News from the 35Th Space Symposium Brought to You with Support from Ball Aerospace
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Nasa Advisory Council Human Exploration and Operations
NASA ADVISORY COUNCIL HUMAN EXPLORATION AND OPERATIONS COMMITTEE NASA Headquarters Washington, DC January 13-14, 2021 MEETING REPORT _____________________________________________________________ N. Wayne Hale, Chair ____________________________________________________________ Bette Siegel, Executive Secretary Table of Contents Call to Order 3 Commercial Crew Program 5 Public Comments 8 Artemis Program 9 SMD Artemis CLPS Activities 11 Moon to Mars Update 12 Solar System and Beyond 12 HERMES Instrument Update Artemis III SDT Update Advancing Biological and Physical Sciences Through Lunar Exploration 14 SMD Mars Science Update 14 Artemis Accords 15 Planetary Protection Activities 15 Discussion/Findings and Recommendations 16 Appendix A- Attendees Appendix B- HEOC Membership Appendix C- Presentations Appendix D- Agenda Appendix E- Chat Transcript Prepared by Joan M. Zimmermann Zantech IT, Inc. 2 January 13, 2021 Call to order and welcome Dr. Bette Siegel, Executive Secretary of the Human Exploration and Operations Committee (HEOC), called the meeting to order, and provided details of the Federal Advisory Committee Act (FACA), which provides governance rules for the meeting. She introduced Mr. N. Wayne Hale, Chair of the HEOC. Mr. Hale noted to the public that this particular HEO meeting counts as the last meeting of 2020, and the next scheduled meeting in March/April will be the first meeting of 2021. Mr. Hale welcomed three new members, Ms. Lynn Cline, Mr. David Thompson, and Mr. Kwatsi Alibaruho. The present meeting is focused on an update on the HEO areas, and a joint meeting with the NASA Advisory Council (NAC) Science Committee. Mr. Hale asked if NAC Chair, General Lester Lyles, who was attending the meeting virtually, had any remarks to proffer. -
HUFPI Space Policy
Harvard Undergraduate Foreign Policy Initiative (HUFPI) US National Security Space: Maintaining US Leadership in Space with Strategic Collaboration Strategies and Implications Rohan Jakhete, Chair Qijia Zhou Syed Umar Ahmed Shane Rockett Simeon Sayer Ryan Santos George Whitford Report Spring 2021 About the Authors Rohan Jakhete ([email protected]) is an undergraduate at Harvard College pursuing a BS in Mechanical Engineering with a minor in political science. He is the policy chair for this project, the deputy director for the policy of businesses for HUFPI, the co-president of the Harvard Undergraduate Clean Energy Group, and is part of the club swim team. He has experience in national security strategy, private equity, clean energy, electro-mechanical design, and ventures. Qijia Zhou ([email protected]) is an undergraduate at Harvard College with an intended concentration in Physics and Astrophysics with a secondary in Government. She intends to pursue a career at the intersection of science and policy. She is the Vice President of the Harvard Undergraduate Ethics Bowl and a staff writer at the Harvard International Review. She is also a member of the Harvard Swimming Club and the Harvard Band. She has experience in mechanics, public speaking, science communication, and continues to pursue her interest in astrophysics research. Her focus in this paper was on US x India. Ryan Santos ([email protected]) is an undergraduate at Harvard College concentrating in History with a secondary in Economics. He has done research at Stanford University’s Empirical Studies of Conflict Program and has worked for the Fragile and Conflict-Affected Situations unit at the Asian Development Bank. -
Earthcare and Himawari-8 Aerosol Products
EarthCARE and Himawari-8 Aerosol Products Maki Kikuchi, H. Murakami, T. Nagao, M. Yoshida, T. Nio, Riko Oki (JAXA/EORC), M. Eisinger and T. Wehr (ESA/ESTEC), EarthCARE project members and Himawari-8 group members 14th July 2016 Contact: [email protected] EarthCARE Earth Observation Research Center 2 CPR Observation Instruments on EarthCARE MSI CPRCPR Cloud Profiling Radar BBR ATLIDATLID Atmospheric Lidar ATLID Copyright ESA MSIMSI Multi-Spectral Imager European Space Agency(ESA)/National Institute of Institutions Information and Communications Technology(NICT)/ BBRBBR Broadband Radiometer Japan Aerospace Exploration Agency(JAXA) Launch 2018 using Soyuz or Zenit (by ESA) Mission Duration 3-years Mass Approx. 