ESA Space Weather Study, Final Presentation: Implementation Plan

Similar documents
Space Situational Awareness Space Weather Element Briefing to Spanish Industry

Introduction to ILWS. George Withbroe. Office of Space Science Sun Earth Connection Division NASA Headquarters

Storms in Earth s ionosphere

Benefits analysis. Benefit categorisation. Lesley Murphy QinetiQ. ESA Space Weather Programme study Final presentation, 6th-7th December 2001

ESS 7. Lectures 18, 19 and 20 November 14, 17 and 19. Technology and Space Weather

What is Space Weather? THE ACTIVE SUN

Living With a Star Space Environment Testbeds

How GNSS and Beacon receivers can be used to monitor auroral ionosphere and space weather?

NASA Heliophysics Update Science Space Week 2017 Committee on Solar and Space Physics

Monitoring of the Geo-Plasma Environment

The Role of Ground-Based Observations in M-I I Coupling Research. John Foster MIT Haystack Observatory

Ionospheric Effects on Aviation

IONOSPHERE EFFECTS ON GPS/RF COMMUNICATION, ELECTRIC, METAL NETWORKS AND SPACECRAFTS OSMAN AKGÜN

The Ionosphere and Thermosphere: a Geospace Perspective

Space Weather What Is The Real Risk And How Do We Communicate That?

RESONANCE Project for Studies of Wave-Particle Interactions in the Inner Magnetosphere. Anatoly Petrukovich and Resonance team

Ionospheric and cosmic ray monitoring: Recent developments at the RMI

The NSF Cubesat Program

Community Perspective: GeoSpace Observations and Analysis

Introduction To The Ionosphere

Using the Radio Spectrum to Understand Space Weather

Study of small scale plasma irregularities. Đorđe Stevanović

Date(2002) proton flux Dst (pfu) 11-Jan nt 23-May nt 17-Jul nt 22-Aug nt 7-Sep nt 10-Nov nt 21-Apr nt

Comparing the Low-- and Mid Latitude Ionosphere and Electrodynamics of TIE-GCM and the Coupled GIP TIE-GCM

Monitoring the polar cap/ auroral ionosphere: Industrial applications. P. T. Jayachandran Physics Department University of New Brunswick Fredericton

On the Importance of Radio Occultation data for Ionosphere Modeling

The Earth s Atmosphere

Tools for understanding on-orbit satellite

Perspectives on International Civil Space Situational Awareness

Industry Day of the Copernicus Sentinel-5 and Jason-CS Projects

ESS 7 Lectures 15 and 16 November 3 and 5, The Atmosphere and Ionosphere

The Ionosphere and its Impact on Communications and Navigation. Tim Fuller-Rowell NOAA Space Environment Center and CIRES, University of Colorado

(CSES) Introduction for China Seismo- Electromagnetic Satellite

Propagation Tool.

Condensing Solar X-ray and EUV Flare and Coronal Dimming Information Down to a Few Bytes for Lagrange-Point Space Weather Missions

Why HF and SATCOM are Complementary

A Geophysical approach to assess Space Weather impacts on Earth

Near Earth space monitoring with LOFAR PL610 station in Borówiec

Small satellite developments in ESA satellite telecommunications group

Airbus DS ESA Phase-0 L5 Spacecraft/Orbital Concept Overview. Emanuele Monchieri 6 th March 2017

Ionosphere- Thermosphere

New Chains of Space Weather Monitoring Stations in China

SPIDR on the Web: Space Physics Interactive

General Classs Chapter 7

Space weather: A research grand challenge. Professor Jøran Moen (GCI-Cusp project scientist)

Space weather Application Center Ionosphere A Near-Real-Time Service Based on NTRIP Technology

Dartmouth College SuperDARN Radars

AWESOME for educational and research use

Quickmaps and history of the effects of ionospheric scintillations on GPS/GLONASS signals. Summary. Applications. Introduction

PicoSaTs. A. G r e g o r i o D e p a r t m e n t o f P h y s i c s. Spin-off University of Trieste - Incubation Area Science Park

Ionospheric Propagation

Environmental Space Situation Awareness and Joint Space Effects

EFFECTS OF SCINTILLATIONS IN GNSS OPERATION

Heart of the black auroras revealed by Cluster

GAVIN DOCHERTY & CRAIG ROBERTS School of Surveying & Spatial Information Systems. University of NSW

Hermanus Magnetic Observatory (HMO)

Nanosatellite research at Aalto University

Personal Space Weather Station

The USU-GAIM Data Assimilation Models for Ionospheric Specifications and Forecasts

