In this article, we are going to address the issue of Acidovorax facilis from a comprehensive and detailed perspective. Acidovorax facilis is a topic of great relevance and interest today, since it directly impacts people's lives and different aspects of society. Throughout this text, we will analyze the most relevant aspects related to Acidovorax facilis, from its origin and history to its impact today. In addition, we will explore different approaches and opinions on Acidovorax facilis with the aim of offering a broad and enriching vision of this fascinating topic.
Members of A. facilis are generally 1.0-5.0 μm long and 0.2-0.7 μm wide.[1] Under a microscope, they appear as straight to slightly curved rods that occurs singly or in short chains. A. facilis are motile via a single flagellum at one end of the bacterium. They are negative by Gram stain and positive by the oxidase test. When grown on nutrient agar, they form unpigmented colonies.[1] They grow in the presence of oxygen.[1]
Uses
A. facilis has been used in agriculture and horticulture as a soil additive to improve plant growth.[2] Additionally, a nitrilase enzyme from A. facilis has been engineered into E. coli for the commercial production of 3-hydroxyvaleric acid.[3]
History
A. facilis was originally isolated from lawn soil in the United States by Albert Schatz and Carlton Bovell in 1950 and named Hydrogenomas facilis.[1][4] In 1969, the genus Hydrogenomonas was abandoned and H. facilis was transferred to the genus Pseudomonas.[1][5] Eventually, Pseudomonas was determined to contain several genera of bacteria, and so in 1990 Pseudomonas facilis, Pseudomonas delafieldii, and several other strains of Pseudomonas and Alcaligenes were transferred to the new genus Acidovorax.[1]
^Wu, Shijun; Fogiel, Arthur J.; Petrillo, Kelly L.; Hann, Eugenia C.; Mersinger, Lawrence J.; Dicosimo, Robert; O'Keefe, Daniel P.; Ben-Bassat, Arie; Payne, Mark S. (2007). "Protein engineering of Acidovorax facilis 72W nitrilase for bioprocess development". Biotechnology and Bioengineering. 97 (4): 689–93. doi:10.1002/bit.21289. PMID17154311. S2CID44660037.