IAU Commission 8 Astrometry Transactions Report 2012-2015
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II Publications, Presentations
II Publications, Presentations 1. Refereed Publications Izumi, K., Kotake, K., Nakamura, K., Nishida, E., Obuchi, Y., Ohishi, N., Okada, N., Suzuki, R., Takahashi, R., Torii, Abadie, J., et al. including Hayama, K., Kawamura, S.: 2010, Y., Ueda, A., Yamazaki, T.: 2010, DECIGO and DECIGO Search for Gravitational-wave Inspiral Signals Associated with pathfinder, Class. Quantum Grav., 27, 084010. Short Gamma-ray Bursts During LIGO's Fifth and Virgo's First Aoki, K.: 2010, Broad Balmer-Line Absorption in SDSS Science Run, ApJ, 715, 1453-1461. J172341.10+555340.5, PASJ, 62, 1333. Abadie, J., et al. including Hayama, K., Kawamura, S.: 2010, All- Aoki, K., Oyabu, S., Dunn, J. P., Arav, N., Edmonds, D., Korista sky search for gravitational-wave bursts in the first joint LIGO- K. T., Matsuhara, H., Toba, Y.: 2011, Outflow in Overlooked GEO-Virgo run, Phys. Rev. D, 81, 102001. Luminous Quasar: Subaru Observations of AKARI J1757+5907, Abadie, J., et al. including Hayama, K., Kawamura, S.: 2010, PASJ, 63, S457. Search for gravitational waves from compact binary coalescence Aoki, W., Beers, T. C., Honda, S., Carollo, D.: 2010, Extreme in LIGO and Virgo data from S5 and VSR1, Phys. Rev. D, 82, Enhancements of r-process Elements in the Cool Metal-poor 102001. Main-sequence Star SDSS J2357-0052, ApJ, 723, L201-L206. Abadie, J., et al. including Hayama, K., Kawamura, S.: 2010, Arai, A., et al. including Yamashita, T., Okita, K., Yanagisawa, TOPICAL REVIEW: Predictions for the rates of compact K.: 2010, Optical and Near-Infrared Photometry of Nova V2362 binary coalescences observable by ground-based gravitational- Cyg: Rebrightening Event and Dust Formation, PASJ, 62, wave detectors, Class. -
Precollimator for X-Ray Telescope (Stray-Light Baffle) Mindrum Precision, Inc Kurt Ponsor Mirror Tech/SBIR Workshop Wednesday, Nov 2017
Mindrum.com Precollimator for X-Ray Telescope (stray-light baffle) Mindrum Precision, Inc Kurt Ponsor Mirror Tech/SBIR Workshop Wednesday, Nov 2017 1 Overview Mindrum.com Precollimator •Past •Present •Future 2 Past Mindrum.com • Space X-Ray Telescopes (XRT) • Basic Structure • Effectiveness • Past Construction 3 Space X-Ray Telescopes Mindrum.com • XMM-Newton 1999 • Chandra 1999 • HETE-2 2000-07 • INTEGRAL 2002 4 ESA/NASA Space X-Ray Telescopes Mindrum.com • Swift 2004 • Suzaku 2005-2015 • AGILE 2007 • NuSTAR 2012 5 NASA/JPL/ASI/JAXA Space X-Ray Telescopes Mindrum.com • Astrosat 2015 • Hitomi (ASTRO-H) 2016-2016 • NICER (ISS) 2017 • HXMT/Insight 慧眼 2017 6 NASA/JPL/CNSA Space X-Ray Telescopes Mindrum.com NASA/JPL-Caltech Harrison, F.A. et al. (2013; ApJ, 770, 103) 7 doi:10.1088/0004-637X/770/2/103 Basic Structure XRT Mindrum.com Grazing Incidence 8 NASA/JPL-Caltech Basic Structure: NuSTAR Mirrors Mindrum.com 9 NASA/JPL-Caltech Basic Structure XRT Mindrum.com • XMM Newton XRT 10 ESA Basic Structure XRT Mindrum.com • XMM-Newton mirrors D. de Chambure, XMM Project (ESTEC)/ESA 11 Basic Structure XRT Mindrum.com • Thermal Precollimator on ROSAT 12 http://www.xray.mpe.mpg.de/ Basic Structure XRT Mindrum.com • AGILE Precollimator 13 http://agile.asdc.asi.it Basic Structure Mindrum.com • Spektr-RG 2018 14 MPE Basic Structure: Stray X-Rays Mindrum.com 15 NASA/JPL-Caltech Basic Structure: Grazing Mindrum.com 16 NASA X-Ray Effectiveness: Straylight Mindrum.com • Correct Reflection • Secondary Only • Backside Reflection • Primary Only 17 X-Ray Effectiveness Mindrum.com • The Crab Nebula by: ROSAT (1990) Chandra 18 S. -
The Making of the Chandra X-Ray Observatory: the Project Scientist’S Perspective
