Biodiscovery and Biodiversity of Antarctic Bacteria
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Fermentation of Biodegradable Organic Waste by the Family Thermotogaceae
resources Review Fermentation of Biodegradable Organic Waste by the Family Thermotogaceae Nunzia Esercizio 1 , Mariamichela Lanzilli 1 , Marco Vastano 1 , Simone Landi 2 , Zhaohui Xu 3 , Carmela Gallo 1 , Genoveffa Nuzzo 1 , Emiliano Manzo 1 , Angelo Fontana 1,2 and Giuliana d’Ippolito 1,* 1 Institute of Biomolecular Chemistry, National Research Council of Italy, Via Campi Flegrei 34, 80078 Pozzuoli, Italy; [email protected] (N.E.); [email protected] (M.L.); [email protected] (M.V.); [email protected] (C.G.); [email protected] (G.N.); [email protected] (E.M.); [email protected] (A.F.) 2 Department of Biology, University of Naples “Federico II”, Via Cinthia, I-80126 Napoli, Italy; [email protected] 3 Department of Biological Sciences, Bowling Green State University, Bowling Green, OH 43403, USA; [email protected] * Correspondence: [email protected] Abstract: The abundance of organic waste generated from agro-industrial processes throughout the world has become an environmental concern that requires immediate action in order to make the global economy sustainable and circular. Great attention has been paid to convert such nutrient- rich organic waste into useful materials for sustainable agricultural practices. Instead of being an environmental hazard, biodegradable organic waste represents a promising resource for the Citation: Esercizio, N.; Lanzilli, M.; production of high value-added products such as bioenergy, biofertilizers, and biopolymers. The Vastano, M.; Landi, S.; Xu, Z.; Gallo, ability of some hyperthermophilic bacteria, e.g., the genera Thermotoga and Pseudothermotoga, to C.; Nuzzo, G.; Manzo, E.; Fontana, A.; anaerobically ferment waste with the concomitant formation of bioproducts has generated great d’Ippolito, G. -
Australian ANTARCTIC Magazine ISSUE 18 2010 Australian
AusTRALIAN ANTARCTIC MAGAZINE ISSUE 18 2010 AusTRALIAN ANTARCTIC ISSUE 2010 MAGAZINE 18 The Australian Antarctic Division, a Division of the Department of the Environment, Water, Heritage and the Arts, leads Australia’s Antarctic program and seeks CONTENTS to advance Australia’s Antarctic interests in pursuit of its vision of having ‘Antarctica valued, protected EXPLORING THE SOUTHERN OCEAN and understood’. It does this by managing Australian government activity in Antarctica, providing transport Southern Ocean marine life in focus 1 and logistic support to Australia’s Antarctic research Snails and ‘snot’ tell acid story 4 program, maintaining four permanent Australian research stations, and conducting scientific research Science thrown overboard 6 programs both on land and in the Southern Ocean. Antarctica – a catalyst for science communication 8 Australia’s four Antarctic goals are: First non-lethal whale study answers big questions 9 • To maintain the Antarctic Treaty System Journal focuses on Antarctic research 11 and enhance Australia’s influence in it; • To protect the Antarctic environment; BROKE–West breaks ground in marine research 11 • To understand the role of Antarctica in EAST ANTARCTIC CENSUS the global climate system; and Shedding light on the sea floor 13 • To undertake scientific work of practical, economic and national significance. Plankton in the spotlight 15 Australian Antarctic Magazine seeks to inform the Sorting the catch 16 Australian and international Antarctic community Using fish to identify ecological regions 17 about the activities of the Australian Antarctic program. Opinions expressed in Australian Antarctic Magazine International flavour enhances Japanese research cruise 18 do not necessarily represent the position of the Australian Government. -
Counts Metabolic Yr10.Pdf
