Please use this identifier to cite or link to this item: https://hdl.handle.net/11681/2645
Full metadata record
DC FieldValueLanguage
dc.contributorNASA Glenn Research Center.-
dc.contributor.authorRyerson, Charles C. (Charles Curtis)-
dc.date.accessioned2016-03-14T17:57:36Z-
dc.date.available2016-03-14T17:57:36Z-
dc.date.issued2000-01-
dc.identifier.urihttp://hdl.handle.net/11681/2645-
dc.descriptionCRREL Monograph-
dc.descriptionAbstract: Remote-sensing systems that map aircraft icing conditions in the flight path from airports or aircraft would allow icing to be avoided and exited. Icing remote-sensing system development requires consideration of the operational environment, the meteorological environment, and the technology available. Operationally, pilots need unambiguous cockpit icing displays for risk management decision-making. Human factors, aircraft integration, integration of remotely sensed icing information into the weather system infrastructures, and avoid-and-exit issues need resolution. Cost, maintenance, power, weight, and space concern manufacturers, operators, and regulators. An icing remote-sensing system detects cloud and precipitation liquid water, drop size, and temperature. An algorithm is needed to convert these conditions into icing potential estimates for cockpit display. Specification development requires that magnitudes of cloud microphysical conditions and their spatial and temporal variability be understood at multiple scales. The core of an icing remote-sensing system is the technology that senses icing microphysical conditions. Radar and microwave radiometers penetrate clouds and can estimate liquid water and drop size. Retrieval development is needed; differential attenuation and neural network assessment of multiple-band radar returns are most promising to date. Airport-based radar or radiometers are the most viable near term technologies. A radiometer that profiles cloud liquid water, and experimental techniques to use radiometers horizontally, are promising. The most critical operational research needs are to assess cockpit and aircraft system integration, develop avoid-and-exit protocols, assess human factors, and integrate remote-sensing information into weather and air traffic control infrastructures. Improved spatial characterization of cloud and precipitation liquid water content, drop-size spectra, and temperature are needed, as well as an algorithm to convert sensed conditions into a measure of icing potential. Technology development also requires refinement of inversion techniques. These goals can be accomplished with collaboration among federal agencies including NASA, the FAA, the National Center for Atmospheric Research, NOAA, and the Department of Defense. This report reviews operational, meteorological, and technological considerations in developing the capability to remotely map in-flight icing conditions from the ground and from the air.-
dc.publisherCold Regions Research and Engineering Laboratory (U.S.)-
dc.publisherEngineer Research and Development Center (U.S.)-
dc.relationhttp://acwc.sdp.sirsi.net/client/en_US/search/asset/1001389-
dc.rightsApproved for public release; distribution is unlimited.-
dc.sourceThis Digital Resource was created in Microsoft Word and Adobe Acrobat-
dc.subjectAircraft icing-
dc.subjectDrop size-
dc.subjectIcing-
dc.subjectIn-flight icing-
dc.subjectLidar-
dc.subjectNASA-
dc.subjectRadar-
dc.subjectTemperatures-
dc.subjectDoD-
dc.subjectFAA-
dc.subjectHuman factors-
dc.subjectLiquid water content-
dc.subjectOperations-
dc.subjectRemote sensing-
dc.subjectOptical radar-
dc.titleRemote sensing of in-flight icing conditions : operational, meteorological, and technological considerations-
dc.typeDOCUMENT-
Appears in Collections:Monograph

Files in This Item:
File Description SizeFormat 
CRREL-M-00-1.pdf715.12 kBAdobe PDFThumbnail
View/Open