Impact of Space Weather on the Satellite Industry

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Impact of Space Weather on the Satellite Industry Janet Green- Space Hazards Applications, LLC Yuri Shprits, Justin Likar, Rick Quinn, Paul Whelan, Nils Reker, Stu Huston, Pam Puhl-Quinn, Adam Kellerman Background image:: ESA SWE

Outline Background The Issue The Concern The Challenge Projects SatCAT Satellite Industry Meetings Forensic tool SANDI Automatic Satellite Anomaly Driver Identification Anomaly Database Summary Image Credit NASA

The Issue Space weather causes satellite anomalies and disrupts operations Surface Charging: Charged particles collect on satellite surfaces producing high voltages, damaging arcs (electrostatic discharges), and electromagnetic interference. Internal Charging: Energetic electrons accumulate in interior dielectrics (circuit boards or cable insulators) and on ungrounded metal (spot shields or connector contacts) leading to electrical breakdown in the vicinity of sensitive electronics. Single Event Upsets: Energetic ion passage through microelectronic device node causes instantaneous catastrophic device failure, latent damage, or uncommanded mode / state changes requiring ground intervention. Total Ionizing Dose: Energy loss (deposited dose) from proton or electron passage through microelectronic device active region accumulates over mission (or step-wise during high dose rate events) causing device degradation and reduced performance at circuit or system level. Image Credit NASA/SDO

The Concern Growing Industry and Increasing Reliance 3% growth & 208 B revenue (SIA 2016) New services with large constellations Satellite internet O3B/SES- 12 sats 8000 km (20 planned) Oneweb- planned 720 1200 km (2017 launch) SpaceX- proposed 4000 satellite constellation Satellite Imaging Earth observation services revenues grew 10% Digital Globe, Terra Bella, Planet Labs Uses: port traffic, mining development, agriculture, forestry New Technology Electric orbit raising Credit: Airbus Defense and Space

The Challenge Effects are caused by distinct particle populations that intensify under varying conditions and in different regions Surface Charging: Low to medium energy particles associated with substorms during moderate Kp activity in the dusk magnetospheric regions. Internal Charging: Higher energy electrons associated with some storms that peaks around L=4 Single Event Upsets: Solar Proton Events associated with solar flares and coronal mass ejections, GCRs, and trapped protons Total Ionizing Dose: Trapped protons and electrons and solar proton events

SatCAT Project The Satellite Charging Assessment Tool SatCAT project- funded through NOAA Small Business Innovative Research Program. SBIR- a way to provide innovative solutions to problems not easily addressed within the government framework. Phase I: (Completed 11/2016) Deliver a report on satellite industry needs related to space weather Green, J. C., J. Likar, and Y. Shprits (2017), Impact of space weather on the satellite industry, Space Weather, 15, 804 818, doi:10.1002/2017sw001646. Build a prototype satellite charging assessment tool Phase II: (Funded 05/2017-05/2019) Continue satellite charging assessment tool development

Altitude (km) Operators Manufacturers Industry Meetings Candid and as specific as possible inputs drive endproduct utility & effectiveness Focused conversations to avoid conference / workshop style setting 10 such m eetings ensure effective range of inputs, experiences, & needs Included survivability engineers, custom er/on -orbit response team s Greater interest from m anufacturers Mix of Stakeholders Global reach Cover LEO to GEO 35000 International 30000 25000 Operator 20000 15000 10000 Manufacturer US 5000 (Prime) 1000 500

Findings Some Findings Space Weather Impacts and Severity Managing Space Weather Issues Details and suggested solutions in Green, J. C., J. Likar, and Y. Shprits (2017), Impact of space weather on the satellite industry, Space Weather, 15, 804 818, doi:10.1002/2017sw001646.

Findings Space Weather Impacts and Severity Satellite fleet is robust to space weather impacts but not entirely impervious Most impacts are not considered severe or mission limiting and require simple power cycle to correct Some are more problematic (not yet in the public domain) Concern that recent mild conditions promote a false sense of security SEE were greatest concern/issue SEE s are sometimes a catch-all for infrequent unexplained events

Findings Management of space weather issues is a shared responsibility between manufacturers and operators Contract Phase (Operators) Operational Phase (Both) Design Phase (Manufacturers) The extent and detail of space weather management and response varies greatly depending on the role, the impact, in house expertise, and budget.

