SBIR-STTR Award

Infusion Resins for Automated Dry Fiber Placement Products
Award last edited on: 7/14/2016

Sponsored Program
SBIR
Awarding Agency
NASA
Total Award Amount
$870,815
Award Phase
2
Solicitation Topic Code
Z2.01
Principal Investigator
Brian S Hayes

Company Information

Applied Poleramic Inc (AKA: Api)

6166 Egret Court
Benicia, CA 94510
   (707) 747-6738
   inquiries@appliedpoleramic.com
   www.appliedpoleramic.com
Location: Single
Congr. District: 05
County: Solano

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2015
Phase I Amount
$124,965
As the size of composite parts exceed that of even the largest autoclaves, new out-of-autoclave processes and materials are necessary to achieve the same level of performance as autoclave cured composites. As an alternative to OOA prepreg systems, infusion of dry fiber preforms made by dry fiber – AFP can mitigate out-time issues and shelf-life problems combined with lower cost manufacturing. Although improvements in automated dry fiber placement (ADFP) products have continued, use and application of these ADFP products have been limited due to the necessary balance of processing and performance of the infusion resin. This is a result of not only the low permeability of the ADFP product preforms but also the inadequate damage tolerance and micro-crack sensitivity of the developed composites. Accordingly, Applied Poleramic, Inc. proposes to develop a novel low viscosity, long pot-life infusion resin for use with ADFP product preforms that results in cured performance similar to that of unidirectional Hexcel 8552 prepreg parts. Specifically, the infusion resin will have more than twice the pot-life at lower viscosity as compared to commercial infusion resins along with significantly improved fracture toughness. This will be accomplished through the development of a novel eutectic aromatic amine curing agent and self-assembly nano-modifier. This innovative epoxy infusion resin will enable large complex composite structures to be developed using ADFP product preforms with reduced production time, higher part quality, and a new level of performance not attainable with current commercial infusion resins. Ultimately, the technology will lead to a new generation of low cost composite materials, critical to future NASA space programs and missions.

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2016
Phase II Amount
$745,850
As the size of composite parts exceed that of even the largest autoclaves, new out-of-autoclave processes and materials are necessary to achieve the same level of performance as autoclave cured composites. As an alternative to OOA prepreg systems, infusion of dry fiber preforms made by automated dry fiber placement (ADFP) can mitigate out-time issues and shelf-life problems combined with lower cost manufacturing. Although improvements in ADFP products have continued, use and application of these ADFP products have been limited due to the necessary balance of processing and performance of the infusion resin. This is a result of not only the low permeability of the ADFP product preforms but also the inadequate damage tolerance and micro-crack sensitivity of the developed composites. Accordingly, Applied Poleramic, Inc. proposes to develop a novel low viscosity, long pot-life infusion resin for use with ADFP product preforms that results in cured performance similar to that of unidirectional Hexcel 8552 prepreg parts. Specifically, the infusion resin will be capable of significantly lower infusion temperature (less than 150 ⁰F) as compared to current commercial infusion resins along with improved fracture toughness. This innovative epoxy infusion resin will enable large complex composite structures to be developed using ADFP product preforms with lower manufacturing risk, reduced production time, higher part quality, and a new level of performance not attainable with current commercial infusion resins. Ultimately, the technology will lead to a new generation of low cost composite materials, critical to future NASA space programs and missions.