IGF::OT::IGF THE PURPOSE OF THIS SBIR PROGRAM IS TO ADAPT NANOSONIC'S HYBRIDSIL NANOCOMPOSITES AND COMBINE…

Public award description

IGF::OT::IGF THE PURPOSE OF THIS SBIR PROGRAM IS TO ADAPT NANOSONIC'S HYBRIDSIL NANOCOMPOSITES AND COMBINE HIGH EROSION RESISTANCE, LOW ICE ADHESION, AND PASSIVE ANTI-ICING FUNCTIONALITY WITH METAL RUBBER SENSOR TECHNOLOGY TO ENABLE INFLIGHT ICING MEASUREMENT AND MITIGATION FOR NEXT GENERATION AIRCRAFT. DURING PHASE I, NANOSONIC SUCCESSFULLY DEMONSTRATED NOVEL SENSOR DESIGN CONCEPTS COUPLED WITH HYBRIDSIL LOW ICE ADHESION PASSIVE ANTI-ICING NANOCOMPOSITE COATINGS. NANOSONIC REALIZED OUTSTANDING PASSIVE ICING PROTECTION THROUGH ICING WIND TUNNEL TESTING, COMPLETELY PREVENTING ICE FORMATION IN SELECT CONDITIONS AND WITH EXCELLENT ICE SHEDDING MEASURED TO -20F. LOW ICE ADHESION WITH OUTSTANDING EROSION RESISTANCE WAS REALIZED, RETAINING LOW ICE ADHESION PROPERTIES FOLLOWING 500 MPH RAIN EROSION EXPOSURE. NANOSONIC DEMONSTRATED EXCEPTIONAL ICING EVENT SENSING CAPABILITIES IN THE ICING WIND TUNNEL, RESPONDING IN NEAR REAL TIME TO ENVIRONMENTAL CONDITION CHANGES WITH NEGLIGIBLE DRIFT OR HYSTERESIS IN TEST CONDITIONS SPANNING -4 TO 26F, 100 TO 200MPH WINDSPEEDS. SENSITIVITY TO OBSERVE ICE ACCRETION ONSET AND BUILD, WITH DISTRIBUTED SENSING OF THICKNESS AND AIRSPEED, WAS DEMONSTRATED IN NEAR REAL TIME. NANOSONIC WILL BUILD ON THESE RESULTS TO OPTIMIZE, QUALIFY AND TRANSITION THE TECHNOLOGY THROUGH EXTENSIVE DEVELOPMENT, TESTING, AND PRIME PARTNER INTERACTION DURING PHASE II.