Both Findings Management of space weather issues is a shared responsibility between manufacturers and operators Operators Operational Phase Manufacturers Monitor telemetry and look for issues Confer with manufacturers when anomalies occur Investigate response but not cause Customer response team guides actions May do simple investigations but cost is not covered in contract Larger investigation (ARB) only if impact affects future satellites Some anomalies go undiagnosed due to Lack of specific quick attribution tools and training Lack of information sharing between ops and manufacturers Lack of anomaly sharing within the industry

Attribution Challenge Anomaly Investigation/Monitoring Current Method: Most referred to NOAA GOES particle environment plots Difficult to compare to full mission Fluxes still need to be translated into one of the four specific hazards Fluxes at GEO do not describe full magnetosphere

About SatCAT Allows you to respond quickly and confidently with the right action RADIATION DATA/MODEL ENGINEERING HAZARD MODULES DISPLAYS OUTPUTS Electron Flux Hazards Real time Assimilates data All orbits nowcast/forecast Satellite specific Real charging hazards Voltage, Accumulated charge Multi-day history Dates of past highest levels Comparisons to specs/other events Combination physics & engineering based approach End product developed with focus on the customer

How it works Image Credit NOAA/NASA Environment -< Engineering Hazard-< Displays The Environment At your satellite along your orbit GOES Direct particle flux measurements specify the environment locally at GEO Image Credit NASA VERB Data assimilative physics based model specifies the environment globally

How it works Environment -< Engineering Hazard-< Displays The Hazard At your satellite along your orbit for your architecture Internal Charging Total charge accumulation calculated for user chosen layers of shielding and dielectric materials

How it works Internal Charging Transfer function Defines total flux through shielding for different energies Bodeau [2010] method Charge accumulation treated as an IRC circuit Total charge or E field at any time is E(t) = E0*exp(-t/t) + Jr(1-exp(t/t)) t is dependent on material properties er ESD risk elevated when charge or E reaches critical value

How it works Environment -< Engineering Hazard-< Displays Displays The hazard at the satellite along its orbit for its architecture, thresholds and events

New Development Making the tool robust, user oriented, and validated Phase II Secure user login Generate new data for specified orbits, shielding and materials View displays Access data Add anomaly lists User test case and comparison with SCATHA

SANDI Project Automatic Satellite Anomaly Driver Identification: GOAL: To provide government and commercial satellite operators and manufacturers with an automatic optimized tailored forensic tool for determining whether anomalous behavior of specific satellites or satellite fleets is caused by the space particle radiation environment. AFRL SBIR Phase 1: Sep 2017-May 2018

SANDI Approach Automatic Satellite Anomaly Driver Identification: Use statistical relationships between measured drivers/fluxes and anomalies to generate specific satellite/fleet hazard indicators. Automated tool will take as input modeled or measured particle fluxes and an anomaly list and output the likely driver and hazard quotient [Obrien, 2009].

SANDI Approach Automatic Satellite Anomaly Driver Identification: Three steps: 1) Transform data into possible drivers (Phase 1) 2) Identify likely anomaly drivers (Phase 1) 3) Define the hazard onset (Phase 2)

Anomaly Database Community Coordinated What is it? A community coordinated satellite anomaly database is a repository or collection with the time history of issues that have occurred with satellites on orbit related to the environment. What is the purpose? To help identify the cause of satellite anomalies. What is the benefit? Satellite anomalies are sometimes infrequent making it challenging to identify the root cause. Grouping issues can reveal environmental correlations that indicate the cause and guide response and mitigation.

Background Previous/Ongoing Efforts Collecting anomaly info is not a new idea. Some examples are below. NOAA NCEI (formerly NGDC) maintained a collection through 1993 https://www.ngdc.noaa.gov/stp/satellite/anomaly/satelliteanoma ly.html Space News Digest http://www.sat-nd.com/ Private Insurance Collections (ASIC) Other resources RAND Report: Satellite Anomalies Benefits of a Centralized Anomaly Database and Methods for Securely Sharing Information Among Satellite Operators http://www.rand.org/content/dam/rand/pubs/research_reports/r R500/RR560/RAND_RR560.pdf

What is new now? Proposed large satellite constellations (100+) carry potentially greater risk and also offer better statistics for inferring environmental correlations. Tools/techniques exist that can use the anomaly information. Some momentum and interest CGMS- has requested that members report satellite anomalies UNCOPUOS- has recommended that member states support and promote satellite anomaly and space weather effects reporting US SWAP- DOC /DOD will create and support a satellite anomaly database to enable secure collection and analysis of satellite anomaly data related to space weather Acknowledged interest by some commercial companies Other successful examples of community coordinated resources Satellite Data Association has created the Satellite Data Center that provides members with conjunction assessment, RF interference and geo-location support, and authoritative contact information for a given space object based on user contributions

Community Discussion(s) What is the purpose? To collect input and ideas for how to create a community coordinated anomaly database. What is the expected outcome? A blueprint for what such a resource should look like and a path forward to implementing it. Who should give input? All those interested in the benefit of a database. https://goo.gl/forms/4duqvqodhqw1cdmv2 When/where will discussion(s) take place? European Space Weather Week (11/2017) Other community meetings as needed NOAA Space Weather Week? Online Discussions?

Summary Changes in satellite industry increase space weather concerns Forensic Tools Being Developed: For operators/designers who need to maintain mission operations and resolve unavoidable satellite anomalies, SatCAT and SANDI are tools that summarizes space weather impacts to specific asset to quickly make confident decisions. SatCAT Describes internal charging hazard for specific satellite properties Available May 2019 SANDI Automatically identifies drivers and hazards from statistical correlations between measured/modeled data and anomaly lists Satellite Anomaly Database Please provide input by filling out a paper from or online survey https://goo.gl/f orms/ 4DUQVqodHqw1c dmv2