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氨基醇的微生物代谢。欧文氏菌属中乙醇胺和1-氨基丙醇-2的代谢以及氨基醇激酶和氨基醇邻磷酸磷酸裂解酶在醛形成中的作用。

Microbial metabolism of amino alcohols. Metabolism of ethanolamine and 1-aminopropan-2-ol in species of Erwinia and the roles of amino alcohol kinase and amino alcohol o-phosphate phospho-lyase in aldehyde formation.

作者信息

Jones A, Faulkner A, Turner J M

出版信息

Biochem J. 1973 Aug;134(4):959-68. doi: 10.1042/bj1340959.

Abstract
  1. Growth of Erwinia carotovora N.C.P.P.B. 1280 on media containing 1-aminopropan-2-ol compounds or ethanolamine as the sole N source resulted in the excretion of propionaldehyde or acetaldehyde respectively. The inclusion of (NH(4))(2)SO(4) in media prevented aldehyde formation. 2. Growth, microrespirometric and enzymic evidence implicated amino alcohol O-phosphates as aldehyde precursors. An inducibly formed ATP-amino alcohol phosphotransferase was partially purified and found to be markedly stimulated by ADP, unaffected by NH(4) (+) ions and more active with ethanolamine than with 1-aminopropan-2-ol compounds. Amino alcohol O-phosphates were deaminated by an inducible phospho-lyase to give the corresponding aldehydes. This enzyme, separated from the kinase during purification, was more active with ethanolamine O-phosphate than with 1-aminopropan-2-ol O-phosphates. Activity of the phospho-lyase was unaffected by a number of possible effectors, including NH(4) (+) ions, but its formation was repressed by the addition of (NH(4))(2)SO(4) to growth media. 3. E. carotovora was unable to grow with ethanolamine or 1-aminopropan-2-ol compounds as sources of C, the production of aldehydes during utilization as N sources being attributable to the inability of the microbe to synthesize aldehyde dehydrogenase. 4. Of seven additional strains of Erwinia examined similar results were obtained only with Erwinia ananas (N.C.P.P.B. 441) and Erwinia milletiae (N.C.P.P.B. 955).
摘要
  1. 胡萝卜软腐欧文氏菌N.C.P.P.B. 1280在以1-氨基丙醇化合物或乙醇胺作为唯一氮源的培养基上生长时,分别导致丙醛或乙醛的分泌。培养基中添加硫酸铵可防止醛的形成。2. 生长、微量呼吸测定和酶学证据表明氨基醇O-磷酸酯是醛的前体。一种可诱导形成的ATP-氨基醇磷酸转移酶被部分纯化,发现其受到ADP的显著刺激,不受铵离子影响,对乙醇胺的活性比对1-氨基丙醇化合物的活性更高。氨基醇O-磷酸酯被一种可诱导的磷酸裂解酶脱氨生成相应的醛。这种酶在纯化过程中与激酶分离,对乙醇胺O-磷酸酯的活性比对1-氨基丙醇O-磷酸酯的活性更高。磷酸裂解酶的活性不受包括铵离子在内的多种可能效应物的影响,但其形成受到向生长培养基中添加硫酸铵的抑制。3. 胡萝卜软腐欧文氏菌不能以乙醇胺或1-氨基丙醇化合物作为碳源生长,在作为氮源利用过程中醛的产生归因于该微生物无法合成醛脱氢酶。4. 在检测的另外七种欧文氏菌菌株中,仅菠萝欧文氏菌(N.C.P.P.B. 441)和黍欧文氏菌(N.C.P.P.B. 955)得到了类似结果。

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Microbial metabolism of amino alcohols via aldehydes.微生物通过醛类对氨基醇的代谢作用。
J Gen Microbiol. 1971 Aug;67(3):379-81. doi: 10.1099/00221287-67-3-379.

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