18Th EANA Conference European Astrobiology Network Association
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Joint Session on Human and Robotic Partnerships to Realize Space Exploration Goals (3.-B3.6)
Paper ID: 11248 62nd International Astronautical Congress 2011 14th HUMAN EXPLORATION OF THE MOON AND MARS SYMPOSIUM (A5) Joint session on Human and Robotic Partnerships to Realize Space Exploration Goals (3.-B3.6) Author: Mr. Dipl. Physiker. Jeffrey Hendrikse Airbus DS GmbH, Germany, jeff[email protected] Ms. Ayako Ono Tohoku University Graduate School of Medicine, Japan, [email protected] Dr. Irene Lia Schlacht Politecnico di Milano / Technische Universitaet Berlin, Italy, [email protected] Mr. Ivo Ferreira Instituto Superior T´ecnico,Portugal, [email protected] Dr. Balwant Rai India, drbalwantraissct@rediffmail.com Mr. Romain Benchenafi Ecole de l'Air, France, r.benchenafi@hotmail.fr Mr. K´evinTheatre Ecole de l'Air, France, [email protected] Ms. Audrey Lan San Ecole de l'Air, France, [email protected] Mr. Quentin Bourges Ecole de l'Air, France, [email protected] Mr. Matthieu Ansart Ecole de l'Air, France, [email protected] Ms. Rachel Dompnier Ecole de l'Air, France, rachel [email protected] Prof. Bernard Foing ILEWG, The Netherlands, [email protected] HUMAN AND ROBOTIC PARTNERSHIPS FROM EUROMOONMARS ANALOGUE MISSIONS 2011 Abstract The International Lunar Exploration Working Group (ILEWG) through the means of the EuroMoon- Mars missions investigates the feasibility and limitations of human and robotic planetary exploration. Field tests were performed since 2008 up to 2011 at the Mars Desert Research Station (MDRS) in Utah. In two week rotations crews of six members came to the station to perform new missions and established the knowledge, conditions, systems, and equipment necessary to perform successful planetary exploration activities. -
Serpentinization: Connecting Geochemistry, Ancient Metabolism and Industrial Hydrogenation Martina Preiner
University of South Carolina Scholar Commons Faculty Publications Earth, Ocean and Environment, School of the 9-22-2018 Serpentinization: Connecting Geochemistry, Ancient Metabolism and Industrial Hydrogenation Martina Preiner Joana C. Xavier Fliipa L. Sousa Verena Zimorski Anna Neubeck See next page for additional authors Follow this and additional works at: https://scholarcommons.sc.edu/geol_facpub Part of the Oceanography Commons Publication Info Life, Volume 8, Issue 4, 2018, pages 1-22. © 2018 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/). Preiner, M., Xavier, J. C., Sousa, F. L., Zimorski, V., Neubeck, A., Lang, S. Q., … Martin, W. F. (2018). Serpentinization: Connecting geochemistry, ancient metabolism and industrial hydrogenation. Life, 8(4), 41. doi:10.3390/life8040041 This Article is brought to you by the Earth, Ocean and Environment, School of the at Scholar Commons. It has been accepted for inclusion in Faculty Publications by an authorized administrator of Scholar Commons. For more information, please contact [email protected]. Author(s) Martina Preiner, Joana C. Xavier, Fliipa L. Sousa, Verena Zimorski, Anna Neubeck, Susan Q. Lang, H. Chris Greenwell, Karl Kleinermanns, Harun Tüysüz, Tom M. McCollom, Nils G. Holm, and William F. Martin This article is available at Scholar Commons: https://scholarcommons.sc.edu/geol_facpub/95 life Review Serpentinization: Connecting Geochemistry, Ancient Metabolism and Industrial Hydrogenation Martina Preiner 1,* , Joana C. Xavier 1 , Filipa L. Sousa 2, Verena Zimorski 1, Anna Neubeck 3, Susan Q. -
Sulfur Metabolism Pathways in Sulfobacillus Acidophilus TPY, a Gram-Positive Moderate Thermoacidophile from a Hydrothermal Vent