Advanced Review Physiological, metabolic and biotechnological features of extremely thermophilic microorganisms James A. Counts,1 Benjamin M. Zeldes,1 Laura L. Lee,1 Christopher T. Straub,1 Michael W.W. Adams2 and Robert M. Kelly1* The current upper thermal limit for life as we know it is approximately 120C. Microorganisms that grow optimally at temperatures of 75C and above are usu- ally referred to as ‘extreme thermophiles’ and include both bacteria and archaea. For over a century, there has been great scientific curiosity in the basic tenets that support life in thermal biotopes on earth and potentially on other solar bodies. Extreme thermophiles can be aerobes, anaerobes, autotrophs, hetero- trophs, or chemolithotrophs, and are found in diverse environments including shallow marine fissures, deep sea hydrothermal vents, terrestrial hot springs— basically, anywhere there is hot water. Initial efforts to study extreme thermo- philes faced challenges with their isolation from difficult to access locales, pro- blems with their cultivation in laboratories, and lack of molecular tools. Fortunately, because of their relatively small genomes, many extreme thermo- philes were among the first organisms to be sequenced, thereby opening up the application of systems biology-based methods to probe their unique physiologi- cal, metabolic and biotechnological features. The bacterial genera Caldicellulosir- uptor, Thermotoga and Thermus, and the archaea belonging to the orders Thermococcales and Sulfolobales, are among the most studied extreme thermo- philes to date. The recent emergence of genetic tools for many of these organ- isms provides the opportunity to move beyond basic discovery and manipulation to biotechnologically relevant applications of metabolic engineering. -
Towards a Congruent Reclassification And
Towards a congruent reclassification and nomenclature of the thermophilic species of the genus Pseudothermotoga within the order Thermotogales Hassiba Belahbib, Zarath Summers, Marie-Laure Fardeau, Manon Joseph, Christian Tamburini, Alain Dolla, Bernard Ollivier, Fabrice Armougom To cite this version: Hassiba Belahbib, Zarath Summers, Marie-Laure Fardeau, Manon Joseph, Christian Tamburini, et al.. Towards a congruent reclassification and nomenclature of the thermophilic species of thegenus Pseudothermotoga within the order Thermotogales. Systematic and Applied Microbiology, Elsevier, 2018, 41 (6), pp.555-563. 10.1016/J.SYAPM.2018.04.007. hal-01975970 HAL Id: hal-01975970 https://hal.archives-ouvertes.fr/hal-01975970 Submitted on 9 Jan 2019 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Towards a congruent reclassification and nomenclature of the thermophilic species of the genus Pseudothermotoga within the order Thermotogales a b a a Hassiba Belahbib , Zarath M. Summers , Marie-Laure Fardeau , Manon Joseph , a c a a,∗ Christian Tamburini , Alain Dolla , Bernard Ollivier , Fabrice Armougom a Aix Marseille Univ, Université de Toulon, CNRS, IRD, MIO, Marseille, France b ExxonMobil Research and Engineering Company, 1545 Route 22 East, Annandale, NJ 08801, United States c Aix Marseille Univ, CNRS, LCB, Marseille, France a r t i c l e i n f o a b s t r a c t Article history: The phylum Thermotogae gathers thermophilic, hyperthermophic, mesophilic, and thermo-acidophilic Received 15 December 2017 anaerobic bacteria that are mostly originated from geothermally heated environments. -
Responses to the Hydrostatic Pressure of Surface
