Top Abstract Purchase Related
Home
>
Node
>
Subnode

Vital activity of methane-oxidizing bacteria after their filtration through coal pore structures

Abramov, F.A.; Malashenko, I.R.; Miaken'kiĭ, V.I.; Kurdish, I.K.; Shevelev, G.A.

Mikrobiolohichnyi Zhurnal 39(3): 290-293

1977

ISSN/ISBN: 0201-8462
PMID: 895569
Document Number: 118214
When methane-oxidizing bacteria Methylomonas methanica were forced into the coal bed under pressure of 100-150 atm, they retained their vital activity. Filtration of bacteria in coal is accompanied by a decrease in their numbers probably caused by adsorption of cells in the coal pore structures and by disruption of some cells during their filtration. The contact of the microorganisms with coal had no inhibitory effect on the intensity of the process of methane oxidation by bacteria but led to the intensification.

Document emailed within 1 workday
Secure & encrypted payments

Romanovskaya, V.A.; Alexeyev, M.F.; Gun'kovskaya, N.V.; Stolyar, S.M.; Shatohina, E.S.; Malashenko Yu, R. 1992: Screening for restriction endonucleases in methane-oxidizing bacteria Mikrobiolohichnyi Zhurnal 54(6): 32-40
Nesterov, A.I.; Starovoitova, G.A. 1975: Disintegration of cells of methane oxidizing bacteria by gas decompression Prikladnaia Biokhimiia i Mikrobiologiia 11(4): 593-597
Romanovskaia, V.A.; Rokitko, P.V. 2011: Analysis of phylogenetic criteria for estimation of the rank of taxa in methane-oxidizing bacteria Mikrobiolohichnyi Zhurnal 73(2): 3-12
Romanovskaia, V.A.; Malashenko, I.P.; Grishchenko, N.I. 1980: Diagnosis of methane-oxidizing bacteria by numerical methods based on the cellular fatty acid makeup Mikrobiologiia 49(6): 969-975
Namsaraev, B.B.; Zavarzin, G.A. 1972: Trophic links in cultures oxidizing methane Mikrobiologiia 41(6): 999-1006
Fistal', E.I.; Soloshenko, V.V.; Fistal', N.N. 2015: Features of Surgical Treatment of Miners, who Are Victims of Methane-Coal Mixture Explosion Vestnik Khirurgii Imeni I. I. Grekova 174(3): 50-53
Konuma, S.; Satoh, H.; Mino, T.; Matsuo, T. 2001: Comparison of enumeration methods for ammonia-oxidizing bacteria Water Science and Technology: a Journal of the International Association on Water Pollution Research 43(1): 107-114
Chen, T.-T.; Zheng, P.; Hu, B.-L. 2009: Species diversity and ecological distribution of anaerobic ammonium-oxidizing bacteria Ying Yong Sheng Tai Xue Bao 20(5): 1229-1235
Supotnitskiĭ, M.B. 1996: Protective features of pore-forming proteins of pathogenic bacteria Vestnik Rossiiskoi Akademii Meditsinskikh Nauk 8: 18-22
Tairbekov, M.G.; Parfenov, G.P.; Zattler, K.; Krants, E.; Viunshe, L. 1985: Study of the growth rate of methane-assimilating bacteria in weightlessness Kosmicheskaia Biologiia i Aviakosmicheskaia Meditsina 19(1): 83-84
Nozhevnikova, A.N.; Zhilina, T.N.; Sokolova, T.G. 1988: Species composition of methane bacteria in fermented cattle manure Prikladnaia Biokhimiia i Mikrobiologiia 24(4): 555-560
Beliaev, S.S.; Finkel'shteĭn, Z.I. 1973: Method of calculating the methane-forming bacteria on organic substrate media Mikrobiologiia 42(6): 1102-1107
Beliaev, S.S. 1974: Calculating the number of methane forming bacteria on a medium containing molecular hydrogen Mikrobiologiia 43(2): 349-352
Harrison, D.E. 1973: Studies on the affinity of methanol--and methane--utilizing bacteria for their carbon substrates Journal of Applied Bacteriology 36(2): 301-308
Rowan, A.K.; Moser, G.; Gray, N.; Snape, J.R.; Fearnside, D.; Curtis, T.P.; Barer, M.R.; Head, I.M. 2003: A comparitive study of ammonia-oxidizing bacteria in lab-scale industrial wastewater treatment reactors Water Science and Technology: a Journal of the International Association on Water Pollution Research 48(3): 17-24
Nazina, T.N.; Rozanova, E.P. 1980: Ecologic conditions for the spread of methane-forming bacteria in the petroleum strata of Apsheron Mikrobiologiia 49(1): 123-129
Karavaĭko, G.I.; Turova, T.P.; Tsaplina, I.A.; Bogdanova, T.I. 2000: The phylogenetic position of aerobic, moderately-thermophilic bacteria of the Sulfobacillus species, oxidizing Fe2+, S(0) and sulfide minerals Mikrobiologiia 69(6): 857-860
Karavaĭko, G.I.; Turova, T.P.; Tsaplina, I.A.; Bogdanova, T.I. 2000: The phylogenetic position of aerobic, moderately-thermophilic bacteria of the Sulfobacillus species, oxidizing Fe2+, S(0) and sulfide minerals Mikrobiologiia 69(6): 857-860
Narita, Jão.Paulo.Z.; Pédelabat, M.; De Moraes, G.J. 2013: A new species of Neocypholaelaps Vitzthum (Acari: Ameroseiidae), with notes on the cheliceral lobes and ventral pore-like structures of mites of this family Zootaxa 3666: 1-15
Koshel', M.I.; Skirstymonskiĭ, A.I.; Demchinskaia, L.A. 1976: Study of a diphasic method of fermenting the afterfermentation molasses spent wash by methane-forming bacteria Mikrobiolohichnyi Zhurnal 38(4): 443-448