SPECIAL FEATURE: PERSPECTIVE The making of the Chandra X-Ray Observatory: The project scientist’s perspective Martin C. Weisskopf1 National Aeronautics and Space Administration/Marshall Space Flight Center, Huntsville, AL 35805 Edited by Harvey D. Tananbaum, Smithsonian Astrophysical Observatory, Cambridge, MA, and approved January 22, 2010 (received for review December 16, 2009) The history of the development of the Chandra X-Ray Observatory is reviewed from a personal perspective. This review is necessarily biased and limited by space because it attempts to cover a time span approaching five decades. historical perspective | x-ray astronomy t is sobering for me to realize that there arescientistswhoareworkingwithdata Ifrom this truly great observatory who were not even born when the founda- tion for what is now the Chandra X-Ray Observatory was laid. Thus, it may surprise many to know that the beginning was suc- cinctly and accurately outlined in a research proposal that Riccardo Giacconi and col- leagues wrote in 1963, a mere 9 months after he and his team’s discovery of the first ex- trasolar x-ray source Scorpius X-1. As im- portant, the data from this rocket flight also indicated the presence of the “diffuse x-ray background.” Fig. 1 illustrates the showpiece of this insightful proposal. It shows a ≈1-m diameter, 10-m focal length, grazing-incidence x-ray telescope. The telescope was of sufficient area and angular resolution to determine the nature of the unresolved x-ray background. We all owe Riccardo an enormous debt of gratitude for his insight, leadership, and, in my case (and I suspect for many others), inspiration. -
AKARI: Astronomical IR Satellite MLHES Mission Program
Probing Ancient Mass Loss with AKARI’s Extended Dust Emission Objects Rachael Tomasino1, Dr. Toshiya Ueta1,2, Dr. Yamamura Issei2, Dr. Hideyuki Izumiura3 1University of Denver, USA; 2Institute of Space and Astronomical Science, Japan Aerospace Exploration Agency (ISAS/JAXA), Japan, 3Okayama Astrophysical Observatory, Japan AKARI: Astronomical IR Satellite FIS-AKARI Slow-scan Tools! Extended Emission Calibration! AKARI (formerly ASTRO-F), is the second Japanese satellite FAST is a program that allows for interactive Original calibration of the FIS detector was done using diffuse galactic cirrus emission dedicated to infrared (IR) astronomy, from the Institute of assessment of the data quality and on-the-fly with low photon counts. On the other hand, bright point sources can cause the slow Space and Astronautical Science (ISAS) of the Japanese corrections to the time-series data on a pixel-by- transient response effect because of high photon counts. Marginally extended sources Aerospace Exploration Agency (JAXA). Its main objective is pixel basis in order to manually correct glitches consist of regions of high and low photon counts, and therefore, only parts of them suffer to perform an all-sky survey with better spatial resolution and that would have been missed in the pipeline from the slow transient response effect. Hence, we needed to devise a specific method to wider wavelength coverage than IRAS (first US, UK, Dutch process. These corrections include: (1) eliminate address the detector response as a whole. This method uses a contour aperture to include infrared satellite launched in 1983), mapping the entire sky in bad on-sky calibration sequences, (2) flag out both the faint and bright emission by setting a threshold of background + 3#.! six infrared bands. -
The Most Dangerous Ieos in STEREO
EPSC Abstracts Vol. 6, EPSC-DPS2011-682, 2011 EPSC-DPS Joint Meeting 2011 c Author(s) 2011 The most dangerous IEOs in STEREO C. Fuentes (1), D. Trilling (1) and M. Knight (2) (1) Northern Arizona University, Arizona, USA, (2) Lowell Observatory, Arizona, USA ([email protected]) Abstract (STEREO-B) which view the Sun-Earth line using a suite of telescopes. Each spacecraft moves away 1 from the Earth at a rate of 22.5◦ year− (Figure 1). IEOs (inner Earth objects or interior Earth objects) are ∼ potentially the most dangerous near Earth small body Our search for IEOs utilizes the Heliospheric Imager population. Their study is complicated by the fact the 1 instruments on each spacecraft (HI1A and HI1B). population spends all of its time inside the orbit of The HI1s are centered 13.98◦ from the Sun along the the Earth, giving ground-based telescopes a small win- Earth-Sun line with a square field of view 20 ◦ wide, 1 dow to observe them. We introduce STEREO (Solar a resolution of 70 arcsec pixel− , and a bandpass of TErrestrial RElations Observatory) and its 5 years of 630—730 nm [3]. Images are taken every 40 minutes, archival data as our best chance of studying the IEO providing a nearly continuous view of the inner solar population and discovering possible impactor threats system since early 2007. The nominal visual limit- ing magnitude of HI1 is 13, although the sensitivity to Earth. ∼ We show that in our current search for IEOs in varies somewhat with solar elongation, and asteroids STEREO data we are capable of detecting and char- fainter than 13 can be seen near the outer edges. -
