Progress towards mitigating space weather effects on aviation

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Presentation transcript:

Progress towards mitigating space weather effects on aviation NBAA November 18, 2015 Space Weather Impacts on Aviation W. Kent Tobiska President and Chief Scientist Space Environment Technologies http://spacewx.com

Space weather affects 3 aviation areas Aviation radiation exposure GCR background dose (career health) SEP event dose (fleet operations and aircrew/passenger safety) Ground-to-aircraft radio communication disruption HF radio communication (transoceanic and polar routes) Scintillation outages for L-band, UHF, HF (satcom, radar, comm) WAAS GPS Navigation Increased location uncertainty (during landing and approaches) Where are we today? Space weather is moving beyond understanding (c. 2000) into tailored risk management (c. 2015)

Radiation exposure HF communication outages WAAS navigation error 11/10/2018

Objective: Build a real-time, operational system to measure and report aviation radiation for use by pilots, operators, and air traffic management

Managing aviation radiation What is the problem? Radiation at aviation altitudes above FL260 can lead to elevated cancer rates, career limiting illness, or even death Crew, frequent flyers, fetuses in first trimester are the most at-risk populations GCR background can limit careers from long-term statistical exposure SEP solar flare events can constrain crew schedules so they do not exceed monthly, annual dose limits from short-term statistical exposure At 37,000 ft., every 10 hours ≈ 1 chest X-ray in equivalent dose rate Every 6500 ft. higher doubles the dose rate (FL 430 ≈ 2 chest X-rays and FL 500 ≈ 4 chest X-rays) Every 6500 ft. lower halves the dose rate (FL 300 ≈ ½ chest X-ray) 100 km equatorward in magnetic latitude may also significantly reduce the dose rate Metrics

Managing aviation radiation Problem … NIOSH air crew exposure studies (Grajewski, et al., 2015)

Managing aviation radiation Problem … NIOSH air crew studies’ results (Grajewski, et al., 2015) TBD

Managing aviation radiation What can be done about it? Determine the “weather” of the radiation environment GCR background environment monitoring supports crew career longevity SEP events are similar to volcanic ash cloud events Estimate uncertainties with climatological models in ensemble runs and with data assimilation to move climatology into weather (like with hurricane tracking in tropospheric weather) Use physics-based models such as NAIRAS (NASA LaRC) Use empirical such as CARI-7 (FAA CAMI) Build a global system of quality real-time measurements on aircraft supplied to the ground via AMDAR for data assimilation use in radiation “weather” models Expand systems such as ARMAS (NASA & SET)

Managing aviation radiation What is the radiation effects management path? Non-pilot crew, frequent flyers and fetuses can only monitor their personal profiles Pilots can reroute flight paths during severe radiation events in the same way a regional volcanic ash cloud is avoided Air Traffic Control can alter entire regional routes during severe radiation events in the same way a volcanic ash cloud is avoided ICAO can set standards and guidelines for event identification ATC needs a real-time, forecast data cube to implement tools of Dropping altitude to lower the dose rate Rerouting flight tracks equatorward to reduce the dose rate

Managing aviation radiation What is currently being done? CARI-6 is used for operational guidance NAIRAS (Nowcast of Atmospheric Ionizing Radiation System) is going thru operational prototyping development ARMAS (Automated Radiation Measurements for Aerospace Safety) system is in early development (4 units in flight) ARMAS employs airborne micro dosimeters to collect real-time TID (total ionizing dose) ARMAS transmits TID, time, and GPS location to the ground via Iridium satellite link for data comparison (eventual assimilation) with NAIRAS ARMAS TID is calibrated to the “gold-standard” TEPC (tissue equivalent proportional counter) using NSRL, LANSCE, LLUMC, LLNL beam lines ARMAS distributes updated dose rate information with 15-minute latency

NAIRAS and ARMAS NAIRAS Real-time global aviation radiation climatology Real-time local aviation radiation measurements NAIRAS

ARMAS real-time measurement demonstration 100 NASA DC-8, NOAA G-IV, NSF G-V flights 2013-2015 ARMAS Flight Module 1 (FM1) on NASA AFRC DC-8

ARMAS FM1 (2013-2015) – flight 18 example Winnipeg Winnipeg Houston Spokane Houston Top: ARMAS flight 18 S0 (August 28, 2013) Middle: S2 event (September 30, 2013) Bottom: S3 event (March 7, 2012)

Typical ARMAS FM1 flight profile (flight 18)

ARMAS FM1 FLIGHT SUMMARY 60+ flights during high to moderate solar activity (May 2013 to Aug 2014) All data are from GCR radiation with no SEPs ARMAS has validated NAIRAS for the FL260 to FL400 range GCR dose begins ~8 km Low data counts above ~11 km (ignore data fitting)

ARMAS FM2 Deployments in 2015 Korea Space Weather Center purchased two FM2s as part of ARMAS Phase IIE commercialization FM2s were deployed to NOAA G-IV and NSF G-V in Feb-Mar 2015 Data became available to the community starting in June 2015 from the NOAA G-IV and August 2015 with the NSF G-V NSF G-V NOAA G-IV

NOAA G-IV flight profile (ARMAS FM2) for Hurricane Danny (August 2015)

NSF G-V flight profile (ARMAS FM2) for Antarctica (October 2015)

ARMAS FM3 Deployment in 2015 NASA Armstrong Flight Research Center has flown one FM3 as part of ARMAS Phase III commercialization Deployment on the ER-2 in June 2015 First data to FL550 became available to the community in September 2015 AFRC ER-2

ARMAS FM4 Deployment Stratospheric balloon flights starting in 2016 under MOU between World View and SET Data will be extended to ~40 km as a World View pathfinder payload Credit: World View

ARMAS FM5 on business jets in 2016 FM5 has micro dosimeter, GPS, Iridium, and Bluetooth in a size similar to a smart phone All altitude ranges and all sources of radiation Personal dose exposure reported in a global context providing situational awareness Provides management options for SEP event flight exposure FAA compliant (stand-alone unit with no attachment to plane)

Real-time Automated Radiation Measurements for Aerospace Safety (ARMAS) website