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Frontiers - Publisher Connector ORIGINAL RESEARCH published: 18 November 2016 doi: 10.3389/fmicb.2016.01861 Sulfur Metabolism Pathways in Sulfobacillus acidophilus TPY, A Gram-Positive Moderate Thermoacidophile from a Hydrothermal Vent Wenbin Guo 1, Huijun Zhang 1, 2, Wengen Zhou 1, 2, Yuguang Wang 1, Hongbo Zhou 2 and Xinhua Chen 1, 3* 1 Key Laboratory of Marine Biogenetic Resources, Third Institute of Oceanography, State Oceanic Administration, Xiamen, China, 2 Department of Bioengineering, School of Minerals Processing and Bioengineering, Central South University, Changsha, China, 3 Laboratory for Marine Biology and Biotechnology, Qingdao National Laboratory forMarine Science and Technology, Qingdao, China Sulfobacillus acidophilus TPY, isolated from a hydrothermal vent in the Pacific Ocean, is a moderately thermoacidophilic Gram-positive bacterium that can oxidize ferrous iron or Edited by: sulfur compounds to obtain energy. In this study, comparative transcriptomic analyses of Jake Bailey, University of Minnesota, USA S. acidophilus TPY were performed under different redox conditions. Based on these Reviewed by: results, pathways involved in sulfur metabolism were proposed. Additional evidence M. J. L. Coolen, was obtained by analyzing mRNA abundance of selected genes involved in the sulfur Curtin University, Australia Karen Elizabeth Rossmassler, metabolism of sulfur oxygenase reductase (SOR)-overexpressed S. acidophilus TPY Colorado State University, USA recombinant under different redox conditions. Comparative transcriptomic analyses of *Correspondence: S. acidophilus TPY cultured in the presence of ferrous sulfate (FeSO4) or elemental Xinhua Chen sulfur (S0) were employed to detect differentially transcribed genes and operons involved [email protected] in sulfur metabolism. -
Extremely Thermophilic Microorganisms As Metabolic Engineering Platforms for Production of Fuels and Industrial Chemicals
REVIEW published: 05 November 2015 doi: 10.3389/fmicb.2015.01209 Extremely thermophilic microorganisms as metabolic engineering platforms for production of fuels and industrial chemicals Benjamin M. Zeldes 1, Matthew W. Keller 2, Andrew J. Loder 1, Christopher T. Straub 1, Michael W. W. Adams 2 and Robert M. Kelly 1* 1 Department of Chemical and Biomolecular Engineering, North Carolina State University, Raleigh, NC, USA, 2 Department of Biochemistry and Molecular Biology, University of Georgia, Athens, GA, USA Enzymes from extremely thermophilic microorganisms have been of technological interest for some time because of their ability to catalyze reactions of industrial significance at elevated temperatures. Thermophilic enzymes are now routinely produced in recombinant mesophilic hosts for use as discrete biocatalysts. Genome and metagenome sequence data for extreme thermophiles provide useful information for putative biocatalysts for a wide range of biotransformations, albeit involving at most a few enzymatic steps. However, in the past several years, unprecedented progress has been made in establishing molecular genetics tools for extreme thermophiles to the point Edited by: that the use of these microorganisms as metabolic engineering platforms has become Bettina Siebers, University of Duisburg-Essen, possible. While in its early days, complex metabolic pathways have been altered or Germany engineered into recombinant extreme thermophiles, such that the production of fuels and Reviewed by: chemicals at elevated temperatures has become possible. Not only does this expand the Haruyuki Atomi, thermal range for industrial biotechnology, it also potentially provides biodiverse options Kyoto University, Japan Phillip Craig Wright, for specific biotransformations unique to these microorganisms. The list of extreme University of Sheffield, UK thermophiles growing optimally between 70 and 100◦C with genetic toolkits currently *Correspondence: available includes archaea and bacteria, aerobes and anaerobes, coming from genera Robert M. -
Perspectives
Copyright 1999 by the Genetics Society of America Perspectives Anecdotal, Historical and Critical Commentaries on Genetics Edited by James F. Crow and William F. Dove What Archaea Have to Tell Biologists William B. Whitman,* Felicitas Pfeifer,² Paul Blum³ and Albrecht Klein§ *Department of Microbiology, University of Georgia, Athens Georgia 30602-2605, ²Institut fuer Mikrobiologie und Genetik, Technischen Universitaet, D-64287 Darmstadt Germany, ³School of Biological Sciences, University of Nebraska, Lincoln, Nebraska 68588-0666 and §Fachbereich Biologie-Genetik, Universitaet Marburg, D-35043 Marburg, Germany E are excited to present the following review and While the study of fascinating microorganisms needs W research articles on archaeal research, and we no special justi®cation, the archaea provide unique op- thank the Genetics Society of America for this opportu- portunities to gain insight into a number of