GINESTRA MIMOSA - MEDSTEC COMPETENCE SURVEYS WITHIN THE ESA ALCANTARA INITIATIVES


PoS(2nd MCCT -SKADS)003

A novel spacecraft standard for a modular small satellite bus in an ORS environment

Assimilation Ionosphere Model

Presentation to the UN COPUOS STSC LTSSA Workshop. ISO Space Standards. 14 February 2013

Solar Radar Experiments

Manual on Space Weather Information in Support of International Air Navigation

University Nanosat Program

Space&Environment&Technologies&ARMAS7Lite&FM2& &Proprietary& & ARMAS LITE FM2 SPECIFICATION SHEET REVISION&HISTORY&

EISCAT_3D The next generation European Incoherent Scatter radar system Introduction and Brief Background

Terry G. Glagowski W1TR / AFA1DI

ROTI Maps: a new IGS s ionospheric product characterizing the ionospheric irregularities occurrence

The Newly Formed LoCSST

Ionospheric Impacts on UHF Space Surveillance. James C. Jones Darvy Ceron-Gomez Dr. Gregory P. Richards Northrop Grumman

Coupling between the ionosphere and the magnetosphere

Roadmap for European co-ordination in space weather

The Demonstrations & Science Experiment (DSX)

Terrestrial agents in the realm of space storms: Missions study oxygen ions

GLOBAL SATELLITE SYSTEM FOR MONITORING

SST radar in Cheia

Examination of Three Empirical Atmospheric Models

Radio Communication. After Abt Associates, 2017 for NOAA. Ionosphere. Solar Radiation. HF Radio Communications. e - e - e - e - e - e - e -

CHAPTER 1 INTRODUCTION

IAA-XX-14-0S-0P. Using the NANOSATC-BR1 to evaluate the effects of space radiation incidence on a radiation hardened ASIC

LEO GPS Measurements to Study the Topside Ionospheric Irregularities

Radiation and Particles from the. Sun

The Colorado Student Space Weather Experiment (CSSWE) On-Orbit Performance

Presented by: Mark Landress WB5ANN

Applied Space Environments Conference (ASEC) 2017 Summary. Dr. Linda Neergaard Parker, USRA Dr. Joseph I. Minow, NASA

Analysis of Ionospheric Anomalies due to Space Weather Conditions by using GPS-TEC Variations

Scientific Studies of the High-Latitude Ionosphere with the Ionosphere Dynamics and ElectroDynamics - Data Assimilation (IDED-DA) Model

1 Introduction. 2 Scientific Objectives and Mission Contents. SHEN Xuhui

NanoSwarm: CubeSats Enabling a Discovery Class Mission Jordi Puig-Suari Tyvak Nano-Satellite Systems

SPACE SYSTEM AND ENGINEERING IN AFRICA: NIGERIA AS A CASE STUDY

Space-born system for on-line precursors monitoring of eathquakes,, natural and man-made made catastrophes

Study of the ionosphere of Mars: application and limitations of the Chapman-layer model

Resonance project and active experiments

2 nd ICAO/UNOOSA Symposium, March 2016, Abu Dhabi, UAE. Space Weather. Sharafat Gadimova Office for Outer Space Affairs

USE OF EGNOS AND GALILEO FOR SCIENTIFIC APPLICATIONS & INNOVATIVE APPLICATIONS IN NEW DOMAINS

The European Server for Ionospheric specification and forecasting: Final results from DIAS project

Transcription:

ESA Space Weather Study, Final Presentation: Implementation Plan Mike Hapgood CLRC Rutherford Appleton Laboratory 6 December 2001, ESTEC specify elements Data ORGANISATIONAL PLAN NETWORK FOR GROUND-BASED SPACE WEATHER MEASUREMENTS as presented this morning RESEARCH GROUP Standards bodies (e.g. CCSDS, W3C,etc.) DEVELOPMENT GROUP ESA funding ESA OUTREACH CENTRE PUBLIC Service End Users Commentators Decision Makers 1

OUTREACH CENTRE ESA funding, but contract out via open competition Contractor to seek additional funding to expand activities Build database of information about space weather, provide internet access throughout the member states Explain the science underpinning space weather in ways that can be understood by a broader public audience Proactively raise awareness about existing European space weather activities in space and on the ground. Support other European initiatives that aim to improve awareness of space weather. needed to raise awareness of SW issues NETWORK FOR SW MEASUREMENTS Network open to all interested parties Start-up funding needed but then should be self-supporting Develop and maintain inventory of ground-based assets Exchange of knowledge & ideas Develop conceptual framework to show how individual SW measurements fit with overall European needs. Provide a basis on which to build strong individual cases for support. Study the roles of public, academic and commercial bodies in the operation of SW measurements. needed to secure/develop existing assets 2