Responses to the Hydrostatic Pressure of Surface and Subsurface Strains of Pseudothermotoga elfii Revealing the Piezophilic Nature of the Strain Originating From an Oil-Producing Well Marie Roumagnac, Nathalie Pradel, Manon Bartoli, Marc Garel, Aaron Jones, Fabrice Armougom, Romain Fenouil, Christian Tamburini, Bernard Ollivier, Zarath Summers, et al. To cite this version: Marie Roumagnac, Nathalie Pradel, Manon Bartoli, Marc Garel, Aaron Jones, et al.. Responses to the Hydrostatic Pressure of Surface and Subsurface Strains of Pseudothermotoga elfii Revealing the Piezophilic Nature of the Strain Originating From an Oil-Producing Well. Frontiers in Microbiology, Frontiers Media, 2020, 11, 10.3389/fmicb.2020.588771. hal-03152104 HAL Id: hal-03152104 https://hal.archives-ouvertes.fr/hal-03152104 Submitted on 27 Feb 2021 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Distributed under a Creative Commons Attribution| 4.0 International License ORIGINAL RESEARCH published: 04 December 2020 doi: 10.3389/fmicb.2020.588771 Responses to the Hydrostatic Pressure of Surface and Subsurface Strains of Pseudothermotoga elfii Revealing the Piezophilic Nature of the Strain Originating From an Oil-Producing Well Edited by: 1 1 1 1 2 Nils-Kaare Birkeland, Marie Roumagnac , Nathalie Pradel , Manon Bartoli , Marc Garel , Aaron A. -
Waba Directory 2003
DIAMOND DX CLUB www.ddxc.net WABA DIRECTORY 2003 1 January 2003 DIAMOND DX CLUB WABA DIRECTORY 2003 ARGENTINA LU-01 Alférez de Navió José María Sobral Base (Army)1 Filchner Ice Shelf 81°04 S 40°31 W AN-016 LU-02 Almirante Brown Station (IAA)2 Coughtrey Peninsula, Paradise Harbour, 64°53 S 62°53 W AN-016 Danco Coast, Graham Land (West), Antarctic Peninsula LU-19 Byers Camp (IAA) Byers Peninsula, Livingston Island, South 62°39 S 61°00 W AN-010 Shetland Islands LU-04 Decepción Detachment (Navy)3 Primero de Mayo Bay, Port Foster, 62°59 S 60°43 W AN-010 Deception Island, South Shetland Islands LU-07 Ellsworth Station4 Filchner Ice Shelf 77°38 S 41°08 W AN-016 LU-06 Esperanza Base (Army)5 Seal Point, Hope Bay, Trinity Peninsula 63°24 S 56°59 W AN-016 (Antarctic Peninsula) LU- Francisco de Gurruchaga Refuge (Navy)6 Harmony Cove, Nelson Island, South 62°18 S 59°13 W AN-010 Shetland Islands LU-10 General Manuel Belgrano Base (Army)7 Filchner Ice Shelf 77°46 S 38°11 W AN-016 LU-08 General Manuel Belgrano II Base (Army)8 Bertrab Nunatak, Vahsel Bay, Luitpold 77°52 S 34°37 W AN-016 Coast, Coats Land LU-09 General Manuel Belgrano III Base (Army)9 Berkner Island, Filchner-Ronne Ice 77°34 S 45°59 W AN-014 Shelves LU-11 General San Martín Base (Army)10 Barry Island in Marguerite Bay, along 68°07 S 67°06 W AN-016 Fallières Coast of Graham Land (West), Antarctic Peninsula LU-21 Groussac Refuge (Navy)11 Petermann Island, off Graham Coast of 65°11 S 64°10 W AN-006 Graham Land (West); Antarctic Peninsula LU-05 Melchior Detachment (Navy)12 Isla Observatorio -
Palaeoecological Changes in Populations of Antarctic Ice-Dependent Predators and Their Environmental Drivers
PALAEOECOLOGICAL CHANGES IN POPULATIONS OF ANTARCTIC ICE-DEPENDENT PREDATORS AND THEIR ENVIRONMENTAL DRIVERS Jane Younger BSc (Nanotechnology) (Hons), BAntSt (Hons) Submitted in fulfilment for the requirements for the degree of Doctor of Philosophy Institute for Marine and Antarctic Studies June 2015 DECLARATION OF ORIGINALITY This thesis contains no material which has been accepted for a degree or diploma by the University or any other institution, except by way of background information and duly acknowledged in the thesis, and to the best of my knowledge and belief no material previously published or written by another person except where due acknowledgement is made in the text of the thesis, nor does the thesis contain any material that infringes copyright. Jane Younger 22/06/2015 AUTHORITY OF ACCESS The publishers of the papers comprising Chapters 1, 2, 3 & 4 hold the copyright for that content, and access to the material should be sought from the journals, Global Change Biology (Chapters 1 &2) and BMC Evolutionary Biology (Chapters 3 & 4). The remaining non published content of the thesis may be made available for loan and limited copying and communication in accordance with the Copyright Act 1968.” CONTENTS List of figures ............................................................................................................................... vi List of tables ............................................................................................................................... vii Abbreviations ........................................................................................................................... -