2200kg Sun-synchronous sub-recurrent orbit Orbit Altitude: approx. 400km Mean Local Solar Time (Descending): 14:00 Synergetic Observation by 4 sensors Repeat Cycle 25 days Orbit Period 5552.7 seconds Semi Major Axis 6771.28 km Eccentricity 0.001283 3 Inclination 97.050° 285m Synergetic Observation by 4 Sensors on Global Scale •3‐dimensional structureGlobal simultaneous of aerosol observations and cloud of including vertical motion ‐ Cloud & aerosol profiles, 3D structure, with vertical motions •Radiation flux at top of‐ Radiation atmosphere flux at Top of Atmosphere (TOA) •Aerosol –cloud –radiation‐ Aerosol interactions‐Cloud‐Radiation interaction 4 ATLID ATLID Global Observation of Cloud and Atmospheric Lidar Aerosol Vertical Profile and Optical Properties 355nm High Spectral Resolution Lidar ATLID is a High Spectral Resolution Lidar (HSRL) developed by Instrument (HSRL) European Space Agency. - Rayleigh Channel Channel - Mie Channel(Cross-polarization) Different from the traditional Mie lidar, it has the capability to - Mie Channel (Co-polarization) separate Rayleigh scattering signal (originate from Sampling Horizontal : 285m / Vertical : 103m atmospheric molecules) and Mie scattering signal (originate Observation 3°Off Nadir(TBD) from aerosol and cloud) by high spectral resolution filter. -
Evaluation of Stereoscopic Geoeye-1 Satellite Imagery to Assess Landscape and Stand Level Characteristics
EVALUATION OF STEREOSCOPIC GEOEYE-1 SATELLITE IMAGERY TO ASSESS LANDSCAPE AND STAND LEVEL CHARACTERISTICS K. Kliparchuk, M.Sc, GISP a, Dr. D. Collins, P.Geo. b a Hatfield Consultants Partnership, 200-850 Harbourside Drive, North Vancouver, BC, V7P0A3 Canada – [email protected] b BC Ministry of Forests and Range, Coast Forest Region, 2100 Labieux Road, Nanaimo, BC, V9T6E9, Canada - [email protected] Commission I, WG I/3 KEY WORDS: Remote sensing, GeoEye-1, effectiveness evaluation, forest resource management, stereo, photogrammetry ABSTRACT: An ongoing remote sensing project has been underway within the Coast Forest Region since 2000. The initial parts of the project investigated the application of commercially available high-resolution satellite imagery to resource feature mapping and compliance and enforcement surveillance. In the current project, stereo imagery from the new GeoEye-1 satellite was acquired. This system provides 0.5m panchromatic and 1.65m colour imagery, which is approximately a four time increase in spatial resolution compared to IKONOS imagery. Stereo imagery at this resolution enables the delineation of single trees, coarse woody debris measurement and the generation of Digital Elevation Models and estimation of volumes of material displaced by landslides. Change detection and identification of high priority zones for Compliance & Enforcement investigation is greatly enhanced. Results of this research are presented and discussed. 1. INTRODUCTION 1.1 Introduction The initial focus of the project was to investigate the application of commercially available high-resolution satellite imagery to resource feature mapping and compliance and enforcement surveillance. A previous published study by the authors in 2008 extended the use of high resolution IKONOS imagery through Figure 1. -
The Artemis Accords: Employing Space Diplomacy to De-Escalate a National Security Threat and Promote Space Commercialization
American University National Security Law Brief Volume 11 Issue 2 Article 5 2021 The Artemis Accords: Employing Space Diplomacy to De-Escalate a National Security Threat and Promote Space Commercialization Elya A. Taichman Follow this and additional works at: https://digitalcommons.wcl.american.edu/nslb Part of the National Security Law Commons Recommended Citation Elya A. Taichman "The Artemis Accords: Employing Space Diplomacy to De-Escalate a National Security Threat and Promote Space Commercialization," American University National Security Law Brief, Vol. 11, No. 2 (2021). Available at: https://digitalcommons.wcl.american.edu/nslb/vol11/iss2/5 This Response or Comment is brought to you for free and open access by the Washington College of Law Journals & Law Reviews at Digital Commons @ American University Washington College of Law. It has been accepted for inclusion in American University National Security Law Brief by an authorized editor of Digital Commons @ American University