RESEARCH GROUP Group of independent scientists of international standing Periodic review of scientific research needed to improve our knowledge of space weather monitoring progress, identifying changes in emphasis Reviewing progress of research on modelling techniques, Linking these reviews to the general progress of STP research Providing a public report on its conclusions needed to address open science areas DEVELOPMENT GROUP Internal ESA activity during development phase. Long-term aim to spin-off when an operational activity Provision of advice to potential service providers - may include advice on technical and marketing issues. Establishment of a Prototype Space Weather Programme: space weather service, space segment. Development and promotion of standards for provision of space weather data, e.g. working with CCSDS needed to develop core programme 3

From SW user requirements POSSIBLE SERVICES FOR A PROTOTYPE SERVICE UR Products Application areas 3 Post-event information on radiation levels Calculation of crew (and passenger) at altitudes and on routes used by commercial airlines radiation exposure and investigation of equipment anomalies 6 Spatially resolved post-event information Electric power transmission organisations on geomagnetically induced currents of all Human (also railways impact and telephone companies) sizes. 11 Now-casts of ionospheric reflection HF frequency selection for RF systems properties (civil and military) 12 Now-casts of ionospheric total electron Corrections to GNSS location systems and content 16 Now-casts of atmospheric drag affecting LEO spacecraft radar systems (civil and military) Satellite operators (civil and military) Gallileo? Criteria: (a) useful services, (b) data available in Europe. PROTOTYPE SPACE SEGMENT Space segment study shows that requirements can be addressed by a mix of hitch-hikers and dedicated missions How to select that mix? Proposed methodology: rank hitch-hikers and dedicated missions calculate cost of implementing all hitch-hitch options up to rank M and all dedicated options up to rank N. produce a colour plot showing the cost of implementing both options up to any combination of M and N Method is general; but show example using our ranking 4

SUMMARY OF DEDICATED OPTIONS Rank Description Rationale 1 L1 solar wind & HMF + Upstream solar wind solar protons monitoring 2 L1 solar observations Solar monitoring 3 Energetic particles + cold Radiation belt & plasma plasmasphere monitoring 4 Coronagraph to L4/l5 Viewing Earth-directed CMEs 5 Coronagraph & Radio Viewing Earth-directed Wave Detector to L4/5 CMEs 6 Auroral imager, Debris Auroral monitoring monitor 7 Auroral imager Auroral monitoring 8 Magnetometer Magnetospheric dynamics SUMMARY OF HITCH-HIKER OPTIONS Rank Description Rationale 1 Dose monitor Human safety 2 High energy ion detector SEUs 3 High energy electron spectrometer Killer electrons 4 Debris monitor Debris impact 5 Medium energy electron spectrometer Killer electrons 6 High energy ion detector Rad belt 7 High energy ion detector Rad belt 8 EUV photometer Drag, HF 9 UV photometer Drag, HF 10 X-ray photometer / spectrometer Flares - SEPE 11 Auroral imager Oval size 12 Coronagraph Solar obs 13 Whole disk imager Solar obs 14 Magnetograph Solar obs 5

300 MEuro solution 1: L1 plasma & solar; dose & GCRs Cost contours 300 Meuro solution 2: L1 plasma; dose, GCRs, killer electrons & debris 0 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 Hitch-hiker rank (M) Costs in Meuros 0-100 100-200 200-300 300-400 400-500 500-600 600-700 700-800 800-900 900-1000 1000-1100 1100-1200 1200-1300 1300-1400 1400-1500 1500-1600 1600-1700 1700-1800 1800-1900 8 7 6 5 4 3 2 1 Dedicated rank (N) Low High Steps 3-5: Establish space weather development group. Year 1. 3. prototype service (moderate cost) Year 2/3 4. prototype space segment (high short-term cost) Year 2 on 5. full space segment (high long-term cost) Decade away? Data NETWORK FOR GROUND-BASED SPACE WEATHER MEASUREMENTS RESEARCH GROUP Step 2: Establish outreach centre (moderate cost) Standards bodies (e.g. CCSDS, W3C,etc.) Develop proposal & bids in Year 1. Kick-off early Year DEVELOPMENT Step 2. 1: Encourage key low GROUP funding cost initiatives: (a) secure existing measurements; (b) identify key open areas for research. BUILD GOOD PUBLIC Service ESA CASES End FOR SUPPORT! Users Start during Year 1. ESA OUTREACH CENTRE Commentators Decision Makers 6