Boston SAMPE to highlight advanced composite driver-side commercial passenger car door project
The featured project is an example of an automated low-cycle time solution that enables composites to become a viable alternative to metals in high rate automotive manufacturing.
#closedmolding #outofautoclave #hprtm
The Boston chapter of the Society for the Advancement of Material and Process Engineering (SAMPE) is holding a meeting on April 25, which will feature a presentation of a new advanced composite passenger car door project as an example of how automated process technologies, along with suitable resin enable composites can support high volume automotive production.
About the project
TPI Composites (Scottsdale, Ariz., U.S.) and SAMPE partners Hexion (Columbus, Ohio, U.S.), Krauss-Maffei (Munich, Germany), and the University of Delaware (Newark, Dela., U.S.), have completed the design of an advanced composite driver-side commercial passenger car door that targets a 42.5 percent weight savings and less than a $5 USD cost increase for every pound of weight saved in the door. The program includes the development of manufacturing processes, fabrication of tooling and component molding and assembly of multiple doors for demonstration of manufacturing rate, cost and suitability for use in a full-scale automotive application. The main door components are manufactured using both high pressure resin transfer molding (HP-RTM) and liquid compression molding (LCM).
Click here for more information or to register for the event
There are numerous methods for fabricating composite components. Selection of a method for a particular part, therefore, will depend on the materials, the part design and end-use or application. Here's a guide to selection.
Spirit AeroSystems actualizes Airbus’ intelligent design for the A350’s center fuselage and front wing spar in Kinston, N.C.
Composites Technology Development's first commercial tank in the Type V category presages growth of filament winding in storage of compressed gases.