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izvor podataka: crosbi

Combined metabolic activity within an atrazine-mineralizing community enriched from agrochemical factory soil (CROSBI ID 135723)

Prilog u časopisu | izvorni znanstveni rad | međunarodna recenzija

Udiković Kolić, Nikolina ; Hršak, Dubravka ; Begonja Kolar, Ana ; Petrić, Ines ; Stipičević, Sanja ; Soulas, Guy ; Martin-Laurent, Fabrice Combined metabolic activity within an atrazine-mineralizing community enriched from agrochemical factory soil // International biodeterioration & biodegradation, 60 (2007), 4; 299-307. doi: 10.1016/j.ibiod.2007.05.004

Podaci o odgovornosti

Udiković Kolić, Nikolina ; Hršak, Dubravka ; Begonja Kolar, Ana ; Petrić, Ines ; Stipičević, Sanja ; Soulas, Guy ; Martin-Laurent, Fabrice

engleski

Combined metabolic activity within an atrazine-mineralizing community enriched from agrochemical factory soil

Aims: To characterize an atrazine-mineralizing community originating from agrochemical factory soil, especially to elucidate the catabolic pathway and individual metabolic and genetic potentials of culturable members. Methods and Results: A stable four-member bacterial community, characterized based on colony morphology and partial 16S rDNA sequencing, was capable to rapidly mineralize atrazine to CO2 and NH3. Two primary organisms were identified as Arthrobacter species (ATZ1 and ATZ2) and two secondary organisms as Ochrobactrum sp. (CA1) and Pseudomonas sp. (CA2). Atrazine-degrading genetic potential of the community estimated by PCR, revealed the presence of trzN, trzD, atzB and atzC genes. Isolates ATZ1 and ATZ2 were capable of dechlorinating atrazine to hydroxyatrazine and contained the trzN gene. ATZ2 continued to degrade hydroxyatrazine to cyanuric acid and contained atzB and atzC genes whereas ATZ1 contained atzC gene only. Isolates CA1 and CA2 grew on cyanuric acid and contained trzD gene. Conclusions: Complete atrazine degradation was a result of the combined metabolic attack on atrazine molecule, and complex interactions might exist between the community members sharing carbon and nitrogen from atrazine mineralization. Significance and Impact of the Study: This study will contribute towards better understanding of the genetic potential and metabolic activities of atrazine-degrading communities, which are generally considered to be more responsible for atrazine mineralization in natural environment than individual degrading species.

atrazine; biodegradation; atz; trz; microbial community

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Podaci o izdanju

60 (4)

2007.

299-307

objavljeno

0964-8305

10.1016/j.ibiod.2007.05.004

Povezanost rada

Kemija, Biotehnologija

Poveznice
Indeksiranost