Mission Accomplished for Corot
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Asteroseismology with Corot, Kepler, K2 and TESS: Impact on Galactic Archaeology Talk Miglio’S
Asteroseismology with CoRoT, Kepler, K2 and TESS: impact on Galactic Archaeology talk Miglio’s CRISTINA CHIAPPINI Leibniz-Institut fuer Astrophysik Potsdam PLATO PIC, Padova 09/2019 AsteroseismologyPlato as it is : a Legacy with CoRoT Mission, Kepler for Galactic, K2 and TESS: impactArchaeology on Galactic Archaeology talk Miglio’s CRISTINA CHIAPPINI Leibniz-Institut fuer Astrophysik Potsdam PLATO PIC, Padova 09/2019 Galactic Archaeology strives to reconstruct the past history of the Milky Way from the present day kinematical and chemical information. Why is it Challenging ? • Complex mix of populations with large overlaps in parameter space (such as Velocities, Metallicities, and Ages) & small volume sampled by current data • Stars move away from their birth places (migrate radially, or even vertically via mergers/interactions of the MW with other Galaxies). • Many are the sources of migration! • Most of information was confined to a small volume Miglio, Chiappini et al. 2017 Key: VOLUME COVERAGE & AGES Chiappini et al. 2018 IAU 334 Quantifying the impact of radial migration The Rbirth mix ! Stars that today (R_now) are in the green bins, came from different R0=birth Radial Migration Sources = bar/spirals + mergers + Inside-out formation (gas accretion) GalacJc Center Z Sun R Outer Disk R = distance from GC Minchev, Chiappini, MarJg 2013, 2014 - MCM I + II A&A A&A 558 id A09, A&A 572, id A92 Two ways to expand volume for GA • Gaia + complementary photometric information (but no ages for far away stars) – also useful for PIC! • Asteroseismology of RGs (with ages!) - also useful for core science PLATO (miglio’s talk) The properties at different places in the disk: AMR CoRoT, Gaia+, K2 + APOGEE Kepler, TESS, K2, Gaia CoRoT, Gaia+, K2 + APOGEE PLATO + 4MOST? Predicon: AMR Scatter increases towards outer regions Age scatter increasestowars outer regions ExtracGng the best froM GaiaDR2 - Anders et al. -
Multiple Star Systems Observed with Corot and Kepler
Multiple star systems observed with CoRoT and Kepler John Southworth Astrophysics Group, Keele University, Staffordshire, ST5 5BG, UK Abstract. The CoRoT and Kepler satellites were the first space platforms designed to perform high-precision photometry for a large number of stars. Multiple systems dis- play a wide variety of photometric variability, making them natural benefactors of these missions. I review the work arising from CoRoT and Kepler observations of multiple sys- tems, with particular emphasis on eclipsing binaries containing giant stars, pulsators, triple eclipses and/or low-mass stars. Many more results remain untapped in the data archives of these missions, and the future holds the promise of K2, TESS and PLATO. 1 Introduction The CoRoT and Kepler satellites represent the first generation of astronomical space missions capable of large-scale photometric surveys. The large quantity – and exquisite quality – of the data they pro- vided is in the process of revolutionising stellar and planetary astrophysics. In this review I highlight the immense variety of the scientific results from these concurrent missions, as well as the context provided by their precursors and implications for their successors. CoRoT was led by CNES and ESA, launched on 2006/12/27,and retired in June 2013 after an irre- trievable computer failure in November 2012. It performed 24 observing runs, each lasting between 21 and 152days, with a field of viewof 2×1.3◦ ×1.3◦, obtaining light curves of 163000 stars [42]. Kepler was a NASA mission, launched on 2009/03/07and suffering a critical pointing failure on 2013/05/11. It observed the same 105deg2 sky area for its full mission duration, obtaining high-precision light curves of approximately 191000 stars. -
Data Mining in the Spanish Virtual Observatory. Applications to Corot and Gaia
