic mixture which must be purified further. However, DNA molecules encoding lysine 2,3-aminomutase can be used to prepare L-&bgr;-lysine by methods that avoid the pitfalls of chemical synthesis. In particular, L-&bgr;-lysine can be synthesized by cultures of host cells that express recombinant lysine 2,3-aminomutase. Alternatively, such recombinant host cells can provide a source for isolating quantities of lysine 2,3-aminomutase, which in turn, can be used to produce L-&bgr;-lysine in vitro.