Back Matter (PDF)
Index Page numbers in italic, e.g. 221, signify references to figures. Page numbers in bold, e.g. 60, denote references to tables. -
Extremely Thermophilic Microorganisms for Biomass
Available online at www.sciencedirect.com Extremely thermophilic microorganisms for biomass conversion: status and prospects Sara E Blumer-Schuette1,4, Irina Kataeva2,4, Janet Westpheling3,4, Michael WW Adams2,4 and Robert M Kelly1,4 Many microorganisms that grow at elevated temperatures are Introduction able to utilize a variety of carbohydrates pertinent to the Conversion of lignocellulosic biomass to fermentable conversion of lignocellulosic biomass to bioenergy. The range sugars represents a major challenge in global efforts to of substrates utilized depends on growth temperature optimum utilize renewable resources in place of fossil fuels to meet and biotope. Hyperthermophilic marine archaea (Topt 80 8C) rising energy demands [1 ]. Thermal, chemical, bio- utilize a- and b-linked glucans, such as starch, barley glucan, chemical, and microbial approaches have been proposed, laminarin, and chitin, while hyperthermophilic marine bacteria both individually and in combination, although none have (Topt 80 8C) utilize the same glucans as well as hemicellulose, proven to be entirely satisfactory as a stand alone strategy. such as xylans and mannans. However, none of these This is not surprising. Unlike existing bioprocesses, organisms are able to efficiently utilize crystalline cellulose. which typically encounter a well-defined and character- Among the thermophiles, this ability is limited to a few terrestrial ized feedstock, lignocellulosic biomasses are highly vari- bacteria with upper temperature limits for growth near 75 8C. able from site to site and even season to season. The most Deconstruction of crystalline cellulose by these extreme attractive biomass conversion technologies will be those thermophiles is achieved by ‘free’ primary cellulases, which are that are insensitive to fluctuations in feedstock and robust distinct from those typically associated with large multi-enzyme in the face of biologically challenging process-operating complexes known as cellulosomes. -
Notes on Trig Stations in the Framnes Mountains and Depot Peak Region
NOTES ON TRIG STATIONS IN THE FRAMNES MOUNTAINS AND DEPOT PEAK REGION David R Carstens Surveyor, Mawson 1962 and additional notes by Max J Corry, Surveyor 1965 Introduction With a view to the extension of the existing triangulation covering the islands and connections to two mountains inland by Tellurometer measurement the following comments are designed to assist in assessing proposed stations. The network as suggested has been proved from some features but not from others. This network was laid out on a sketch map of the mountains and could well be considered on the new 1: 100,000 sheets before leaving Australia. Bechervaise and Rookery Bechervaise and Rookery are reached best on the sea ice. Rookery will require more care than Bechervaise until the sea ice is very reliable. A motor boat must be used in the changeover – summer period, and this is only safe in good weather and with a good forecast. Painted Hill (later Painted Peak) NM/S/67, the Tellurometer station at Painted Hill was climbed from the western side using crampons, to the top of the saddle south of the main peak, and then climbing up the ridge to the peak. I now consider that it is feasible to drive the Snow Trac around to the east side of the mountains and approach the abovementioned saddle on the snow slope that leads almost onto this saddle. We were led to believe that it was unsafe to approach these mountains from these snow slopes, but I since negotiated several such slopes safely. Normal precautions must be practiced because crevassing may exist, but certainly with a Snow Trac one is relatively safe. -
