COOKIES: By using this website you agree that we can place Google Analytics Cookies on your device for performance monitoring. |
Design of iced airfoilsAdd to your list(s) Download to your calendar using vCal
If you have a question about this talk, please contact Dr Per Ola Kristensson. Ice formation on an aircraft happens when supercooled water droplets impinge on the leading-edge surfaces, freezing immediately upon impact. Ice accretions alter the effective shape of the aircraft, modifying the aerodynamic forces and moments caused by the air flow over iced components. The primary effects are increased drag, reduced stall angle, and reduced maximum lift. Over the last 80 years, significant efforts have been devoted to improving understanding both of the physics of the ice accretion process and of the resulting degradation in aerodynamic performance. Significant progress has also been made through improved certification processes and more effective ice- protection systems. Despite these continued efforts, icing-induced incidents and accidents continue to occur on all classes of aircraft, to the point that the National Transportation Safety Board ranked icing among its “Most Wanted Aviation Transportation Safety Improvements.” In consideration of the impossibility of eliminating all the causes/occurrences of ice build-up, this work approaches the problem of ice formation on aircraft from a different perspective: can we design our aircraft so that they are insensitive (or at least less-sensitive) to ice formation? This talk is part of the Darwin College Science Seminars series. This talk is included in these lists:
Note that ex-directory lists are not shown. |
Other listsQualitative methods in health research Zangwill Club Category Theory SeminarOther talksFrom Euler to Poincare Changing languages in European Higher Education: from official policies to unofficial classroom practices The Digital Railway - Network Rail Finding the past: Medieval Coin Finds at the Fitzwilliam Museum mTORC1 signaling coordinates different POMC neurons subpopulations to regulate feeding Active bacterial suspensions: from individual effort to team work Networks, resilience and complexity 'The Japanese Mingei Movement and the art of Katazome' Cambridge Rare Disease Summit 2017 Radiocarbon as a carbon cycle tracer in the 21st century |