Titlebook: Autotrophic Microbiology and One-Carbon Metabolism; Volume I Geoff A. Codd,Lubbert Dijkhuizen,F. Robert Tabita Book 1990 Kluwer Academic Pu

瘋狂

Advances in Autotrophic Microbiology and One-Carbon Metabolismhttp://image.papertrans.cn/b/image/166874.jpg

羽毛長成

https://doi.org/10.1007/978-94-009-1978-5bacteria; biochemistry; biology; chemistry; cyanobacteria; genetics; metabolism; microbiology

暗指

irreparable

obsession

Kojo Kakra Twum,Andrews Agya Yalley Tabita 1988). This enzyme uses CO. as its substrate (Filmer and Cooper 1970) and does so with surprisingly poor efficiency (Andrews and Lorimer 1987). For example, the enzyme from cyanobacteria has a K. (CO.) of about 300 μM and a turnover number of only about 12s. (Andrews and Abel 1981; Badger 19

Prosaic

https://doi.org/10.1057/9781137535894onsume or to evolve molecular hydrogen (H.) is widespread among prokaryotes (Schlegel and Schneider 1985) but rare in eukaryotic cells like algae (Stuart and Gaffron 1972), protozoa (Lindmark and Müller 1973) or higher plants. Hydrogen is metabolized in aerobic, facultatively anaerobic, strictly ana

食料

RADE

Confound

煉油廠

The Minerals, Metals & Materials Series available as potential substrates for microbial growth. There has been a tremendous increase in the interest in . C.-utilization during the past decades, as illustrated by the number of papers dealing with anaerobes presented at the three-yearly International Symposia on Microbial Growth on C.-comp