Fungal-induced fossil biomineralization
暂无分享,去创建一个
G. Gadd | M. Benton | Tao Zhao | Mao Luo | Zhen Li | D. Zheng | Zi-bo Li | M. Su | Z. Yin | Michael J. Benton | Geoffrey Michael Gadd | Zongjun Yin | Yan-Hong Pan | Yuxuan Chen
[1] G. Gadd,et al. Fungal biorecovery of cerium as oxalate and carbonate biominerals. , 2022, Fungal biology.
[2] J. Stajich,et al. Fungi are key players in extreme ecosystems. , 2022, Trends in ecology & evolution.
[3] G. Gadd,et al. Solubilization of struvite and biorecovery of cerium by Aspergillus niger , 2022, Applied microbiology and biotechnology.
[4] G. Gadd. Fungal biomineralization , 2021, Current Biology.
[5] G. Gadd,et al. Fungal-induced CaCO3 and SrCO3 precipitation: A potential strategy for bioprotection of concrete. , 2021, The Science of the total environment.
[6] G. Bierbaum,et al. The complex role of microbial metabolic activity in fossilization , 2021, Biological reviews of the Cambridge Philosophical Society.
[7] G. Gadd,et al. Nanoparticle and nanomineral production by fungi , 2021 .
[8] G. Gadd,et al. Selective fungal bioprecipitation of cobalt and nickel for multiple‐product metal recovery , 2021, Microbial biotechnology.
[9] Wenkun Qie,et al. Microbially Induced Carbonate Precipitation in a Middle Triassic Microbial Mat Deposit from Southwestern China: New Implications for the Formational Process of Micrite , 2021, Journal of Earth Science.
[10] S. Bengtson,et al. Fossilized anaerobic and possibly methanogenesis-fueling fungi identified deep within the Siljan impact structure, Sweden , 2021, Communications Earth & Environment.
[11] A. Czaja,et al. Cryptic terrestrial fungus-like fossils of the early Ediacaran Period , 2021, Nature Communications.
[12] G. Gadd,et al. Role of Protein in Fungal Biomineralization of Copper Carbonate Nanoparticles , 2020, Current Biology.
[13] P. Szewczyk,et al. Collagen Fibers in Crocodile Skin and Teeth: A Morphological Comparison Using Light and Scanning Electron Microscopy , 2020, Journal of Bionic Engineering.
[14] G. Gadd,et al. Biotransformation of struvite by Aspergillus niger: phosphate release and magnesium biomineralization as glushinskite. , 2020, Environmental microbiology.
[15] M. Kazemian,et al. Molecular identification of fungi microfossils in a Neoproterozoic shale rock , 2020, Science Advances.
[16] S. Ingsriswang,et al. Culturable mycobiota from Karst caves in China, with descriptions of 20 new species , 2017, Fungal Diversity.
[17] Qisheng Li,et al. Environmental fungi and bacteria facilitate lecithin decomposition and the transformation of phosphorus to apatite , 2019, Scientific Reports.
[18] Shuijin Hu,et al. Evaluating the potential of charred bone as P hotspot assisted by phosphate-solubilizing bacteria. , 2019, The Science of the total environment.
[19] E. Javaux,et al. Early fungi from the Proterozoic era in Arctic Canada , 2019, Nature.
[20] Erik F. Y. Hom,et al. Fungi in the Marine Environment: Open Questions and Unsolved Problems , 2019, mBio.
[21] G. Gadd,et al. Biotransformation of lanthanum by Aspergillus niger , 2018, Applied Microbiology and Biotechnology.
[22] H. Schwarcz,et al. Ultrastructure of Bone: Hierarchical Features from Nanometer to Micrometer Scale Revealed in Focused Ion Beam Sections in the TEM , 2018, Calcified Tissue International.
[23] P. Freire,et al. Physicochemical analysis of Permian coprolites from Brazil. , 2018, Spectrochimica acta. Part A, Molecular and biomolecular spectroscopy.
[24] S. Bengtson,et al. Anaerobic consortia of fungi and sulfate reducing bacteria in deep granite fractures , 2017, Nature Communications.
[25] G. Shi,et al. Taphonomy and palaeobiology of early Middle Triassic coprolites from the Luoping biota, southwest China: Implications for reconstruction of fossil food webs , 2017 .
[26] Marco Stampanoni,et al. Fungus-like mycelial fossils in 2.4-billion-year-old vesicular basalt , 2017, Nature Ecology &Evolution.
[27] S. Raghukumar. The Marine Environment and the Role of Fungi , 2017 .
[28] Roberto Raiteri,et al. Supramolecular Organization of Collagen Fibrils in Healthy and Osteoarthritic Human Knee and Hip Joint Cartilage , 2016, PloS one.
[29] É. Verrecchia,et al. Role of Fungi in the Biomineralization of Calcite , 2016 .
[30] Shuijin Hu,et al. A study of organic acid production in contrasts between two phosphate solubilizing fungi: Penicillium oxalicum and Aspergillus niger , 2016, Scientific Reports.
[31] G. Gadd,et al. Fungal Biomineralization of Manganese as a Novel Source of Electrochemical Materials , 2016, Current Biology.
[32] F. Babonneau,et al. Calcium-Phosphate Biomineralization Induced by Alkaline Phosphatase Activity in Escherichia coli: Localization, Kinetics, and Potential Signatures in the Fossil Record , 2015, Front. Earth Sci..
[33] J. Banfield,et al. Crystallization by particle attachment in synthetic, biogenic, and geologic environments , 2015, Science.