Page Numbers in Italic, Eg 221, Signify
Index Page numbers in italic, e.g. 221, signify references to figures. Page numbers in bold, e.g. 60, denote references to tables. Adventure Subglacial Trench 220-221,221 structure 156 Alaska surface strain-rates 154-155, 154, 155, 156 Bering Glacier 60, 68, 75 tephra layer 149, 150, 151,152, 156 Black Rapids Glacier 172, 172, 173 thrust faults 153 Burroughs Glacier 60 Lambert Glacier 61, 72 Columbia Glacier 172, 173 Meserve Glacier 60, 181, 184, 184, 187, 189 Gulkana Glacier 60, 73 North Masson Range 116 Hubbard Glacier 75 South Masson Range 116 Kaskawulsh Glacier 60 South Shetland Islands 148 Malaspina Glacier 60, 68, 75 Suess Glacier, Taylor Valley 182, 187, 189 Phantom Lake 69 Taylor Glacier 11 Spencer Glacier 205 Taylor Valley 182 Twin Glacier 60 Transantarctic Mountain range 221 Variegated Glacier 61, 65, 67, 68, 76, 76, 86 Wordie Ice Shelf 61 deformation history 90, 92, 94 Ards Peninsula, Northern Ireland 307 shear zones 72, 75, 75 argillans, definition 256 strain 88, 89, 92, 94 Arrhenius relation 34 subglacial till deformation 172 Asgard Range, Antarctica 182 surging 86, 87 Astro Glacier, Canada 69 velocity 88, 89 Austerdalsbreen, Norway 60 Worthington Glacier 61, 65 Austre Broggerbreen, Svalbard 70 Amery Ice Shelf, Antarctica 61 Austre Lov+nbreen, Svalbard 70, 77 ammonium concentration, Greenland Ice Sheet Austre Okstindbreen, Norway 205 15, 16, 20 Austria anisotropy of ice Hintereisferner 60 annealing 101, 104, 106, 107, 111, 112 Langtaufererjochferner 60 c-axis orientation 100-104, 101, 103, 104, 105-107, Pasterze Glacier, -
ENVIRONMENTAL IMPACT ASSESSMENT – AUSTRALIAN ANTARCTIC PROGRAM AVIATION OPERATIONS 2020-2025 Draft Released for Public Comment
ENVIRONMENTAL IMPACT ASSESSMENT – AUSTRALIAN ANTARCTIC PROGRAM AVIATION OPERATIONS 2020-2025 draft released for public comment This document should be cited as: Commonwealth of Australia (2020). Environmental Impact Assessment – Australian Antarctic Program Aviation Operations 2020-2025 – draft released for public comment. Australian Antarctic Division, Kingston. © Commonwealth of Australia 2020 This work is copyright. You may download, display, print and reproduce this material in unaltered form only (retaining this notice) for your personal, non-commercial use or use within your organisation. Apart from any use as permitted under the Copyright Act 1968, all other rights are reserved. Requests and enquiries concerning reproduction and rights should be addressed to. Disclaimer The contents of this document have been compiled using a range of source materials and were valid as at the time of its preparation. The Australian Government is not liable for any loss or damage that may be occasioned directly or indirectly through the use of or reliance on the contents of the document. Cover photos from L to R: groomed runway surface, Globemaster C17 at Wilkins Aerodrome, fuel drum stockpile at Davis, Airbus landing at Wilkins Aerodrome Prepared by: Dr Sandra Potter on behalf of: Mr Robb Clifton Operations Manager Australian Antarctic Division Kingston 7050 Australia 2 Contents Overview 7 1. Background 9 1.1 Australian Antarctic Program aviation 9 1.2 Previous assessments of aviation activities 10 1.3 Scope of this environmental impact assessment 11 1.4 Consultation and decision outcomes 12 2. Details of the proposed activity and its need 13 2.1 Introduction 13 2.2 Inter-continental flights 13 2.3 Air-drop operations 14 2.4 Air-to-air refuelling operations 14 2.5 Operation of Wilkins Aerodrome 15 2.6 Intra-continental fixed-wing operations 17 2.7 Operation of ski landing areas 18 2.8 Helicopter operations 18 2.9 Fuel storage and use 19 2.10 Aviation activities at other sites 20 2.11 Unmanned aerial systems 20 2.12 Facility decommissioning 21 3.