Washington College of Law. For more information, please contact [email protected]. The Artemis Accords: Employing Space Diplomacy to De-Escalate a National Security Threat and Promote Space Commercialization Elya A. Taichman* “Those who came before us made certain that this country rode the first waves of the industrial revolutions, the first waves of modern invention, and the first wave of nuclear power, and this generation does not intend to founder in the backwash of the coming age of space. We mean to be a part of it—we mean to lead it. For the eyes of the world now look into space, to the Moon and to the planets beyond, and we have vowed that we shall not see it governed by a hostile flag of conquest, but by a banner of freedom and peace. -
Space Diplomacy in Asian Orbit
Space Diplomacy in Asian Orbit EDA INSIGHT RESEARCH & ANALYSIS OCTOBER 2018 Space Diplomacy in Asian Orbit Dr N. Janardhan Disclaimer: The views expressed in this publication are solely those of the author and do not necessarily reflect the views of the Emirates Diplomatic Academy, an autonomous federal entity, or the UAE Government. Copyright: Emirates Diplomatic Academy 2018. Cover Photo: Mohammed Bin Rashid Space Centre - http://www.khalifasat-thejourney.com Space Diplomacy in Asian Orbit Dr N. Janardhan Senior Research Fellow, Emirates Diplomatic Academy Dr N. Janardhan is Senior Research Fellow, Gulf-Asia Programme, Emirates Diplomatic Academy. His academic publications include – A New Gulf Security Architecture: Prospects and Challenges for an Asian Role (ed., 2014); India and the Gulf: What Next? (ed., 2013); and Boom amid Gloom: Spirit of Possibility in 21st Century Gulf (2011). Dr Janardhan is also Managing Assistant Editor, Journal of Arabian Studies. Executive Summary ◊ In international relations, expanding institutionalised ◊ As balance of power equations get reconfigured, channels of consultation is seen as enhancing there is evidence that international political- cooperation. Pursuing this, it is estimated that more security competition in space may supersede other than 80 countries (and many more private enterprises) considerations in the future. For now, however, there are are presently using space, either on their own or ample notable space-related developments in Asia that in partnership with others, to further individual or fall within the realm of soft power, which this Insight collective interests. explores. ◊ The West used the Cold War to further diplomatic ◊ It also suggests the following policy options for the influence and create ‘satellite’ states based on UAE to consider: geopolitical ideology. -
GLM Product Evaluation and Highlights of My Research at CICS
GLM Product Evaluation and Highlights of My Research at CICS Ryo Yoshida Satellite Program Division, Observation Department Japan Meteorological Agency (JMA) STAR Seminar, October 24, 2019 Overview of my research visit • “Japanese Government Short-Term Overseas Fellowship Program” sponsored by the National Personnel Authority of Japan • Period: Nov. 5, 2018 - Nov. 3, 2019 • NESDIS accepted me at CICS, based on the framework of the NESDIS-JMA high-level letter exchange on information exchange regarding GOES-R Series & Himawari-8/9 • Research topics: GLM & NOAA’s advanced efforts on satellites I deeply appreciate NESDIS’s giving me this great opportunity Japan Meteorological Agency 2 Contents 1. Overview of JMA and Himawari satellites 2. Highlights of my research at CICS 3. GLM product evaluation Japan Meteorological Agency 3 1. Overview of JMA and Himawari satellites Japan Meteorological Agency 4 What JMA is Japan’s national meteorological service, whose ultimate goals are Safety of transportation Prevention Development and mitigation and prosperity of natural of industry disasters International cooperation Japan Meteorological Agency prescribed by the Meteorological Service Act. 5 What JMA does • Weather observations • Weather forecasts and warnings • Aviation & marine weather services • Climate & global environment services • Monitoring seismic & volcanic activity & tsunamis Japan Meteorological Agency 6 JMA’s weather observation systems 16 radiosonde stations 33 wind profilers Upper air observations Geostationary satellites Observations -
Aerospace, Defense, and Government Services Mergers & Acquisitions