fundamen- nity. In addition, we recognize the contributions of our tal problems in biology. As one of the most ancient colleagues, Charles Daniels (Ohio State University) and lineages of living organisms, the archaea set a boundary Michael Thomm (Universitaet Kiel), who along with for evolutionary diversity and have the potential to offer the authors served as coeditors of papers on archaea in key insights into the early evolution of life, including this volume. the origin of the eukaryotes. Many archaea are also More than two decades after the initial proposal, the extremophiles that ¯ourish at high temperature, low or archaeal hypothesis remains the best explanation for high pH, or high salt and delineate another boundary the unexpected diversity of molecular and biochemical for life, the biochemical and geochemical boundary, properties found in the prokaryotes. -
ELBA BIOFLUX Extreme Life, Biospeology & Astrobiology International Journal of the Bioflux Society
ELBA BIOFLUX Extreme Life, Biospeology & Astrobiology International Journal of the Bioflux Society A short review on tardigrades – some lesser known taxa of polyextremophilic invertebrates 1Andrea Gagyi-Palffy, and 2Laurenţiu C. Stoian 1Faculty of Environmental Sciences and Engineering, Babeş-Bolyai University, Cluj- Napoca, Romania; 2Faculty of Geography, Babeş-Bolyai University, Cluj-Napoca, Romania. Corresponding author: A. Gagyi-Palffy, [email protected] Abstract. Tardigrades are polyextremophilic small organisms capable to survive in a variety of extreme conditions. By reversibly suspending their metabolism (cryptobiosis – tun state) tardigrades can dry or freeze and, thus, survive the extreme conditions like very high or low pressure and temperatures, changes in salinity, lack of oxygen, lack of water, some noxious chemicals, boiling alcohol, even the vacuum of the outer space. Despite their peculiar morphology and amazing diversity of habitats, relatively little is known about these organisms. Tardigrades are considered some lesser known taxa. Studying tardigrades can teach us about the evolution of life on our planet, can help us understand what extremophilic evolution and adaptation means and they can show us what forms of life may develop on other planets. Key Words: tardigrades, extremophiles, extreme environments, adaptation. Rezumat. Tardigradele sunt mici organisme poliextremofile capabile să supraviețuiască într-o varietate de condiţii extreme. Suspendandu-şi reversibil metabolismul (criptobioză) tardigradele pot să se usuce sau să îngheţe şi, astfel, să supravieţuiască unor condiţii extreme precum presiuni şi temperaturi foarte scăzute sau crescute, variaţii de salinitate, lipsă de oxygen, lipsă de apă, unele chimicale toxice, alcool în fierbere, chiar şi vidul spaţiului extraterestru. În ciuda morfologiei lor deosebite şi a diversittii habitatelor lor, se cunosc relativ puţine aspecte se despre aceste organisme. -
ESA Bulletin February 2003
SMART-1/2 3/3/03 3:56 PM Page 14 Science A Solar-Powered Visit to the Moon “As the first spacecraft to use primary electric propulsion in conjunction with gravity manoeuvres,and as Europe’s first mission to the Moon, SMART-1 opens up new horizons in space engineering and scientific discovery.Moreover,we promise frequent news and pictures,so that everyone can share in our lunar adventure.” Giuseppe Racca, ESA’s Smart-1 Project Manager. 14 SMART-1/2 3/3/03 3:56 PM Page 15 SMART-1 The SMART-1 Mission Giuseppe Racca, Bernard Foing, and the SMART-1 Project Team ESA Directorate of Scientific Programmes, ESTEC, Noordwijk, The Netherlands y July 2003 a hitchhiking team of engineers and scientists will be at Europe’s spaceport at Kourou in French Guiana, thumbing Ba lift for a neat little spacecraft, ESA’s SMART-1, on the next Ariane-5 launcher that has room to spare. It’s not very big - just a box a metre wide with folded solar panels attached - and six strong men could lift it. It weighs less than 370 kilograms, compared with thousands of kilos for Ariane’s usual customers’satellites. So it should pose no problems as an auxiliary passenger. SMART stands for Small Missions for Advanced Research in Technology. They pave the way for the novel and ambitious science projects of the future, by testing the new technologies that will be needed. But a SMART project is also required to be cheap - about one- fifth of the cost of a major science mission for ESA - which is why SMART-1 has no launcher of its own. -
