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NMR Signal Assignments of Human Adenylate Kinase 1 (hAK1) and its R138A Mutant (hAK1R138A)

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초록

Adenylate kinase (AK) enzyme which acts as the catalyst of reversible high energy phosphorylation reaction between ATP and AMP which associate with energetic metabolism and nucleic acid synthesis and signal transmission. This enzyme has three distinct domains: Core, AMP binding domain (AMPbd) and Lid domain (LID). The primary role of AMPbd and LID is associated with conformational changes due to flexibility of two domains. Three dimensional structure of human AK1 has not been confirmed and various mutation experiments have been done to determine the active sites. In this study, AK1R138A which is changed arginine[138] of LID domain with alanine[138] was made and conducted with NMR experiments, backbone dynamics analysis and mo-lecular docking dynamic simulation to find the cause of structural change and substrate binding site. Synthetic human muscle type adenylate kinase 1 (hAK1) and its mutant (AK1R138A) were re-combinded with E. coli and expressed in M9 cell. Expressed proteins were purified and finally gained at 0.520 mM hAK1 and 0.252 mM AK1R138A. Multinuclear multidimensional NMR experiments including HNCA, HN(CO)CA, were conducted for amino acid sequence analysis and signal assignments of 1H-15N HSQC spectrum. Our chemical shift perturbation data is shown LID domain residues and around alanine[138] and per-turbation value(0.22ppm) of valine[179] is consid-ered as inter-communication effect with LID domain and the structural change between hAK1 and AK1R138A.

Abstract

Adenylate kinase (AK) enzyme which acts as the catalyst of reversible high energy phosphorylation reaction between ATP and AMP which associate with energetic metabolism and nucleic acid synthesis and signal transmission. This enzyme has three distinct domains: Core, AMP binding domain (AMPbd) and Lid domain (LID). The primary role of AMPbd and LID is associated with conformational changes due to flexibility of two domains. Three dimensional structure of human AK1 has not been confirmed and various mutation experiments have been done to determine the active sites. In this study, AK1R138A which is changed arginine[138] of LID domain with alanine[138] was made and conducted with NMR experiments, backbone dynamics analysis and mo-lecular docking dynamic simulation to find the cause of structural change and substrate binding site. Synthetic human muscle type adenylate kinase 1 (hAK1) and its mutant (AK1R138A) were re-combinded with E. coli and expressed in M9 cell. Expressed proteins were purified and finally gained at 0.520 mM hAK1 and 0.252 mM AK1R138A. Multinuclear multidimensional NMR experiments including HNCA, HN(CO)CA, were conducted for amino acid sequence analysis and signal assignments of 1H-15N HSQC spectrum. Our chemical shift perturbation data is shown LID domain residues and around alanine[138] and per-turbation value(0.22ppm) of valine[179] is consid-ered as inter-communication effect with LID domain and the structural change between hAK1 and AK1R138A.

참고문헌 (21)

  1. P. P. Dzeja, , Mol. Cel. Biochem, 184, pp.169~ (1998)
  2. R. J. Zeleznikar, , J. Biol. Chem, 270, pp.7311~ (1995)
  3. A. R. Van Rompay, , Pharm. & Thera, 87, pp.189~ (2000)
  4. S. Inouye, , Biochem. biophy. commuications, 254, pp.618~ (1999)
  5. P. Dzeja, , J. mol, 10, pp.1729~ (2009)
  6. S. Miron, , J. Biomol. NMR, 19, pp.89~ (2001)
  7. M. Bellinzoni, , Prot. Soc, 15, pp.1489~ (2006)
  8. D. Dreusicke, , J. mol. bio, 199, pp.359~ (1988)
  9. U. Egner, , J. mol. bio, 195, pp.649~ (1987)
  10. U. Abele, , Prot. Soc, 4, pp.1262~ (1995)
  11. C. Fu, , Biomol. NMR Assign, 32, pp.276~ (2012)
  12. A. Abragam, (1961), Clarendon Press
  13. G. Lipari, , J. Am. Chem. Soc, 104, pp.4546~ (1982)
  14. K. A. Henzler-Wildman, , Nature, 450, pp.838~ (2007)
  15. P. C. Whitford, , J. Biol. Chem, 283, pp.2042~ (2008)
  16. 이승헌, "결핵균 Adenylate Kinase 돌연변이 유전자와 Human Muscle-type Adenylate Kinase 합성 유전자를 형질전환한 BCG의 성장속도 변화 유무 조사", Tuberculosis and Respiratory Diseases, 60(2), pp.187~193 (2006), 대한결핵및호흡기학회
  17. H. J. Kim, , Prot. Eng, 2, pp.379~ (1989)
  18. I. J. Byeon, , Am. Chem. Soc, 32, pp.12508~ (1993)
  19. Changjun Lee, "Interaction of ε-L-β-lysine as a tail analogy of tallysomycin-A to a double helical DNA oligonucletide d(CGCTTCGAAGCG)2", Journal of the Korean Magnetic Resonance Society, 11(2), pp.129~137 (2007), 한국자기공명학회
  20. 김대성, "Systematic Chirality Investigations of Zn-TLM binding Sitesby 2D-NOESY Back-calculations", Journal of the Korean Magnetic Resonance Society, 2(1), pp.50~58 (1998), 한국자기공명학회
  21. A. M. Calfat, , J. Am. Chem. Soc, 119, pp.3656~ (1997)

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