JCB Aero aircraft interior flooring panels incorporate SHD composites
High-performance carbon fiber prepreg using SHD’s FRVC411 epoxy resin system resulted in a durable, compliant design for the MRO market.
Panel kit equipped and ready to install. Source | SHD Composite Materials Ltd.
In collaboration with SHD Composites Materials (Sleaford, U.K.), (Auch, France) — a company specializing in VIP/aircraft cabin completion and refurbishment — have developed a floorboard panel system for the maintenance, repair and overhaul (MRO) that is reported to offer a substantial weight reduction. The system uses unidirectional (UD) carbon fiber prepreg reinforced with FRVC411, SHD’s toughened and flame-retardant epoxy resin system, which has ultimately improved the durability of the new floor panels while reducing weight and cost.
JCB Aero’s floorboard panel system is compliant with BMS4-17/20/23. Through their EASA-certified design (Part 21J), production (Part 21G) and EASA Part 145 capabilities, the panels can be installed on 95% of Boeing cabins variants including B737, B747 and B777.
Tested for full conformance with aircraft interiors standards, FRVC411 is a toughened, flame-retardant epoxy resin system designed to cure between 65-140°C, enabling flexibility in component manufacture for aircraft and rail interior applications. Use of UD carbon fiber prepreg increases the panel system’s durability.
JCB Aero, partnering with SHD, boasts significantly faster production times compared to traditional OEM floorboard manufacturing. Prepreg materials can be delivered in just 3 weeks, the company contends, allowing JCB Aero to create custom floorboards with multiple supplemental type certificates (STCs) in a short time frame.
“The team at SHD were easy to work with and provided a tailored solution at an attractive price,” Eric Cagnat, chief operating officer at JCB Aero, says. “As the FRVC411 is a versatile resin system, it helped to reduce processing times while maintaining our high-quality requirements. Overall, we were very impressed with the product and will return for future projects.”
Related Content
-
Hybrid process marries continuous, discontinuous composites design
9T Labs and Purdue applied Additive Fusion Technology to engineer a performance- and cost-competitive aircraft bin pin bracket made from compression-molded continuous and discontinuous CFRTP.
-
Bladder-assisted compression molding derivative produces complex, autoclave-quality automotive parts
HP Composites’ AirPower technology enables high-rate CFRP roof production with 50% energy savings for the Maserati MC20.
-
Low-cost, efficient CFRP anisogrid lattice structures
CIRA uses patented parallel winding, dry fiber, silicone tooling and resin infusion to cut labor for lightweight, heavily loaded space applications.