201 Scientific Results Preliminary Pages And
PROCEEDINGS OF THE OCEAN DRILLING PROGRAM Prepared by the OCEAN DRILLING PROGRAM, TEXAS A&M UNIVERSITY, in cooperation with the NATIONAL SCIENCE FOUNDATION and JOINT OCEANOGRAPHIC INSTITUTIONS, INC. 2 PROCEEDINGS OF THE OCEAN DRILLING PROGRAM Volume 201 Scientific Results Controls on Microbial Communities in Deeply Buried Sediments, Eastern Equatorial Pacific and Peru Margin Covering Leg 201 of the cruises of the Drilling Vessel JOIDES Resolution San Diego, California, to Valparaiso, Chile Sites 1225–1231 27 January–29 March 2002 SHIPBOARD SCIENTISTS Bo B. Jørgensen, Steven L. D’Hondt, D. Jay Miller, Ivano W. Aiello, Barbara Bekins, Ruth Blake, Barry A. Cragg, Heribert Cypionka, Gerald R. Dickens, Timothy Ferdelman, Kathryn Ford, Glen L. Gettemy, Gilles Guèrin, Kai-Uwe Hinrichs, Nils Holm, Christopher House, Fumio Inagaki, Patrick Meister, Richard M. Mitterer, Thomas Naehr, Sachiko Niitsuma, R. John Parkes, Axel Schippers, C. Gregory Skilbeck, David C. Smith, Arthur J. Spivack, Andreas Teske, Juergen Wiegel SHIPBOARD STAFF SCIENTIST D. Jay Miller EDITORIAL REVIEW BOARD Bo B. Jørgensen, Steven L. D’Hondt, D. Jay Miller 3 Reference to the whole or to part of this volume should be made as follows: Print citation for synthesis chapter: Jørgensen, B.B., D’Hondt, S.L., and Miller, D.J., 2006. Leg 201 synthesis: Controls on microbial communities in deeply buried sediments. In Jørgensen, B.B., D’Hondt, S.L., and Miller, D.J. (Eds.), Proc. ODP, Sci. Results, 201: College Station TX (Ocean Drilling Program), 1–45. CD-ROM volume citation: Jørgensen, B.B., D’Hondt, S.L., and Miller, D.J. (Eds.), 2006. Proc. ODP, Sci. -
Deep-Sea Hydrothermal Vent Euryarchaeota 2”
View metadata, citation and similar papers at core.ac.uk brought to you by CORE ORIGINAL RESEARCH ARTICLE published: 20 February 2012provided by PubMed Central doi: 10.3389/fmicb.2012.00047 Distribution, abundance, and diversity patterns of the thermoacidophilic “deep-sea hydrothermal vent euryarchaeota 2” Gilberto E. Flores†, Isaac D. Wagner,Yitai Liu and Anna-Louise Reysenbach* Department of Biology, Center for Life in Extreme Environments, Portland State University, Portland, OR, USA Edited by: Cultivation-independent studies have shown that taxa belonging to the “deep-sea Kirsten Silvia Habicht, University of hydrothermal vent euryarchaeota 2” (DHVE2) lineage are widespread at deep-sea Southern Denmark, Denmark hydrothermal vents. While this lineage appears to be a common and important mem- Reviewed by: Kuk-Jeong Chin, Georgia State ber of the microbial community at vent environments, relatively little is known about their University, USA overall distribution and phylogenetic diversity. In this study, we examined the distribu- Elizaveta Bonch-Osmolovskyaya, tion, relative abundance, co-occurrence patterns, and phylogenetic diversity of cultivable Winogradsky Institute of Microbiology thermoacidophilic DHVE2 in deposits from globally distributed vent fields. Results of quan- Russian Academy of Sciences, Russia titative polymerase chain reaction assays with primers specific for the DHVE2 and Archaea *Correspondence: Anna-Louise Reysenbach, demonstrate the ubiquity of the DHVE2 at deep-sea vents and suggest that they are sig- Department of Biology, Center for nificant members of the archaeal communities of established vent deposit communities. Life in Extreme Environments, Local similarity analysis of pyrosequencing data revealed that the distribution of the DHVE2 Portland State University, PO Box was positively correlated with 10 other Euryarchaeota phylotypes and negatively correlated 751, Portland, OR 97207-0751, USA. -
Resolving a Piece of the Archaeal Lipid Puzzle COMMENTARY Ann Pearsona,1