ASTRO-F Observer's Manual
ASTRO-F Observer’s Manual Version 3.2 — for Open Time Observation Planning — ASTRO-F User Support Team in Institute of Space and Astronautical Science / JAXA contact: iris [email protected] European Space Astronomy Centre / ESA contact: http://astro-f.esac.esa.int/esupport/ November 29, 2005 Version 3.2 (November 29, 2005) i Revision Record 2005 Nov. 29: Version 3.2 released. Updated description of IRC FoV and slit (Section 5.1.4 and 5.1.5). Updated IRC04 detection and saturation limits. Also improve the description (Section 5.5.9). Section 5.4.2 revised to clarify the point. Units for Ho given value in p.113. 2005 Nov. 8: Version 3.1 released. Updated Visibility Map for Open Time Users (Figure 3.4.3) Information for the handling of Solar System Object observations (Section 3.4) Updated saturation limits for FTS (FIS03) mode (Table 4.4.16) IRC04 detection limits for NG+Np added (Table 5.5.25,5.5.26) Updated worked examples using the latest versions of the Tools (Section B) ESAC web pages URL and Helpdesk contact address updated Numerous errors and typos corrected 2005 Sep.20: Version 3.0 released. Contents 1 Introduction 1 1.1Purposeofthisdocument............................... 1 1.2RelevantInformation.................................. 3 2 Mission Overview 5 2.1TheASTRO-FMission................................ 5 2.2 Satellite . ........................................ 6 2.2.1 TheBusModule................................ 6 2.2.2 AttitudeDeterminationandControlSystem................. 7 2.2.3 Cryogenics................................... 8 2.3Telescope........................................ 9 2.3.1 Specification.................................. 9 2.3.2 Pre-flightperformance............................. 10 2.4Focal-PlaneInstruments................................ 11 2.4.1 SpecificationOverview............................. 11 2.4.2 Focal-PlaneLayout.............................. -
New Publication: Commission A1 Annual Report 2016
IAU Commission A1 - Astrometry Anthony Brown, Norbert Zacharias, Yoshiyuki Yamada, Jean Souchay, Alexandre Humberto Andrei, Dafydd Evans, Stephen Unwin Annual Report 2016 Gaia mission The first release of Gaia data (Gaia DR1, Gaia Collaboration et al 2016) took place on September 14 2016. This first Gaia catalogue consists of 1.1 billion sources to magnitude 20.7 for which positions are provided with typical uncertainties of 10 milliarcsec. For a subset of about 2 million sources from the Hipparcos and Tycho-2 catalogues proper motions and parallaxes are provided with a typical uncertainty of 1 milliarcsec/yr and 0.3 milliarcsec, respectively. Gaia DR1 represents a large step forward in the densification of the astrometric reference frame in the optical at faint magnitudes, and has consequently already been employed as the reference positional catalogue for several other large surveys (see below). The radio positions of around 2000 ICRF2 sources were compared to the optical positions from Gaia (Mignard et al 2016). No systematic differences larger than a few tenths of amilliarcsec were found. For most sources the true offsets are likely to be less than 1 mas. This is a very encouraging result in connection with the efforts to develop multi-wavelength realizations of the ICRS. The optical tracking of the position of Gaia on the sky was continued throughout 2016 by the GBOT (Ground Based Optical Tracking). The aim is to get an optimized position of the satellite with respect to the surrounding stars. The observations are made with the help of CCD frames taken at the focus of T1-2m class telescopes located at various places in the world. -
Spacecraft Aims to Expose Violent Hearts of Galaxies Low-Cost Mission Will Tap Into the Unexplored Upper Reaches of the X-Ray Spectrum