Aerospace, Defense, and Government Services Mergers & Acquisitions (January 1993 - April 2020) Huntington BAE Spirit Booz Allen L3Harris Precision Rolls- Airbus Boeing CACI Perspecta General Dynamics GE Honeywell Leidos SAIC Leonardo Technologies Lockheed Martin Ingalls Northrop Grumman Castparts Safran Textron Thales Raytheon Technologies Systems Aerosystems Hamilton Industries Royce Airborne tactical DHPC Technologies L3Harris airport Kopter Group PFW Aerospace to Aviolinx Raytheon Unisys Federal Airport security Hydroid radio business to Hutchinson airborne tactical security businesses Vector Launch Otis & Carrier businesses BAE Systems Dynetics businesses to Leidos Controls & Data Premiair Aviation radios business Fiber Materials Maintenance to Shareholders Linndustries Services to Valsef United Raytheon MTM Robotics Next Century Leidos Health to Distributed Energy GERAC test lab and Technologies Inventory Locator Service to Shielding Specialities Jet Aviation Vienna PK AirFinance to ettain group Night Vision business Solutions business to TRC Base2 Solutions engineering to Sopemea 2 Alestis Aerospace to CAMP Systems International Hamble aerostructure to Elbit Systems Stormscope product eAircraft to Belcan 2 GDI Simulation to MBDA Deep3 Software Apollo and Athene Collins Psibernetix ElectroMechanical Aciturri Aeronautica business to Aernnova IMX Medical line to TransDigm J&L Fiber Services to 0 Knight Point Aerospace TruTrak Flight Systems ElectroMechanical Systems to Safran 0 Pristmatic Solutions Next Generation 911 to Management -
Geoeye Corp Overview
GeoEye See our World…Better than Ever 1 GeoEye Focus on Africa Ms. Andrea Cook Senior Sales Manager Middle East, Africa & India GeoEye GeoEye: Company Overview OfferingOffering bestbest resolutionresolution –– colorcolor –– accuracyaccuracy commerciallycommercially availableavailable 3 GeoEye: IKONOS and GeoEye-1 IKONOS – Launched 24 September 1999 – World’s first commercial satellite with 1- meter resolution • 0.82 meter panchromatic, 3.2 meters multi-spectral • Over 300 million km² of world-wide archive • Extensive global network of ground stations __________________________________________________________ GeoEye-1 – Launched 6 September 2008 – Started Commercial Operations 5 February 2009 – Most advanced satellite commercially available • 0.41 meter panchromatic, 1.65 multi- spectral • Designed for <5m accuracy without ground control • Up to 700,000 km² per day collection capacity (panchromatic) • >7 year mission life 4 IKONOS: 1 meter imagery AlmostAlmost 1010 yearsyears ofof archivearchive –– stillstill collectingcollecting strongstrong 5 GeoEye-1: First Images NowNow CommerciallyCommercially AvailableAvailable –– CollectingCollecting WorldWorld WideWide 6 GeoEye Constellation Collection Capacity Faster Response Times Faster Project Completions More Opportunities Served • GeoEye Constellation Collection Capacity – GeoEye-1 • Image 350,000 km2/day in multi-spectral mode • 700,000 sq km/day panchromatic mode – IKONOS • 150,000 sq km/day • True Constellation Operations for GeoEye-1 and IKONOS – Phased orbit Key: – Access to all locations -
United States Air Force Dr. Will Roper
UNITED STATES AIR FORCE DR. WILL ROPER Dr. Will Roper is the Assistant Secretary of the Air Force for Acquisition, Technology and Logistics. As the Air Force’s Service Acquisition Executive, Dr. Roper is responsible for and oversees Air Force research, development and acquisition activities totaling an annual budget in excess of $60 billion for more than 550 acquisition programs. In this position, Dr. Roper serves as the principal adviser to the Secretary and Chief of Staff of the Air Force for research and development, test, production and modernization efforts within the Air Force. Prior to his current position, Dr. Roper was the founding Director of the Pentagon’s Strategic Capabilities Office. Established in 2012, the SCO imagines new—often unexpected and game-changing—uses of existing government and commercial systems: extending their shelf-life and restoring surprise to the military’s playbook. Since 2012, SCO has grown from an annual budget of $50 million to the current $1.5 billion request in the President’s 2018 budget with projects spanning new concepts such as hypervelocity artillery, multi-purpose missiles, autonomous fast-boats, smartphone-navigating weapons, big-data-enabled sensing, 3D-printed systems, standoff arsenal planes, fighter avatars and fighter-dispersed swarming micro-drones which formed the world’s then-largest swarm of 103 systems. During his tenure as SCO Director, Dr. Roper served on the Department’s 2018 National Defense Strategy Steering Group, Cloud Executive Steering Group and Defense Modernization Team. Previously, Dr. Roper served as the Acting Chief Architect at the Missile Defense Agency where he developed 11 new systems, including the current European Defense architecture, advanced drones, and classified programs. -