Highlights of Spanish Astrophysics VI, Proceedings of the IX Scientific Meeting of the Spanish Astronomical Society held on September 13 - 17, 2010, in Madrid, Spain. M. R. Zapatero Osorio et al. (eds.) Data mining in the Spanish Virtual Observatory. Applications to Corot and Gaia. Mauro L´opez del Fresno1, Enrique Solano M´arquez1, and Luis Manuel Sarro Baro2 1 Spanish VO. Dep. Astrof´ısica. CAB (INTA-CSIC). P.O. Box 78, 28691 Villanueva de la Ca´nada, Madrid (Spain) 2 Departamento de Inteligencia Artificial. ETSI Inform´atica.UNED. Spain Abstract Manual methods for handling data are impractical for modern space missions due to the huge amount of data they provide to the scientific community. Data mining, understood as a set of methods and algorithms that allows us to recover automatically non trivial knowledge from datasets, are required. Gaia and Corot are just a two examples of actual missions that benefits the use of data mining. In this article we present a brief summary of some data mining methods and the main results obtained for Corot, as well as a description of the future variable star classification system that it is being developed for the Gaia mission. 1 Introduction Data in Astronomy is growing almost exponentially. Whereas projects like VISTA are pro- viding more than 100 terabytes of data per year, future initiatives like LSST (to be operative in 2014) and SKY (foreseen for 2024) will reach the petabyte level. It is, thus, impossible a manual approach to process the data returned by these surveys. It is impossible a manual approach to process the data returned by these surveys. -
DR. DOMINIQUE AUBERT DOB 10Th August 1978 - 31 Years French
DR. DOMINIQUE AUBERT DOB 10th August 1978 - 31 years French Lecturer Université de Strasbourg Observatoire Astronomique [email protected] http://astro.u-strasbg.fr/~aubert CURRENT SITUATION Lecturer at the University of Strasbourg, member of the Astronomical Observatory since September 2006. TOPICS RESEARCH • Formation of large structures in the Universe, Cosmology • Epoch of Reionization, galaxies, galactic dynamics, gravitational lenses • Numerical simulations, high performance computing, hardware acceleration of scientific computing on graphics cards (Graphics Processing Units - GPUs) CAREER • October 2005 - September 2006: Post-Doc CNRS, Service d'Astrophysique, CEA, Saclay, France. • April 2005 - October 2005: Max-Planck Institut fur Astrophysik, Garching, Germany, visitor. • April 2004-October 2004: Institute of Astronomy, Cambridge, UK, Marie Curie visitorship. • October 2001-April 2005: PhD thesis "Measurement and implications of dark matter flows at the surface of the virial sphere", University Paris XI and Astronomical Observatory of Strasbourg. REFEERED PUBLICATIONS • Reionisation powered by GPUs I : the structure of the ultra-violet background, Aubert D. & Teyssier R., April 2010, submitted to ApJ, available on request, arXiv:1004.2503 • The dusty, albeit ultraviolet bright infancy of galaxies. Devriendt, J.; Rimes, C.; Pichon, C.; Teyssier, R.; Le Borgne, D.; Aubert, D.; Audit, E.; Colombi, S.; Courty, S; Dubois, Y.; Prunet, S.; Rasera, Y.; Slyz, A.; Tweed, D., Submitted to MNRAS, arXiv:0912.0376 • Galactic kinematics with modified Newtonian dynamics. Bienaymé, O.; Famaey, B.; Wu, X.; Zhao, H. S.; Aubert, D. A&A, April 2009, in press. • A particle-mesh integrator for galactic dynamics powered by GPGPUs. Aubert, D., Amini, M. & David, R. Accepted contribution to ICCS 2009. • Full-Sky Weak Lensing Simulation with 70 Billion Particles. -
Photometry of Be Stars in the Vicinity of COROT Primary Targets for Asteroseismology
Comm. in Asteroseismology Vol. 143, 2003 Photometry of Be stars in the vicinity of COROT primary targets for asteroseismology J. Guti´errez-Soto1, J. Fabregat1, J. Suso2, A.M. Hubert3, M. Floquet3 and R. Garrido4 1 Observatori Astron`omic, Universitat de Val`encia 2 Instituto Ciencia de los Materiales, Universitat de Val`encia 3GEPI, Observatoire de Paris-Meudon 4Instituto de Astrof´ısica de Andaluc´ıa Abstract We present differential photometry of Be stars close to potential COROT pri- mary targets for asteroseismology. Several stars are found to be short pe- riod variables. We propose them to be considered as secondary targets in the COROT asteroseismology fields. Introduction The observation of classical Be stars by COROT will provide important keys to understand the physics of these objects and the nature of the Be phenomenon. In particular, the detection of photospheric multiperiodicity will confirm the presence of non radial pulsations (nrp) as the origin of the short term variability. COROT observations will allow the study of the beat phenomenon of nrp modes and its relation with recurrent outbursts and the building of the circumstellar disc. Our group is proposing the observation of Be stars as secondary targets for the asteroseismology fields. A sample of stars in the vicinity of the main target candidates is under study for this purpose. Hubert et al. (2001, 2003) presented the selected objects and performed a study of their short term variability using Hipparcos photometric data. We have obtained new ground based photometry with a more suitable time sampling to further characterize their variability. 