CIMComp, the future composite manufacturing research center of the Engineering and Natural Sciences Research Council (EPSRC) of the UK, announced two 36-month composite core research plans, which will be launched in May 2020.
The first project is called "Design Simulation Tools and Process Improvements for NCF Preforming" of non-crimp fabric NCF preforms. The chief scientist is Professor Michael Sutcliffe of the University of Cambridge and the joint researcher is Lee Harper of the University of Nottingham Ph.D. and Professor Richard Butler of the University of Bath. The project will also be completed in collaboration with Hexcel Enhanced UK, Gordon Murray Design, GKN Aerospace and Dassault Systems.
Focusing on dry non-crimp fabric (NCF) and double film forming (DDF, Double Diaphragm Forming), the project will make progress in forming process simulation and material properties to ensure the accuracy and effectiveness of high-performance preforms suitable for liquid forming processes Design and manufacture. The research topics to be overcome by the project plan are determined by the latest research plan formulated by the CIMComp Center.
Dr. Lee Harper, CIMComp Center Manager and Associate Professor of Composites Manufacturing at the University of Nottingham, said: "I am very pleased to see that these projects have been launched after a successful feasibility analysis. They have a high degree of fit with the needs of the industry and have received many industry cooperation The strong support of the people. We will strive to provide regular project updates through the CIMComp website. "
The second project is called "Layer by Layer Curing". The chief scientist is Dr. Alex Skordos of Cranfield University, and the joint researcher is Dr. James Kratz of the University of Bristol. The project will be completed in conjunction with Rolls-Royce, the National Composites Center, Heraeus Noblelight, Airbus and Nantes University.
The feasibility analysis in the early stage shows that in a relatively simple planar geometry structure, by strengthening the control of the pre-curing level, the problem of insufficient adhesion between layers during the rapid curing process can be alleviated. In order to achieve the above purpose, the project will intensify the research and development of scientific tools, with a view to producing products with more complex shapes, and at the same time meet the technological requirements of mass production.
The above two project proposals have passed the review conducted by the expert group in accordance with the EPSRC standard peer review guidelines on confidentiality and conflict of interest.