Spectral Response for Digitalglobe Earth Imaging Instruments
Spectral Response for DigitalGlobe Earth Imaging Instruments IKONOS The IKONOS satellite carries a high resolution panchromatic band covering most of the silicon response and four lower resolution spectral bands. The four multispectral bands are roughly based on four bands used on the Landsat satellite series, including blue, green, red and near-infrared. The spectral responses of the bands are shown in Figure 1, individually normalized to the maximum value. Table 1 gives the 5% response upper and lower edges and center wavelengths for each. Figure1. Spectral Response of the IKONOS panchromatic and multispectral imagery. Table 1. IKONOS Spectral Band Edges and Center Wavelengths Band Name Center Lower Band Upper Band Edge Wavelength Edge (nm) (nm) (nm) Panchromatic 729 409 1048 Blue 480 421 539 Green 552 480 624 Red 666 602 729 NIR 803 713 893 2 QuickBird The QuickBird satellite also carries a high resolution panchromatic band covering most of the silicon response and four lower resolution spectral bands. The spectral responses of the bands are shown in Figure 2, individually normalized to the maximum value. Table 2 gives the 5% response upper and lower edges and center wavelengths for each. QuickBird Relative Spectral Radiance Response 1 0.9 0.8 0.7 Panchromatic Blue 0.6 Green Red NIR 0.5 0.4 Relative Response Relative 0.3 0.2 0.1 0 350 450 550 650 750 850 950 1050 Wavelength (nm) Figure 2. Spectral Response of the QuickBird panchromatic and multispectral imagery. Table 2. QuickBird Spectral Band Edges and Center Wavelengths Band Name Center Lower Band Upper Band Edge Wavelength Edge (nm) (nm) (nm) Panchromatic 729 405 1053 Blue 488 430 545 Green 543 466 620 Red 650 590 710 NIR 817 715 918 3 WorldView-1 The WorldView-1 satellite carries a panchromatic only instrument to produce basic black and white imagery for users who do not require color information. -
INTERNATIONAL Call for Papers & Registration of Interest
ORGANIZED BY: HOSTED BY: st 71 INTERNATIONAL ASTRONAUTICAL CONGRESS 12–16 October 2020 | Dubai, United Arab Emirates Call for Papers & Registration of Interest Second Announcement SUPPORTED BY: Inspire, Innovate & Discover for the Benefit of Humankind IAC2020.ORG Contents 1. Message from the International Astronautical Federation (IAF) 2 2. Message from the Local Organizing Committee 2 3. Message from the IPC Co-Chairs 3 4. Messages from the Partner Organizations 4 5. International Astronautical Federation (IAF) 5 6. International Academy of Astronautics (IAA) 10 7. International Institute of Space Law (IISL) 11 8. Message from the IAF Vice President for Technical Activities 12 9. IAC 2020 Technical Sessions Deadlines Calendar 49 10. Preliminary IAC 2020 at a Glance 50 11. Instructions to Authors 51 Connecting @ll Space People 12. Space in the United Arab Emirates 52 www.iafastro.org IAF Alliance Programme Partners 2019 1 71st IAC International Astronautical Congress 12–16 October 2020, Dubai 1. Message from the International Astronautical Federation (IAF) 3. Message from the International Programme Committee (IPC) Greetings! Co-Chairs It is our great pleasure to invite you to the 71st International Astronautical Congress (IAC) to take place in Dubai, United Arab Emirates On behalf of the International Programme Committee, it is a great pleasure to invite you to submit an abstract for the 71st International from 12 – 16 October 2020. Astronautical Congress IAC 2020 that will be held in Dubai, United Arab Emirates. The IAC is an initiative to bring scientists, practitioners, engineers and leaders of space industry and agencies together in a single platform to discuss recent research breakthroughs, technical For the very first time, the IAC will open its doors to the global space community in the United Arab Emirates, the first Arab country to advances, existing opportunities and emerging space technologies.