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Transcription:

High Ice Water Content Research International Collaboration and Field Campaign Presented to: FPAW By: Tom Bond Date:

Statement of Need Over the past 10+ years, it has been recognized that jet engine powerloss events occur around deep tropical convection at higher altitudes. Theorized cause was flights in high ice crystal concentrations Power-loss results from ice crystals entering the engine core, melting and refreezing inside the engine Engine Harmonization Working Group proposed new certification criteria; FAA issued Notice For Proposed Rulemaking; develop new regulations for certification to address ice crystal ingestion International partnership formed High Ice Water Content (HIWC) project - FAA, NASA, Boeing, Environment Canada, Australian Bureau of Meteorology, National Research Council of Canada, Science Engineering Associates, National Center for Atmospheric Research, Airbus, and Transport Canada. Group proposed a field campaign using an instrumented research aircraft to characterize this environment 2

HIWC Partnership HIWC partnership research activity started in 2005 2006; proposed a field campaign in Darwin, Australia during monsoon period which occurs between December and March ideal location to collect these conditions Pursued research over the first 3-4 years: Instrumentation development to address ice crystal environmental, high-speed sampling, probe tip effects, humidity issues, ice water content measurement, etc. Developed Science Plan and operations documents Work expanded to address ice crystal engine ingestion, facility capabilities, weather tools, and detection technologies Research aircraft development through NASA 3 3

HAIC-HIWC: Partnership Request HIWC had major problems with research aircraft development caused delays, changes in aircraft, and eventual termination of activity in Sept. 2012. HIWC made request to work together with the European Commission High Altitude Ice Crystal (HAIC) project for a 2014 field campaign in Darwin, Australia. Offer accepted, first coordination meeting in late January 2013. On-going monthly meetings and exchanges to build partnership. Significant challenges for very short time line Adapt instrumentation & integrate plans for use on SAFIRE Falcon 20 aircraft Coordination of objectives, work plans, logistics, etc. Develop new iso-kinetic probe to measure IWC 4 4

HIWC Field Campaign Objectives Collect data to evaluate atmospheric ice crystal properties: Compare to proposed Appendix D envelope Determine/verify ground test facility spray simulation criteria Ice crystal weather tools development for nowcast/forecast capabilities Evaluate current on-board reactive detection Falcon 20 research radar provide real-time weather information and a data base describing reflectivity-mass relationships. Helps identify design goals needed for a cockpit weather radar 5

FAA - Icing Crystal Icing (ICI) Research Goals Goal Approach Timeframe 1 Enable safe flight through high ice water content regions of convective weather systems by developing engines and air data systems that are robust to these environments. Verify Part 33 Appendix D engineering standards representative of a 99th percentile environment and develop means of compliance for engines and air data systems to be certificated Regulations apply to new type design turbine engines Target 2014: Regulations start (future fleet) 2 Enable safe flight by remotely detecting HIWC conditions onboard the aircraft to tactically avoid (est. 60-80 nmi detection) flying into hazardous ice crystal icing conditions. Utilize modern onboard weather radar with new data management algorithms. Current and future fleets Target 2017+ timeframe to be in service 3 Enable safe flight by delivering nowcasting/ forecasting tools to identify areas of HIWC to support flight mission planning and to avoid flying into hazardous ice crystal icing conditions. Develop and validate the HIWC diagnostic/forecast tool ALPHA (being developed by FAA Aviation Weather Research Program). Current and future fleets Target 2018+ timeframe to introduce in selected service 6

Field Campaign Arrival (1/12/2014) Mid-Jan to Mid-Mar 2014 Target of 150 research flight hours in Ice Crystal Icing (ICI) conditions CNRS Falcon 20 Centre National de la Recherche Scientifique 7

Field Campaign Aircraft Prep (First 4 Days) Sensors installed, aircraft checked out; research flights beginning 8

Field Campaign Briefings Weather team & support groups on site and coordinating weather evaluation with ops team Current Wx Observational Data & Forecast Models Post-Flight Pilot/Research Crew Debrief Pre-Flight Weather Briefing Post-Flight Science Team Debrief 9

Field Campaign ICI Research Flights FS140018-3.4 F/H Flight in system located North/West of Broome. 6 legs performed at FL310 / - 30 C with sustained IWC at 1.0g/m3 and peaks from 1.5g/m3 to 2.5g/m3 (1 peak). 10

Field Campaign Pilot Awareness Support Ice crystals streaming on windshield at high altitude 11

Field Campaign Maintenance and Instrumentation Checks & Calibrations Needed Every Day Planned and Unplanned! Erosion damage - radome, wing tip, & LWC sensor Lightening strike - in at nose boom, out at trailing edge of IKP 12

HAIC-HIWC Current Status Darwin Field Campaign ended early due to multiple Falcon 20 aircraft problems; funding partners terminated in early March Conducted 23 research and calibration flights Used 72 of 150 research flight-hours available Acquired cloud microphysical and remote sensing data during 100 level transects at various altitudes. 11 legs at -50C; 44 legs at -40C; 41 legs at -30C; 4 legs at -15C/-10C Required 100 transects of 20 nautical mile scale length at each of -50C, -30C, -10C altitude levels to achieve 99 th percentile statistics Data from campaign being analyzed 13

Additional Flight Research Second field campaign being developed: will use SAFIRE Falcon 20 with same instrumentation package May 2015 in Cayenne, French Guiana Bringing back almost all of 1 st campaign science team Use leftover flight research hours from 1 st campaign + additional resources Other Flight Research Need weather radar capabilities for on-board detection of ice crystal icing (ICI) conditions to support in-flight avoidance. This awareness technology is best option for current fleet to avoid ICI 14

Ice Crystal Data Analysis Both HAIC-HIWC Campaigns Anticipate completed data package from 1 st campaign end of CY 2014 No time to look at data for regulatory purposes before 2 nd campaign Anticipate completed data package from 2 nd campaign end of CY 2015 Analysis of ice crystal data for comparison to Appendix D start in 2016. Campaign data evaluated for regulatory purposes Results reviewed by EIWG Decision on App D update CY 2016 Results reported CY 2017 to FAA/EASA 15

ICI Flight Research Progress to Date Goal Progress Missing 1 Engine Design Regulations (new type designs) 2 Onboard Detection (current and future fleet) 3 Weather Forecasting Tools (current and future fleet) Acquired significant cloud physics data to characterize Appendix D, Also supports review of ground test facility ICI cloud definition Significant amount, but it is not sufficient Unable to install modern weather radar on SAFIRE aircraft due to 2013 aircraft preparation rqmts for other equipment, schedule conflicts, and lack of STC Acquired significant amount of satellite, ground radar, and weather model data during campaign for ALPHA nowcast tool development Data set is biased towards decaying storms. Developing storms are likely to have higher IWC. Insufficient data acquired at high and mid altitudes - a consequence of aircraft performance and the foreshortened campaign. Minimal progress of onboard weather radar for remote detection. Need additional flight campaign with acceptable research aircraft to support this goal. Need to evaluate current data set & use for calibration / algorithm development Need future flight test for validation of ALPHA 16