UV-Cured-Cellulose-Nanofiber-Composites-with-Moisture-Durable-Oxygen-Barrier-Properties
A-Facile-in-Situ-and-UV-Printing-Process-for-Bioinspired-Self-Cleaning-Surfaces
Embedded-shape-memory-alloy-wires-to-improve-performance-of-microcapsule-based-self-healing-polymers
Thermal-mending-in-immiscible-polyepsilon-caprolactoneepoxy-blends
Carbon-honeycomb-Zerodur-glasses-and-cyanate-ester

The objective of LPAC is to establish the scientific base for the next generation of materials and processes in the fast-growing fields of polymers and composites. This involves novel approaches to tailoring material systems and process cycles, development of new materials with controlled rheology, solidification kinetics and surface characteristics, process simulation and costing, and quantitative durability analysis for optimal life cycle strategies.

LPAC develops advanced processes for thermoset and thermoplastic composites, based on a fundamental understanding of flow and interfacial mechanisms. Focus is also put on smart composites, bioinspired composites, UV-curable composites, nanostructured materials, multilayer films, functional surfaces and life cycle engineering.

LPAC is a new lab at the Institute of Materials and benefits from former LTC’s (Polymer and Composite Technology Lab) knowledge in developing new routes to cost-effective materials and manufacturing, incorporating unique additional functionality that goes well beyond classical performance criteria. Emphasis is placed on scaling up to an industrial context, particularly in the fields of aerospace, automotive, building, medical, electronics and sports.

News

A self-healing composite

Researchers from EPFL’s Laboratory for Processing of Advanced Composites have developed a material that can easily heal after being damaged. This cutting-edge composite could […]

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LPAC ski day

A nice day to study the ski-snow contact. Want to know more about Dynamic Properties of Materials for Alpine Skis? More information here.

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A hydrogel that adheres firmly to cartilage and meniscus

LPAC researchers have developed a hydrogel – made up of nearly 90% water – that naturally adheres to soft tissue like cartilage and the […]

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Inauguration of the fully renovated LPAC

We celebrated the inauguration of the fully renovated LPAC on Friday, June 8, 2018 with our alumni friends!

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PhD Thesis public defense of Marascio Matteo

Congratulations to Marascio Matteo who defended his PhD thesis ‘3D Printing and Supercritical Foaming of Hierarchical Cellular Materials ‘ on April 30th 2018!

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