Technology usually limited to jets is now made available to the general aviation community and a proven solution to ice build-up. ThermaWing is the leading choice for safety when dealing with ice hazard prevention.
In 2007 the publication NASA SPINOFF, marked Kelly's ThermaWing deicing system as the future of ice protection. One objective of NASA's Aviation Safety Program along with the FAA, is combating ice. The ThermaWing proves the most reliable deicing system with non of the drawbacks that "weeping wing" or boots have.Read More: Deicing System Protects GA Aircraft →
Operationally, it is better than TKS! (by a lot) I think we have the best de-icing option that a little plane can have. My hat's off to the dedicated people at Kelly for all the hard work they've done to bring their system to our airplanes. Steve Demy, Pilot/Owner
This reliable wing and tail deicing system allows pilots to safely fly through ice encounters...NASA Spinoff 2007
This new flexible, electrically conductive, graphite foil technology has none of the drawbacks or limited effectiveness of the boot or weeping wing. Instead of the chemical mess of liquid deicers and the added weight/performance drag of boots, the ThermaWing™ covers a large surface area without significant weight penalties and instantly sheds ice.
Once armed the ThermaWing™ system will activate at 41°F starting the deice cycle. An exact concentration of heat breaks the bond between the ice and heater surface during each cycle. Energy is controlled across the system so the leading edge and shed zones can be heated according to need. Thus making ThermaWing™ the most advanced aircraft deicing system available on the market today.
The outer layer of the laminate is a heat-conducting Tedlar a very thin ice phobic. It offers a unique balance of aesthetics while offering the durability of a fluoropolymer. A zoned heater system is utilized and controlled by a solid-state processor. The impingement area, or leading edge, is kept warm continually melting impinging ice, or simply, "runs wet". The area just aft of this impingement area, or shedding zone, is kept below freezing causing the run back to freeze and collect as ice. During a de-ice cycle the voltage is increased raising the temperature of this aft shedding zone, releasing the ice bond and shedding the ice via aerodynamic force. Once power is removed from the heater the shedding zones immediately freeze and continue to collect ice until the next de-ice cycle. This system may take as little as 1 second per surface and only 33 seconds to deice the entire aircraft using a 60 second cycle.