2 Photometry of Be stars in the vicinity of COROT primary targets for asteroseismology Observations and data analysis Observations were done at the 0.9 m telescope of the Observatorio de Sierra Nevada (Granada, Spain). -
Innovation and Sustainability in French Fashion Tech Outlook and Opportunities. Report By
Innovation and sustainability in French Fashion Tech outlook and opportunities Commissioned by the Netherlands Enterprise Agency and the Innovation Department of the Embassy of the Kingdom of the Netherlands in France December 2019 This study is commissioned by the Innovation Department of the Embassy of the Kingdom of the Netherlands in France and the Netherlands Enterprise Agency (RVO.nl). Written by Alice Gras and Claire Eliot Translated by Sophie Bramel pages 6-8 INTRODUCTION 7 01. Definition and key dates 8 02. Dutch fashion tech dynamics I 9-17 THE CONVERGENCE OF ECOLOGICAL AND ECONOMIC SUSTAINABILITY IN FASHION 11-13 01. Key players 14 02. Monitoring impact 14-16 03. Sustainable innovation and business models 17 04. The impact and long-term influence of SDGs II 18-30 THE FRENCH FASHION INNOVATION LANDSCAPE 22-23 01. Technological innovation at leading French fashion companies 25-26 02. Public institutions and federations 27-28 03. Funding programmes 29 04. Independent structures, associations and start-ups 30 05. Specialised trade events 30 06. Specialised media 30 07. Business networks 30 08 . Technological platforms III 31-44 FASHION AND SCIENTIFIC RESEARCH: CURRENT AND FUTURE OUTLOOK 34-35 01. Mapping of research projects 36-37 02. State of fashion research in France 38-39 03. Key fields of research in fashion technology and sustainability 40 04. Application domains of textile research projects 42-44 05. Fostering research in France IV 45-58 NEW TECHNOLOGIES TO INNOVATE IN THE FRENCH FASHION SECTOR 47 01. 3D printing 48 02. 3D and CAD Design 49-50 03. Immersive technologies 51 04. -
PDF Program Book
46th Meeting of the Division for Planetary Sciences with Historical Astronomy Division (HAD) 9-14 November 2014 | Tucson, AZ OFFICERS AND MEMBERS ........ 2 SPONSORS ............................... 2 EXHIBITORS .............................. 3 FLOOR PLANS ........................... 5 ATTENDEE SERVICES ................. 8 Session Numbering Key SCHEDULE AT-A-GLANCE ........ 10 100s Monday 200s Tuesday SUNDAY ................................. 20 300s Wednesday 400s Thursday MONDAY ................................ 23 500s Friday TUESDAY ................................ 44 Sessions are numbered in the program book by day and time. WEDNESDAY .......................... 75 All posters will be on display Monday - Friday THURSDAY.............................. 85 FRIDAY ................................. 119 Changes after 1 October are included only in the online program materials. AUTHORS INDEX .................. 137 1 DPS OFFICERS AND MEMBERS Current DPS Officers Heidi Hammel Chair Bonnie Buratti Vice-Chair Athena Coustenis Secretary Andrew Rivkin Treasurer Nick Schneider Education and Public Outreach Officer Vishnu Reddy Press Officer Current DPS Committee Members Rosaly Lopes Term Expires November 2014 Robert Pappalardo Term Expires November 2014 Ralph McNutt Term Expires November 2014 Ross Beyer Term Expires November 2015 Paul Withers Term Expires November 2015 Julie Castillo-Rogez Term Expires October 2016 Jani Radebaugh Term Expires October 2016 SPONSORS 2 EXHIBITORS Platinum Exhibitor Silver Exhibitors 3 EXHIBIT BOOTH ASSIGNMENTS 206 Applied -
Download the Press Release. (144.32
