Literature DB >> 26961531

Characteristic oxidation behavior of β-cyclocitral from the cyanobacterium Microcystis.

Koji Tomita1,2, Masateru Hasegawa3, Suzue Arii3, Kiyomi Tsuji4, Beata Bober3,5, Ken-Ichi Harada3.   

Abstract

The cyanobacterium Microcystis produces volatile organic compounds such as β-cyclocitral and 3-methyl-1-butanol. The lysis of cyanobacteria involving the blue color formation has been occasionally observed in a natural environment. In this study, we focused on the oxidation behavior of β-cyclocitral that contributed to the blue color formation in a natural environment and compared β-cyclocitral with a structurally related compound concerning its oxidation, acidification, and lytic behavior. The oxidation products of β-cyclocitral were identified by the addition of β-cyclocitral in water, in which 2,2,6-trimethylcyclohex-1-ene-1-yl formate and 2,2,6-trimethylcyclohexanone were structurally characterized. That is, β-cyclocitral was easily oxidized to produce the corresponding carboxylic acid and the enol ester in water without an oxidizing reagent, suggesting that this oxidation proceeded according to the Baeyer-Villiger oxidation. The oxidation behavior of β-cyclocitral in a laboratory was different from that in the natural environment, in which 2,2,6- trimethylcyclohexanone was detected at the highest amount in the natural environment, whereas the highest amount in the laboratory was β-cyclocitric acid. A comparison of β-cyclocitral with structurally similar aldehydes concerning the lytic behavior of a Microcystis strain and the acidification process indicated that only β-cyclocitral was easily oxidized. Furthermore, it was found that a blue color formation occurred between pH 5.5 and 6.5, suggesting that chlorophyll a and β-carotene are unstable and decomposed, whereas phycocyanin was stable to some extent in this range. The obtained results of the characteristic oxidation behavior of β-cyclocitral would contribute to a better understanding of the cyanobacterial life cycle.

Entities:  

Keywords:  Acidification; Blue color formation; Cyanobacteria; Lysis; Oxidation; β-cyclocitral

Mesh:

Substances:

Year:  2016        PMID: 26961531     DOI: 10.1007/s11356-016-6369-y

Source DB:  PubMed          Journal:  Environ Sci Pollut Res Int        ISSN: 0944-1344            Impact factor:   4.223


  9 in total

1.  Cyanobacterial blue color formation during lysis under natural conditions.

Authors:  Suzue Arii; Kiyomi Tsuji; Koji Tomita; Masateru Hasegawa; Beata Bober; Ken-ichi Harada
Journal:  Appl Environ Microbiol       Date:  2015-02-06       Impact factor: 4.792

2.  Lysis of cyanobacteria with volatile organic compounds.

Authors:  Keiko Ozaki; Akemi Ohta; Chieko Iwata; Aki Horikawa; Kiyomi Tsuji; Emiko Ito; Yoshitomo Ikai; Ken-Ichi Harada
Journal:  Chemosphere       Date:  2008-01-07       Impact factor: 7.086

3.  Lytic organisms and photooxidative effects: influence on blue-green algae (cyanobacteria) in lake mendota, wisconsin.

Authors:  R D Fallon; T D Brock
Journal:  Appl Environ Microbiol       Date:  1979-09       Impact factor: 4.792

Review 4.  Baeyer-Villiger monooxygenases: more than just green chemistry.

Authors:  Hannes Leisch; Krista Morley; Peter C K Lau
Journal:  Chem Rev       Date:  2011-05-04       Impact factor: 60.622

5.  Response of microcystis to copper stress: do phenotypes of microcystis make a difference in stress tolerance?

Authors:  Zhong-Xing Wu; Nan-Qin Gan; Qun Huang; Li-Rong Song
Journal:  Environ Pollut       Date:  2006-07-07       Impact factor: 8.071

6.  Analytical aspects of cyanobacterial volatile organic compounds for investigation of their production behavior.

Authors:  Daiki Fujise; Kiyomi Tsuji; Naoko Fukushima; Kohei Kawai; Ken-ichi Harada
Journal:  J Chromatogr A       Date:  2010-08-24       Impact factor: 4.759

7.  Further investigation of microbial degradation of microcystin using the advanced Marfey method.

Authors:  Elisabete Hiromi Hashimoto; Hajime Kato; Yoshito Kawasaki; Yuriko Nozawa; Kiyomi Tsuji; Elisa Yoko Hirooka; Ken-ichi Harada
Journal:  Chem Res Toxicol       Date:  2009-02       Impact factor: 3.739

8.  Blue color formation of cyanobacteria with beta-cyclocitral.

Authors:  Ken-Ichi Harada; Keiko Ozaki; Sayaka Tsuzuki; Hajime Kato; Masateru Hasegawa; Emilia K Kuroda; Suzue Arii; Kiyomi Tsuji
Journal:  J Chem Ecol       Date:  2009-11-20       Impact factor: 2.626

9.  Application of log D for the prediction of hydrophobicity in the advanced Marfey's method.

Authors:  Yuriko Nozawa; Akira Kawashima; Elisabete Hiromi Hashimoto; Hajime Kato; Ken-ichi Harada
Journal:  J Chromatogr A       Date:  2009-02-21       Impact factor: 4.759

  9 in total
  3 in total

1.  Plant apocarotenoid metabolism utilizes defense mechanisms against reactive carbonyl species and xenobiotics.

Authors:  Julian Koschmieder; Florian Wüst; Patrick Schaub; Daniel Álvarez; Danika Trautmann; Markus Krischke; Camille Rustenholz; Jun'ichi Mano; Martin J Mueller; Dorothea Bartels; Philippe Hugueney; Peter Beyer; Ralf Welsch
Journal:  Plant Physiol       Date:  2021-03-15       Impact factor: 8.340

2.  β-Cyclocitral is a conserved root growth regulator.

Authors:  Alexandra J Dickinson; Kevin Lehner; Jianing Mi; Kun-Peng Jia; Medhavinee Mijar; José Dinneny; Salim Al-Babili; Philip N Benfey
Journal:  Proc Natl Acad Sci U S A       Date:  2019-05-08       Impact factor: 11.205

3.  The Apocarotenoid β-Cyclocitric Acid Elicits Drought Tolerance in Plants.

Authors:  Stefano D'Alessandro; Yusuke Mizokami; Bertrand Légeret; Michel Havaux
Journal:  iScience       Date:  2019-08-06
  3 in total

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