IN FOCUS NEWS ASTROPHYSICS Spacecraft aims to expose violent hearts of galaxies Low-cost mission will tap into the unexplored upper reaches of the X-ray spectrum. BY ERIC HAND ho would have thought that a ring- side seat at some of the Universe’s most extreme events could come NASA/JPL–CALTECH Wcheap? But by the standards of space-based astronomy, the NuSTAR telescope that NASA plans to launch as early as this month has a modest budget, US$165 million. Yet it will be sensitive to the high-energy photons produced at the turbulent thresholds of supermassive black holes. Due to be lofted into orbit by a Pegasus rocket launched in mid-air from a carrier jet, NuSTAR (Nuclear Spectroscopic Telescope Array) is taking aim at an under-explored region of the spectrum. It will detect ‘hard’ X-rays at 5–80 kiloelectronvolts, an energy range between the softer, lower-energy X-rays probed by tele scopes such as the Chandra X-ray Observatory A deployable mast will allow the NuSTAR space telescope to image high-energy X-rays. and the γ-rays measured by satellites such as the Fermi telescope. The spacecraft, which features metallic films. The thickness of each layer is the 26 minutes while NuSTAR unpacks itself an array of technical innovations, “will be the tuned to reflect photons of a specific energy. will be the most anxious phase of the mission. first mission that can resolve these high-energy Each layer reflects a small number of photons, The telescope will focus on active galactic X-rays”, says Fiona Harrison, an astronomer at but they add up to produce a strong reflection. -
Overview of Micro/Nano/Pico-Satellite Part 1 Shinichi Nakasuka University of Tokyo
CanSat & Rocket Experiment(‘99~) Hodoyoshiハイブリッド-1 ‘14 ロケット Overview of Micro/nano/pico-satellite Part 1 Shinichi Nakasuka University of Tokyo PRISM ‘09 CubeSat 03,05 Nano-JASMINE (TBD) Where is Our University ? • University of Tokyo: 28,000 students, 7800 staffs – School of Engineering: 22 departments • Intelligent Space Systems Laboratory University of Tokyo in Tokyo Metropolitan Robot Statistics about University of Tokyo • The University of Tokyo – Established in 1886 – 11 Faculties/Graduate Schools – 14000 undergraduate/14000 graduate students – 3900 academic staffs/ 3900 supporting staffs – World QS ranking: 23th • School of Engineering – 1050 undergraduate students/year – 2053 master student/1066 Ph.D candidate • Including 921 foreign students from 74 countries – 453 academic staffs/ 206 supporting staffs – Yearly budget: about $ 250M – World QS ranking: 8th • Mechanical/Aerospace: 9th ranking Graduate School of Engineering 18 Departments, 2 Institutes, 7 Centers ◆ Civil Engineering ◆ Materials Engineering ◆ Architecture ◆ Applied Chemistry ◆ Urban Engineering *3 ◆ Chemical System Engineering ◆ Mechanical Engineering ◆ Chemistry and Biotechnology ◆ Aeronautics and Astronautics ◆ Advanced Interdisciplinary Studies *1 ◆ Precision Engineering ◆ Nuclear Engineering and Management ◆ Electrical Engineering and Information Systems ◆ Bioengineering ◆ Applied Physics ◆ Technology Management for Innovation ◆ Systems Innovation ◆ Nuclear Professional School *2 Institute of Engineering Innovation *1 Doctoral course only Institute of Innovation -
The AKARI FU-HYU Galaxy Evolution Program: First Results from The
A&A 514, A9 (2010) Astronomy DOI: 10.1051/0004-6361/200913383 & c ESO 2010 Astrophysics Science with AKARI Special feature The AKARI FU-HYU galaxy evolution program: first results from the GOODS-N field C. P. Pearson1,2,3, S. Serjeant3, M. Negrello3,T.Takagi4, W.-S. Jeong5, H. Matsuhara4,T.Wada4,S.Oyabu4, H. M. Lee6,andM.S.Im6 1 Space Science and Technology Department, CCLRC Rutherford Appleton Laboratory, Chilton, Didcot, Oxfordshire OX11 0QX, UK e-mail: [email protected] 2 Department of Physics, University of Lethbridge, 4401 University Drive, Lethbridge, Alberta T1J 1B1, Canada 3 Astrophysics Group, Department of Physics, The Open University, Milton Keynes MK7 6AA, UK 4 Institute of Space and Astronautical Science, Yoshinodai 3-1-1, Sagamihara, Kanagawa 229 8510, Japan 5 KASI, 61-1, Whaam-dong, Yuseong-gu, Deajeon 305-348, South Korea 6 Department of Physics and Astronomy, Seoul National