SBIR-STTR Award

Performance Enhancement of Deicing Systems with the Use of an Anti-Ice Nano-Coating
Award last edited on: 2/10/2017

Sponsored Program
SBIR
Awarding Agency
NASA : GRC
Total Award Amount
$874,897
Award Phase
2
Solicitation Topic Code
A1.09
Principal Investigator
Jiong Liu

Company Information

NEI Corporation (AKA: Nanopowder Enterprise Inc~NEI Corporation)

400 Apgar Drive Suite E
Somerset, NJ 08873
   (732) 868-3141
   sales@neicorporation.com
   www.neicorporation.com
Location: Multiple
Congr. District: 12
County: Somerset

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2016
Phase I Amount
$124,944
The proposed program addresses NASA's need for a new generation of icing mitigation technology for manned and unmanned vehicles, particularly related to icing on airframe of flight into supercooled liquid water clouds and regions of high ice crystal density. The state of the art active deicing method on leading edges involves either an electrical, pneumatic or vibration induced debonding of accumulated ice. With the advent of icephobic nanocoatings, there have been attempts to develop a durable passive anti-ice coating. However, success to date has been limited. The state of the art can be advanced if anti-ice coatings can be made more durable, and are made to function synergistically with active de-icing techniques. The advantages are reduced power consumption, improved service life of mechanical components, lighter electronics and extra protection in case of failure of active device. Working in collaboration with a manufacturer of low power ice protection systems for commercial and military aircraft, we propose in Phase I to demonstrate the feasibility of incorporating a durable anti-ice coating with an active deicing device. The proposed program builds upon NEI's core competency of introducing desirable functionalities into engineered coatings. The anti-ice/deicing performance will be tested at our collaborator's icing wind tunnel. The objective of the Phase II program will be to further refine the coating composition and coating deposition process, as well as the configuration of the baseline active deicing device so as to deliver a working prototype of an integrated ice protection system that combines a passive anti-ice coating and an active deicing device.

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2017
Phase II Amount
$749,953
The proposed program addresses NASA's need for a new generation of icing mitigation technology for manned and unmanned vehicles. The state of the art active de-icing method on leading edges involves either an electrical, pneumatic or vibration induced debonding of accumulated ice. There is a need for an anti-ice coating that functions synergistically with active de-icing methods. The advantages are reduced power consumption, improved service life of mechanical components, lighter electronics and extra protection in case of failure of active device. The Phase I program has addressed this need and technology gap, and has demonstrated the feasibility of combining a durable anti-ice coating with an active deicing device, thereby creating an integrated de-icing system. Icing tunnel testing results demonstrated that the coating provides improved de-icing efficiency, along with a reduction in power consumption of the active de-icing device. In collaboration with a manufacturer of active de-icing systems and a company developing advanced technologies to enhance aircraft performance and safety, the Phase II effort will refine the coating composition and application characteristics for use on aircraft so as to meet the stringent requirements of the aerospace and aeronautic industry. Further, we will establish a product specification of an anti-ice coating system for use with active de-icing systems and develop protocols for applying the coating at both OEM sites and field applications. The success of the program will lead to prevention of ice buildup on aircraft leading edges, improve aircraft safety, and reduce energy consumption during deicing procedures.