16 July 2020 PR084-2020 ESA RELEASES FIRST IMAGES FROM SOLAR ORBITER The European Space Agency (ESA) has released the first images from its Solar Orbiter spacecraft, which completed its commissioning phase in mid-June and made its first close approach to the Sun. Shortly thereafter, the European and U.S. science teams behind the mission’s ten instruments were able to test the entire instrument suite in concert for the first time. Despite the setbacks the mission teams had to contend with during commissioning of the probe and its instruments in the midst of the COVID-19 pandemic, the first images received are outstanding. The Sun has never been imaged this close up before. During its first perihelion, the point in the spacecraft’s elliptical orbit closest to the Sun, Solar Orbiter got to within 77 million kilometres of the star’s surface, about half the distance between the Sun and Earth. The spacecraft will eventually make much closer approaches; it is now in its cruise phase, gradually adjusting its orbit around the Sun. Once in its science phase, which will commence in late 2021, the spacecraft will get as close as 42 million kilometres, closer than the planet Mercury. The spacecraft’s operators will gradually tilt its orbit to get the first proper view of the Sun’s poles. Solar Orbiter first images here Launched during the night of 9 to 10 February, Solar Orbiter is on its way to the Sun on a voyage that will take a little over two years and a science mission scheduled to last between five and nine years. -
Lis Full CV 2021.Pages
Curriculum Vitae Dariusz C. (Darek) Lis Educa7on 1985 – 1989 University of MassachuseEs, Amherst, Department of Physics and Astronomy, Ph. D. 1981 – 1985 University of Warsaw, Department of Physics. Professional Experience 1989 – California Ins7tute of Technology. Jet Propulsion Laboratory, Scien7st 2019 –. Research Fellow in Physics 1989 – 1992; Senior Research Fellow in Physics (Research Assistant Professor) 1992 – 1998; Senior Research Associate in Physics (Research Professor) 1998 – 2015; Deputy Director, Caltech Submillimeter Observatory 2009 – 2014; Visi7ng Associate in Physics 2015 – 2020. 2014 – 2019 Sorbonne University (Pierre and Marie Curie University), Paris Observatory (PSL University). Professor (Professeur des universités 1ère classe); Director, Laboratory for Studies of Radia7on and MaEer in Astrophysics and Atmospheres (UMR 8112). 1985 – 1989 University of MassachuseEs. Research Assistant, Five College Radio Astronomy Observatory. Visi7ng Appointments 2013 École normale supérieure. Visi7ng Professor (Professeur des universités 1ère classe invité). 2011 University of Bordeaux 1. Visi7ng Associate Professor (Maître de conférences invité). 2007 Paris Observatory. Visi7ng Senior Astronomer (Astronome invité). 2003 Max Planck Ins7tute for Radio Astronomy. Visi7ng Scien7st. 1992 – 1994 University of California, Los Angeles. Lecturer. Awards 2014 NASA Group Achievement Award, U.S. Herschel HIFI Instrument Team. 2010 NASA Group Achievement Award, Herschel HIFI Hardware Development Team. 1985 Minister of Science and Higher Learning Fellowship, Poland. Research Astrophysics and astrochemistry of the interstellar medium, star forma7on. Evolu7on of molecular complexity in astrophysical environments. Vola7le composi7on of comets and the origin of Earth’s oceans. Submillimeter heterodyne instrumenta7on. Cometary research featured on Na7onal Geographic, CBC Quirks & Quarks, and in Scien7fic American. Astrophysics Data System: 254 refereed publica7ons, 11,500 cita7ons. Books edited: Submillimeter Astrophysics and Technology: A Symposium Honoring Thomas G. -
World Scientists' Warning of a Climate Emergency
Supplemental File S1 for the article “World Scientists’ Warning of a Climate Emergency” published in BioScience by William J. Ripple, Christopher Wolf, Thomas M. Newsome, Phoebe Barnard, and William R. Moomaw. Contents: List of countries with scientist signatories (page 1); List of scientist signatories (pages 1-319). List of 153 countries with scientist signatories: Albania; Algeria; American Samoa; Andorra; Argentina; Australia; Austria; Bahamas (the); Bangladesh; Barbados; Belarus; Belgium; Belize; Benin; Bolivia (Plurinational State of); Botswana; Brazil; Brunei Darussalam; Bulgaria; Burkina Faso; Cambodia; Cameroon; Canada; Cayman Islands (the); Chad; Chile; China; Colombia; Congo (the Democratic Republic of the); Congo (the); Costa Rica; Côte d’Ivoire; Croatia; Cuba; Curaçao; Cyprus; Czech Republic (the); Denmark; Dominican