Opening Ceremony
Sustainability in aerospace composites: how to accelerate ?
Buckling & stability
Durability, ageing, environmental effects - I
Acoustic Emission & ultrasonic method
Forming & stamping - I
Maintainance & repair
Machining
Graphene, graphene-based composites
Continuous-discontinuous fiber-reinforced polymers (CoDiCoFRP) - I
Autoclave and Out-of-Autoclave
Multifunctional Composites for Energy Applications - I
Manufacturing of short & long fiber composites - I
Full-field methods - I
Matrix materials: polymers, metals, ceramics, concrete, geopolymer - I
Multiscale modeling - I
Computed tomography - I
Additive manufacturing - I
Material by design
Hybrid composites - I
Composites for Hydrogen Storage - I
Automated placement technologies - I
Applications - I
Structural health monitoring and control - I
Energy storage and harvesting - I
Fatigue - I
Keynote Lecture
Keynote Lecture
Keynote Lecture
Applications - II
Additive manufacturing - II
Multiscale modeling - II
Matrix materials: polymers, metals, ceramics, concrete, geopolymer - II
Automated placement technologies - II
Permeability of fibrous reinforcements for resin flow - I
Aerospace - aeronautics - I
Fracture and damage - I
Computed tomography - II
Bio-composites - I
Fibers & textiles - I
Bonding and bonding repairs - I
Delamination prediction and mitigation in laminated structures
Additive manufacturing - III
Bonding and bonding repairs - II
Fracture and damage - II
Permeability of fibrous reinforcements for resin flow - II
Multiscale modeling - III
Fibers & textiles - II
Bio-inspired designs
Transition toward high performance plant fibre composite: sourcing, process, applications and bottlenecks
Matrix materials: polymers, metals, ceramics, concrete, geopolymer - III
Bio-composites - II
Aerospace - aeronautics - II
Biomaterials to bio-composites : What can be the translation from material science to health science
Hybrid composites - II
Reuse, Remanufacturing and Recycling - I
Design of parts - I
Self-healing - I
Multiscale modeling - IV
Bio-composites - III
Data-driven approaches for composite characterization, monitoring, and accelerated development - I
Integrated testing and modelling of composite structures – towards virtual testing and certification by analysis - I
Fracture and damage - III
Composites for Hydrogen Storage - III
Nanocomposites - I
Durability, ageing, environmental effects - II
Bio-composites - IV
Hybrid composites - III
Integrated testing and modelling of composite structures – towards virtual testing and certification by analysis - II
Multiscale modeling - V
Fracture and damage - IV
Composites for Hydrogen Storage - II
Data-driven approaches for composite characterization, monitoring, and accelerated development - II
Reuse, Remanufacturing and Recycling - II
Design of parts - II
Nanocomposites - II
Self-healing - II
Durability, ageing, environmental effects - III
Keynote Lecture
Keynote Lecture
Keynote Lecture
Keynote Lecture
Reuse, Remanufacturing and Recycling - III
Understanding and improving longitudinal compressive strength - I
Fracture and damage - V
Welding and bonding
Fibers & textiles - III
Fatigue - II
Testing at Cryogenic Temperatures
Micro- and nano-scale test methods
Tests in severe conditions
Process modeling and simulation - I
Multifunctional Composites for Energy Applications - II
Structural integration of devices
Poster Discussion Session
Poster Discussion Session.
ESCM General Assembly
Multiscale composite modelling for aircraft engines
Interfaces - I
Liquid composite molding - I