University, Shillim-Dong, Kwanak-Gu, Seoul 151-742, Korea Received 30 September 2009 / Accepted 9 February 2010 ABSTRACT The AKARI FU-HYU mission program carried out mid-infrared imaging of several well studied Spitzer fields preferentially selecting fields already rich in multi-wavelength data from radio to X-ray wavelengths filling in the wavelength desert between the Spitzer IRAC and MIPS bands. We present the initial results for the FU-HYU survey in the GOODS-N field. We utilize the supreme multiwavelength coverage in the GOODS-N field to produce a multiwavelength catalogue from infrared to ultraviolet wavelengths, containing more than 4393 sources, including photometric redshifts. Using the FU-HYU catalogue we present colour-colour diagrams that map the passage of PAH features through our observation bands. -
Nasa Space Telescope Imaging Technology
NASA SPACE TELESCOPE IMAGING TECHNOLOGY MISSION FACTS ENABLING TECHNOLOGY > Wide Field and Planetary Camera HUBBLE SPACE TELESCOPE Better understand > Completed more than 1.3 MILLION OBSERVATIONS the age of the universe > Traveled 4+ BILLION MILES on low Earth orbit 4+ > Goddard High Resolution Spectrograph “THE FORERUNNER” BILLION > Discovered that the universe is approximately MILES > High Speed Photometer L3HARRIS ROLE: 13.7 BILLION YEARS OLD > Faint Object Camera & Spectrograph Provided fine guidance and focus control systems and 2.4m backup mirror CHANDRA X-RAY Explain the structure, > Uses X-RAY VISION to detect extremely hot, > High Resolution Camera activity and evolution high-energy regions of space OBSERVATORY > Advanced CCD Imaging Spectrometer of the universe > Flies 200 TIMES HIGHER than Hubble – X-RAY “THE DETECTIVE” VISION > High Energy Transmission more than 1/3 of the way to the moon Grating Spectrometer L3HARRIS ROLE: > Provides data on quasars as they were > Low Energy Transmission Designed, integrated and 10 BILLION YEARS AGO Grating Spectrometer tested imaging system JAMES WEBB Observe distant events > Will be the MOST POWERFUL space telescope ever > Near-Infrared Camera and objects, such as the SPACE TELESCOPE > Will balance between gravity of Earth and sun > Near-Infrared Spectrograph formation of the first 940,000 MILES IN SPACE MOST “THE HISTORIAN” galaxies, stars and POWERFUL > Mid-Infrared Instrument planets in the universe > 6.5-METER MIRROR made of 18 gold-coated > Fine Guidance Sensor/Near InfraRed L3HARRIS -
Special Spitzer Telescope Edition No
INFRARED SCIENCE INTEREST GROUP Special Spitzer Telescope Edition No. 4 | August 2020 Contents From the IR SIG Leadership Council In the time since our last newsletter in January, the world has changed. 1 From the SIG Leadership Travel restrictions and quarantine have necessitated online-conferences, web-based meetings, and working from home. Upturned semesters, constantly shifting deadlines and schedules, and the evolving challenge of Science Highlights keeping our families and communities safe have all taken their toll. We hope this newsletter offers a moment of respite and a reminder that our community 2 Mysteries of Exoplanet continues its work even in the face of great uncertainty and upheaval. Atmospheres In January we said goodbye to the Spitzer Space Telescope, which 4 Relevance of Spitzer in the completed its mission after sixteen years in space. In celebration of Spitzer, Era of Roman, Euclid, and in recognition of the work of so many members of our community, this Rubin & SPHEREx newsletter edition specifically highlights cutting edge science based on and inspired by Spitzer. In the words of Dr. Paul Hertz, Director of Astrophysics 6 Spitzer: The Star-Formation at NASA: Legacy Lives On "Spitzer taught us how important infrared light is to our 8 AKARI Spitzer Survey understanding of our universe, both in our own cosmic 10 Science Impact of SOFIA- neighborhood and as far away as the most distant galaxies. HIRMES Termination The advances we make across many areas in astrophysics in the future will be because of Spitzer's extraordinary legacy." Technical Highlights Though Spitzer is gone, our community remains optimistic and looks forward to the advances that the next generation of IR telescopes will bring.