PhD Challenge dedicated to the Composite Industry
Composites Challenge is a competition of PhD sourced and selected for the quality of their research work in the field of composites.
The Challenge: 5 minutes to pitch their thesis using 1 slide.
JOIN US ON MARCH 4TH, TO SEE WHO RISES TO THE COMPOSITES CHALLENGE
- 11.35 am – 11.40 am
- 11.40 am – 12.00 pm
Keynote presentation: « From PhD to Entrepreneur » by Christian Fischer, CEO & Co-Founder of Bcomp
- 12.00 am – 13.00 pm
Pitch of the 10 PhD finalists
- 16.35 pm – 16.45 pm
Composites Challenge Awards Ceremony
A win-win program
For the PhD
- Direct access to the industry, potential investors or buyer of their research
- A unique way to promote their research to the 43,500+ participants of the show and the 100,000+ JEC World community contacts
- A gateway to recruiters
For the industry
- Source of innovation and solutions at early stage
- Source of talent
A great event
The recruitment campaign take place each year from September to December.
Participate in the Composites Challenge to reap the benefits:
- A press release to announce the finalists
- Marketing campaigns targeting the 100,000+ JEC Group database contacts
- Full coverage in the JEC World Digital Preview (sent one month prior to the show to the visitors and exhibitors)
- A massive voting campaign via social media activities
- A strong setup at the show, including technical posters; printed promotional materials with a dedicated brochure; a pitch session; and an award ceremony
E-mail: [email protected]
Laboratory for Processing of Advanced Composites, EPFL
- 11.35am – 11.40am: Introduction
- 11.40am – 12.00pm : Keynote presentation – « From PhD to Entrepreneur » by Christian Fischer
- 12.00pm – 1.00pm: Pitch of the 10 PhD finalists
- 4.35pm – 4.45pm: Awards ceremony of the Composites Challenge
CEO and Co-founder
The 2020 Finalists
From Pressure to Geometry: a scalable method for realistic textiles reconstruction
We propose a method to reconstruct the architecture of a dry preform based on simple data acquisition. As the laminate is compacted, a pressure-sensitive film is used to capture the mechanical signature of the layup. Using this information the mesoscale geometry of the preform is interpreted.
CANs: Reversibly Crosslinked Polymers and the Future of Composites
Covalent adaptable networks (CANs) are crosslinked polymers comprising a dynamic chemistry which allows their selective and reversible de-crosslinking. In this research, all aspects of CANs are investigated, ranging from their synthesis to their use as recyclable and repairable composite matrices.
“Structural power composites for massless energy storage”
Structural power composites are a new kind of multifunctional composites. Among them, structural batteries consist in light structural CFRP composites capable of storing energy. These new materials could reduce the conventional heavy battery packs’ weight penalties by giving the future electric aircrafts’ structure some energy storage capabilities.
Autonomous healing and indication of cracks in fiber-reinforced composites
We introduce an elegant pathway to reducing high maintenance costs by dispersing microcapsules containing a dye and liquid healing agent in our composites. These capsules can extend the lifespan of composites while alleviating the challenges associated with locating damage
Spreading of carbon fibre/thermoplastic pre-preg tapes
Varying the width of pre-preg tapes can eliminate defects in complex composite structures. Current methods struggle to produce doubly curved surfaces such as aircraft noses without gaps or overlaps. An improved method, utilized with automated tape placement, can spread pre-preg tapes eliminating gaps and overlaps, boosting the efficiency of complex structures.
WrapToR composite truss structures
Wrapped Tow Reinforced (WrapToR) trusses combine the structurally favourable geometry of trusses with the impressive material properties of composites to form ultra-efficient structural members. The research is focused on developing the technology through understanding and improvement of the manufacturing process and the establishment of analytical techniques to predict structural behaviour.
From Brittle to Tough – Damage Tolerance of Core-Shell Rubber and Block Copolymer Toughened CFRP
The research project aims at extending the fundamental understanding how toughness is transferred from a nano phase modified thermoset (up to 28 vol.-%) to a fibre reinforced composite. Subsequently the key aspects to obtain tough and damage tolerant thermosetting CFRPs by the sole modification of the matrix are identified.
Design and Optimization of Hybrid Truss Structures
My research focuses on the design and optimization of truss structures made of pultruded CFRP members. For this purpose, an aluminum-CFRP adhesive joint is designed to efficiently connect the truss members. The strength and weight of the joints are then taken into account within the truss optimization algorithm.
Improving the water durability of flax fibre composites by using non-dry fibre
Water sorption of natural fibre composites leads to the swelling and shrinkage of the fibre, which results in a reduction of the mechanical properties and dimensional stability of the composites. Water durability of composites is enhanced by using non-dry flax fibre and resins that have low sensitivity to moisture.
Used wind turbines: A recycling solution
Our goal is to create an efficient recycling scheme to extract glass fibers from used wind turbine blades and reuse them in new added value products. Through micromechanical characterization, the optimum design parameters for an efficient composite from the recycled fibers are obtained and used to develop recycled composite pellets and 3D printing filaments with exceptional properties.
Extending virtual testing to impact applications
A micromechanical model of composite ply incorporating strain rate dependency has been developed. A novel micromechanical testing technique for high strain rate characterization of composite constituents has been developed for model calibration. Simulation of damage initiation at high strain rates and validation with macroscale testing has been achieved.
ECCM19 General Chair & Professor
President and CEO of CompriseTec
Head of Laboratory for Processing of Advanced Composites (LPAC)
Asia Pacific Business Development Director
Global Head of R&D