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Advances in Enzymology and Related Areas of Molecular Biology|April 28, 1999
Nucleoside monophosphate kinases: structure, mechanism, and substrate specificityH Yan, M D Tsai
Biochemistry|July 14, 1992
Mechanism of adenylate kinase. Structural and functional roles of the conserved arginine-97 and arginine-132T Dahnke, Z Shi, H Yan, et al.
Biochemistry|April 17, 1979
Use of phosphorus-31 nuclear magnetic resonance to distinguish bridge and nonbridge oxygens of oxygen-17-enriched nucleoside triphosphates. Stereochemistry of acetate activation by acetyl coenzyme A synthetaseM D Tsai
Biochemistry|November 11, 1980
Stereochemistry of the hydrolysis of adenosine 5'-thiophosphate catalyzed by venom 5'-nucleotidaseM D Tsai
Biochemistry|November 23, 1993
Mechanism of adenylate kinase. 1H, 13C, and 15N NMR assignments, secondary structures, and substrate binding sitesI J Byeon, H Yan, A S Edison, et al.
Biochemistry|July 27, 2001
DNA polymerase beta: pre-steady-state kinetic analyses of dATP alpha S stereoselectivity and alteration of the stereoselectivity by various metal ions and by site-directed mutagenesisJ Liu, M D Tsai
The Journal of Biological Chemistry|March 18, 1994
Mechanism of adenylate kinase. The conserved aspartates 140 and 141 are important for transition state stabilization instead of substrate-induced conformational changesT Dahnke, M D Tsai
Biochemistry|April 10, 1984
Phospholipids chiral at phosphorus. Synthesis of chiral phosphatidylcholine and stereochemistry of phospholipase DK Bruzik, M D Tsai
Biochemistry|June 4, 1991
Mechanism of adenylate kinase. Demonstration of a functional relationship between aspartate 93 and Mg2+ by site-directed mutagenesis and proton, phosphorus-31, and magnesium-25 NMRH G Yan, M D Tsai
Biochemistry|March 2, 1982
Does the magnesium(II) ion interact with the alpha-phosphate of adenosine triphosphate? An investigation by oxygen-17 nuclear magnetic resonanceS L Huang, M D Tsai
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