Bacterial S-layer preservation and rare arsenic–antimony–sulphide bioimmobilization in siliceous sediments from Champagne Pool hot spring, Waiotapu, New Zealand
暂无分享,去创建一个
[1] L. Benning,et al. Experimental studies on New Zealand hot spring sinters: rates of growth and textural development , 2003 .
[2] L. Benning,et al. Reaction path modelling in the As-S system: a case study for geothermal As transport , 2003 .
[3] B. Jones,et al. Taphonomy of Silicified Filamentous Microbes in Modern Geothermal Sinters—Implications for Identification , 2001 .
[4] B. Jones,et al. Biogenicity of gold- and silver-bearing siliceous sinters forming in hot (75°C) anaerobic spring-waters of Champagne Pool, Waiotapu, North Island, New Zealand , 2001, Journal of the Geological Society.
[5] D. G. Adams,et al. Role of biomineralization as an ultraviolet shield: Implications for Archean life , 2001 .
[6] D. G. Adams,et al. Microbial–silica interactions in Icelandic hot spring sinter: possible analogues for some Precambrian siliceous stromatolites , 2001 .
[7] K. Tazaki,et al. SILICA BIOMINERALIZATION OF UNICELLULAR MICROBES UNDER STRONGLY ACIDIC CONDITIONS , 2001 .
[8] D. S. Smith,et al. Cell surface electrochemical heterogeneity of the Fe(III)-reducing bacteria Shewanella putrefaciens. , 2001, Environmental science & technology.
[9] D. G. Adams,et al. Cyanobacterial viability during hydrothermal biomineralisation , 2000 .
[10] D. S. Smith,et al. Characterizing Heterogeneous Bacterial Surface Functional Groups Using Discrete Affinity Spectra for Proton Binding , 1999 .
[11] H. Engelhardt,et al. Structural research on surface layers: a focus on stability, surface layer homology domains, and surface layer-cell wall interactions. , 1998, Journal of structural biology.
[12] Michael R. Rosen,et al. Microbial Biofacies in Hot-Spring Sinters: A Model Based on Ohaaki Pool, North Island, New Zealand , 1998 .
[13] Jeremy B. Fein,et al. A chemical equilibrium model for metal adsorption onto bacterial surfaces , 1997 .
[14] N. Hinman,et al. Seasonal changes in silica deposition in hot spring systems , 1996 .
[15] K. Konhauser,et al. DIVERSITY OF IRON AND SILICA PRECIPITATION BY MICROBIAL MATS IN HYDROTHERMAL WATERS, ICELAND : IMPLICATIONS FOR PRECAMBRIAN IRON FORMATIONS , 1996 .
[16] A. Zotov,et al. Thermodynamic properties and stoichiometry of As (III) hydroxide complexes at hydrothermal conditions , 1996 .
[17] K. Konhauser,et al. In situ silicification of an Icelandic hot spring microbial mat: implications for microfossil formation , 1995 .
[18] R. Pattrick,et al. Oligomerization in As (III) sulfide solutions: Theoretical constraints and spectroscopic evidence , 1995 .
[19] M. Stewart,et al. Geochemical structure and position of the Waiotapu geothermal field, New Zealand , 1994 .
[20] K. Jarrell,et al. Isolation and characterization of three thermophilic anaerobes from a St. Lucia hot spring , 1992 .
[21] J. W. Hedenquist. Boiling and dilution in the shallow portion of the Waiotapu geothermal system, New Zealand , 1991 .
[22] J. Webster. The solubility of As2S3 and speciation of As in dilute and sulphide-bearing fluids at 25 and 90° C , 1990 .
[23] R. Krupp. Solubility of stibnite in hydrogen sulfide solutions, speciation, and equilibrium constants, from 25 to 350°C , 1988 .
[24] W. S. Fyfe,et al. Metallic ion binding by Bacillus subtilis; implications for the fossilization of microorganisms , 1988 .
[25] D. Crerar,et al. Solubility of the assemblage pyrite-pyrrhotite-magnetite-sphalerite-galena-gold-stibnite-bismuthinite-argen- tite-molybdenite in H 2 O-NaCl-CO 2 solutions from 200 degrees to 350 degrees C degrees , 1987 .
[26] U. Sleytr,et al. Charge distribution on the S layer of Bacillus stearothermophilus NRS 1536/3c and importance of charged groups for morphogenesis and function , 1987, Journal of bacteriology.
[27] K. Brown. Gold deposition from geothermal discharges in New Zealand , 1986 .
[28] D. Pum,et al. Crystalline Envelope Layers in Archaebacteria ) , 1986 .
[29] T. Beveridge,et al. Iron-silica crystallite nucleation by bacteria in a geothermal sediment , 1986, Nature.
[30] R. Henley,et al. Hydrothermal eruptions in the Waiotapu geothermal system, New Zealand; their origin, associated breccias, and relation to precious metal mineralization , 1985 .
[31] R. Folk,et al. Travertines: Depositional Morphology and the Bacterially Constructed Constituents , 1984 .
[32] D. D. Wagman,et al. The NBS tables of chemical thermodynamic properties : selected values for inorganic and C1 and C2 organic substances in SI units , 1982 .
[33] E. Lloyd. The hot springs and hydrothermal eruptions of Waiotapu , 1959 .
[34] B. Ahring,et al. Xylanolytic anaerobic thermophiles from Icelandic hot-springs , 2004, Applied Microbiology and Biotechnology.
[35] U. Sleytr,et al. Surface properties from the S-layer of Clostridium thermosaccharolyticum D120-70 and Clostridium thermohydrosulfuricum L111-69 , 2004, Archives of Microbiology.
[36] D. Kirk Nordstrom,et al. Arsenic thermodynamic data and environmental geochemistry , 2003 .
[37] N. Zealand.. BIOMINERALIZATION IN NEW ZEALAND GEOTHERMAL AREAS , 2001 .
[38] B. Jones,et al. Microbial Precipitates Around Continental Hot Springs and Geysers , 2000 .
[39] J. Farmer,et al. Fossilization processes in siliceous thermal springs: trends in preservation along thermal gradients. , 1996, Ciba Foundation symposium.
[40] A. Pentecost. The microbial ecology of some Italian hot-spring travertines , 1995 .
[41] F. Canganella,et al. Ecological and physiological studies on thermophilic bacilli from sulfataric hot springs of central Italy , 1995 .
[42] A. Zotov,et al. Experimental studies of the solubility and complexing of selected ore elements (Au, Ag, Cu, Mo, As, Sb, Hg) in aqueous solutions , 1994 .
[43] U. Sleytr,et al. Crystalline surface layers on bacteria. , 1983, Annual review of microbiology.
[44] P. G. Hill,et al. A Fundamental Equation of State for Heavy Water , 1982 .
[45] T. Beveridge. Ultrastructure, chemistry, and function of the bacterial wall. , 1981, International review of cytology.
[46] D. D. Wagman,et al. Selected Values of Chemical Thermodynamic Properties. Tables for the First Thirty-Four Elements in the Standard Order of Arrangement. , 1968 .
[47] THE SOLUBILITY , 2022 .