Republic (the); Ecuador; Egypt; El Salvador; Estonia; Ethiopia; Faroe Islands (the); Fiji; Finland; France; French Guiana; French Polynesia; Georgia; Germany; Ghana; Greece; Guam; Guatemala; Guyana; Honduras; Hong Kong; Hungary; Iceland; India; Indonesia; Iran (Islamic Republic of); Iraq; Ireland; Israel; Italy; Jamaica; Japan; Jersey; Kazakhstan; Kenya; Kiribati; Korea (the Republic of); Lao People’s Democratic Republic (the); Latvia; Lebanon; Lesotho; Liberia; Liechtenstein; Lithuania; Luxembourg; Macedonia, Republic of (the former Yugoslavia); Madagascar; Malawi; Malaysia; Mali; Malta; Martinique; Mauritius; Mexico; Micronesia (Federated States of); Moldova (the Republic of); Morocco; Mozambique; Namibia; Nepal; -
2014 Science with the Hubble Space
Beyond HST: The Universe in High-Definition – UVOIR Space Astronomy in 2030 Julianne Dalcanton & Marc Postman Science with HST IV Meeting Rome, Italy March 18, 2014 Long History of Large Space UVOIR Telescope Concepts • VLST – 10m-16m concept (ca. 1989) • SUVO – 4m concept (ca. 1998-1999) • Workshop on 10m - 30m VLST (2003) • MUST – 10m concept (ca. 2004-2005) • ATLAST – 8m-16m concepts (ca. 2008-2010) • EUVO – European 8m concept (ca. 2013) • Modular Assembled 20m concept (ca. 2013) Scientifically compelling for over 2 decades! (Average Aperture Diameter – 13.5 meters) “Can we find another planet like Earth orbiting a nearby star? To find such a planet would complete the revolution, started by Copernicus nearly 500 years ago, that displaced the Earth as the center of the universe… The observational challenge is great but armed with new technologies… astronomers are poised to rise to it.” - U.S. 2010 Astronomy Decadal Review This is a question whose answer is sought by all of humanity and the search will demand international cooperation. The path has been laid ! for characterizing Earth 2.0 Kepler Hubble Spitzer CoRoT Ground-based Coronagraphs Gaia WFIRST 30-m class telescopes TESS JWST PLATO !"#$%&'('$)*+%&'($,)(%&$+-%$%&'('./$ Thick Atmosphere Methane Oxygen Fraction with terrestrial planets = !Earth FractionWater with detectable biosignature = fBio OpticalIf : ! Near-Infrared $ f ~ 1 then D ~ 4m Earth Bio0'12'($('#-2%#$ 8-meterTel 16-meter The signature of life is encoded inf the < 1 then D 8m spectrum! Earthof the Earth$ Bio $ tel ~ 70 !Earth $ fBio << 1 then DTel ~ 16m a > 12 Earths $ 60 50 40 30 # 4 Earths 20 4-meter 10 of total integration time of total integration time 0 Above: Distribution of all FGK stars within 45 pc of the Sun Number of Exo-Earths in 1 year 2-m 4-m 8-m 16-m where a R=70 spectrum of an Earth-twin could be acquired Telescope Size in <500 ksec shown as a function of telescope aperture. -
Advanced Technologies for Future Space Telescopes and Instruments
Advanced Technologies for Future Space Telescopes and Instruments - A sample of upcoming astronomy missions - Interferometry in space (Darwin) - Very large telescopes in orbit (XEUS) - Future space telescope concepts (TPF) Dr. Ph. Gondoin (ESA) IR and visible astronomy missions (ESA Cosmic Vision – NASA Origin programs) DARWIN TPF GAIA SIM Herschel SIRTF Planck Eddington Kepler JWST Corot 1 GAIA Science Objective: Understanding the structure and evolution of the Galaxy PayloadGAIA payload • 2 astrometric telescopes: • Separated by 106o • SiC mirrors (1.4 m × 0.5 m) • Large focal plane (TDI operating CCDs) • 1 additional telescope equipped with: • Medium-band photometer • Radial-velocity spectrometer 2 Technology requirements for GAIA (applicable to many future space missions) • Large focal plane assemblies: – 250 CCDs per astrometry field, 3 side buttable, small pixel (9 µm), high perf. CCDs ( large CTE, low-noise, wide size, high QE), TDI operation • Ultra-stable telescope structure and optical bench: • Light weight mirror elements: – SiC mirrors (highly aspherized for good off-axis performance) Large SiC mirror for space telescopes (Boostec) ESA Herschell telescope: 1.35 m prototype 3.5 m brazed flight model (12 petals) 3 James Webb Space Telescope (JWST) Mirror Actuators Beryllium Mirrors Mirror System AMSD SBMD Wavefront Sensing and Control, Mirror Phasing Secondary mirror uses six actuators In a hexapod configuration Primary mirror segments attached to backplane using actuators in a three-point kinematic mount NIRSpec: a Multi-object