[34] C. Pott,et al. Coprolites of Late Triassic carnivorous vertebrates from Poland: an integrative approach , 2015 .
[35] A. J. Kaufman,et al. A unifying model for Neoproterozoic–Palaeozoic exceptional fossil preservation through pyritization and carbonaceous compression , 2014, Nature Communications.
[36] É. Verrecchia,et al. Unravelling the enigmatic origin of calcitic nanofibres in soils and caves: purely physicochemical or biogenic processes? , 2014 .
[37] I. Boboescu,et al. An Acidophilic Bacterial-Archaeal-Fungal Ecosystem Linked to Formation of Ferruginous Crusts and Stalactites , 2014 .
[38] M. Benton,et al. CARBONATE RETICULATED RIDGE STRUCTURES FROM THE LOWER MIDDLE TRIASSIC OF THE LUOPING AREA, YUNNAN, SOUTHWESTERN CHINA: GEOBIOLOGIC FEATURES AND IMPLICATIONS FOR EXCEPTIONAL PRESERVATION OF THE LUOPING BIOTA , 2013 .
[39] W. Dong,et al. The large mammals from Tuozidong (eastern China) and the Early Pleistocene environmental availability for early human settlements , 2013 .
[40] J. Schiffbauer,et al. Preservational modes in the Ediacaran Gaojiashan Lagerstätte: Pyritization, aluminosilicification, and carbonaceous compression , 2012 .
[41] Guy Leonard,et al. Marine fungi: their ecology and molecular diversity. , 2012, Annual review of marine science.
[42] É. Verrecchia,et al. An Ultrastructural Approach to Analogies between Fungal Structures and Needle Fiber Calcite , 2012 .
[43] J. Schiffbauer,et al. Taphonomic study of Ediacaran organic-walled fossils confirms the importance of clay minerals and pyrite in Burgess Shale−type preservation , 2011 .
[44] C. Kumar,et al. Antimicrobial activity from the extracts of fungal isolates of soil and dung samples from Kaziranga National Park, Assam, India , 2010 .
[45] J. Raven,et al. Geomicrobiology of Eukaryotic Microorganisms , 2010 .
[46] É. Verrecchia,et al. Calcitic nanofibres in soils and caves: a putative fungal contribution to carbonatogenesis , 2010 .
[47] D. Martill,et al. Probable human hair found in a fossil hyaena coprolite from Gladysvale cave, South Africa , 2009 .
[48] M. Dadras,et al. Evidence for an organic origin of pedogenic calcitic nanofibres , 2009 .
[49] R. Raff,et al. Embryo fossilization is a biological process mediated by microbial biofilms , 2008, Proceedings of the National Academy of Sciences.
[50] Geoffrey M Gadd,et al. Geomycology: biogeochemical transformations of rocks, minerals, metals and radionuclides by fungi, bioweathering and bioremediation. , 2007, Mycological research.
[51] S. Gunasekaran,et al. Raman and infrared spectra of carbonates of calcite structure , 2006 .
[52] A. Agarwal,et al. Fungi in dinosaurian (Isisaurus) coprolites from the Lameta Formation (Maastrichtian) and its reflection on food habit and environment , 2005 .
[53] M. Sastry,et al. Biogenic Calcium Carbonate: Calcite Crystals of Variable Morphology by the Reaction of Aqueous Ca2+ Ions with Fungi , 2004 .
[54] T. Kuyper,et al. The role of fungi in weathering , 2004 .
[55] G. Gadd,et al. Fungal involvement in bioweathering and biotransformation of rocks and minerals , 2003, Mineralogical Magazine.
[56] Derek E. G. Briggs,et al. THE ROLE OF DECAY AND MINERALIZATION IN THE PRESERVATION OF SOFT-BODIED FOSSILS , 2003 .
[57] K. Chin. Analyses of Coprolites Produced by Carnivorous Vertebrates , 2002 .
[58] R. Petrovich. Mechanisms of Fossilization of the Soft-Bodied and Lightly Armored Faunas of the Burgess Shale and of Some Other Classical Localities , 2001 .
[59] Katja Sterflinger,et al. Fungi as Geologic Agents , 2000 .
[60] É. Verrecchia. Fungi and Sediments , 2000 .
[61] Eric P. Verrecchia,et al. Microbial origin for pedogenic micrite associated with a carbonate paleosol (Champagne, France) , 1999 .
[62] R. Parkes,et al. Controls on the formation of authigenic minerals in association with decaying organic matter: an experimental approach , 1999 .
[63] J. Maniloff,et al. Nannobacteria: size limits and evidence. , 1997, Science.
[64] A. Wyss,et al. Multituberculate and other mammal hair recovered from Palaeogene excreta , 1997, Nature.
[65] D. Stahl,et al. Microorganisms and biogeochemical cycles; what can we learn from layered microbial communities? , 1997 .
[66] É. Verrecchia,et al. Needle-fiber Calcite: A Critical Review and a Proposed Classification , 1994 .
[67] David L. Hawksworth,et al. The fungal dimension of biodiversity: magnitude, significance, and conservation , 1991 .
[68] P. Allison. Konservat-Lagerstätten: cause and classification , 1988, Paleobiology.
[69] S. Phillips,et al. Morphology crystallography and origin of needle fiber calcite in quaternary pedogenic calcretes of south australia , 1987 .
[70] C. A. Roberts,et al. Discussion * , 1970, Proceedings of the ASIL Annual Meeting.