COMMENTARY Resolving a piece of the archaeal lipid puzzle COMMENTARY Ann Pearsona,1 Lipid membranes are common to all cells, despite archaea, in which it is observed that a higher fractional occurring in many different forms across Earth’s great abundance of cyclopentane rings is associated with biotic diversity. Among the most distinctive mem- higher growth temperature (1, 11). Refined calibra- branes are those formed by the archaea, whose lipids tions of the TEX86 index and its response to upper are characterized by sn-2,3-glycerol stereochemistry ocean temperatures have made it a key tool for the (in contrast to sn-1,2-glycerol in bacteria and eukarya), paleoclimate community (12). isoprenoid rather than acetyl hydrophobic chains, and However, archaeal groups in addition to Thaumarch- frequent occurrence as membrane-spanning macrocycle aeota also make cyclopentane-containing GDGTs, includ- structures (1). The membrane-spanning lipids consist ing the Crenarchaeota and many divisions of Euryarchaeota of mixed assemblages of structural isomers contain- (Fig. 1A). In particular, the surface-dwelling Marine ingupto8internalcyclopentanerings(GDGT-0 Group II (MG-II) Euryarchaeota have been suggested through GDGT-8 [glycerol dibiphytanyl glycerol tet- to be GDGT sources (13). This would affect TEX86 raethers with zero to 8 rings]) (Fig. 1). Many aspects of signals if their ring distributions have different physio- the biosynthesis of these unusual structures remain un- logical controls compared to Thaumarchaeota. Such known, but, in PNAS, Zeng et al. (2) take an important differences in lipid response might be expected, be- step forward by revealing genes encoding for 2 enzymes cause, to date, the known ammonia-oxidizing Thau- involved in synthesis of the cyclopentane moieties. -
Kevin Mcgrath
EUROMOONMARS EARTH SPACE & INNOVATION EMMESI WORKSHOP (VIRTUAL HYBRID ZOOM) 16-19 MARCH 2021 (TIMES CET) PROGRAMME V6 10/3 E U R O M O O N M A R S , E A R T H , S P A C E & I N N O V A T I O N E M M E S I W O R K S H O P ( V I R T U A L H Y B R I D Z O O M ) 1 6 - 1 9 M A R C H 2 0 2 1 ( T I M E S C E T ) P R O G R A M M E V 6 1 0 / 3 Leiden Innovation Centre PLNT Langegracht 70, Leiden: 16-19 March physical presence capacity for 20 persons with safe social distancing, if you plan to attend in person on a given day, please inform chairs of the day, Fabian Mulder, and Bernard Foing (email contacts at end). Presentations: all speakers please confirm your talk and send your ppt slides in advance to co-chairs of the day (copy [email protected]) before 15 March 14h CET Planned physically present speakers /participants are shown in bold in the programme. EMMESI zoom link will be sent to participants before 12 March. Preparation: 24 Feb installation ExoGeoLab lander, 3 &10 March test of lander, instruments , rover, telescope; 13 March LIC 10h MoonGallery installation, 14 April lander@”Field” Join Zoom Meeting https://us02web.zoom.us/j/84327171302?pwd=VXZ5ZTlKSkpMZm1uQnZyclBmbTA4dz09 Please download and import the following iCalendar (.ics) files to your calendar system. -
IAA Commission 1 'Space Physical Sciences'
IAA Commission 1 ‘Space Physical Sciences’ Meeting Sunday, 1 October 2006, 9:00 am, Valencia, Spain Minutes of meeting Meeting Attendance: Stamatios Krimigis (chair), Nickolay Smirnov (secretary), Marie-Lise Chanin, Robert Farquhar, Bernard Foing, Ralph Jaumann, Valery Korepanov, Vladimir Kuznetsov, Claudio Maccone, Ralph McNutt, K. Tono Uesugi, Francisco Valero, Ji Wu, Koujun Yamashita. Agenda: 1. Welcome, apologies and adoption of agenda Chair 2. Minutes from Paris meeting March 2006 and Beijing meeting July 2006 3. Report on IAA Day at COSPAR , Beijing, July 2006 Chair 4. Program for 57th IAC, Valencia, Spain, October 2006 All - Highlight Lectures/Plenary events 5. Study Group activities 5.1 Ongoing studies: SETI (S1.3) SETI representative 5.2 Ongoing studies: ‘The Next Steps...’(S1.4) Bob Farquhar 5.3 Ongoing studies: Mars Radiation Envir.(S1.5) Susan McKenna-Lawlor 6. Status of any plans for IAA Conferences in 2007 – 2008 All 7. Strategic discussion: 7.1 Engaging more members in IAA activities 7.2 Engaging new elected members 7.3 Acquiring younger potential members 8. Discussion of Commission 1 officer succession for Oct 2007 All 9. Next meeting in Paris, March 2007 10. Any Other Business 1. Welcome Stamatios Krimigis was chairing the meeting due to absence of Commission 1 Chair and Vice- Chair. He warmly welcomed the attendees. Participants introduced themselves. 2. Minutes from Paris meeting March 2006 and Beijing meeting July 2006 Minutes from Paris meeting were approved. There were no minutes from Beijing because Commission 1 meeting did not take place there. 3. Report on IAA Day at COSPAR , Beijing. That was approved.