PERFORM THESES PROGRAMME

A Ph.D. programme to stimulate early-stage research in manufacturing

To help manufacturers stay one step ahead technologically, IRT Jules Verne launched PERFORM in 2017: a doctoral programme aimed at advancing upstream research in the field of manufacturing.

Its goal: to stimulate basic research aligned with IRT Jules Verne’s R&D topics centered on advanced production technologies.

This innovative programme helps strengthen the research workforce in the field of the factory of the future and contributes to advancing this area of excellence specific to the Loire region. Funding is provided by IRT Jules Verne (France 2030), industry partners, the Pays de la Loire Region, and Nantes Métropole.

In brief
  • PERFORM is the IRT Jules Verne doctoral program launched in 2017, dedicated to promising R&D topics in manufacturing
  • PERFORM gives manufacturers access to the findings of 18 dissertations tailored to their needs
  • The commitment by manufacturers is for three years, with a limited financial investment
  • The program has already been adopted by AIRBUS, AIRBUS Atlantic, DAHER, NAVAL GROUP, SAFRAN, and CHANTIERS DE L’ATLANTIQUE

They trust us

01 Challenges

What are the challenges of the IRT Jules Verne thesis programme?

perform allow to:

  • Prepare for the future and initiate R&D Projects
  • stay ahead of the curve in technology
  • Contribute to the Loire Valley’s excellence in the industry of the future
02 Benefits

Why join the PERFORM thesis programme?

  1. 01 For Manufacturers Access the results of a set of 18 dissertations focused on topics they have defined and have a truly targeted monitoring tool at their disposal.
  2. 02 For Academics Gain additional leverage to advance targeted basic research and create new opportunities for collaboration with the participating industry partners.
  3. 03 For IRT Jules Verne Prepare for the future by contributing to the advancement of cutting-edge research in its key areas and by building on the work carried out by doctoral students.
Ph.D. students Ph.D. students
perform Seminar perform Seminar
03 Principle

PERFORM: how does the PhD programme work?

The programme is based on a system of clusters of theses

The latter are initiated in groups within focused areas in order to achieve a significant overall impact. The themes are jointly defined each year by IRT Jules Verne and its industrial partners. The program consists of 18 theses and has an annual budget of 1.3 M€.

 

OUR CORNERSTONES

  1. 01 Funding for thesis clusters, to maximize the return on investment and the richness of actionable results
  2. 02 6 theses per year, 18 on a regular basis
  3. 03 Joint development and management of the program with partners
  4. 04 Sharing of intellectual property between IRT Jules Verne and Academic partners

Annual program process

Access to results

04 thesis topics

Research Topics of the PERFORM Programme

PERFORM addresses high-stakes issues for the future of manufacturing, including:

  • Composite processes
  • Metal-based processes, including additive manufacturing
  • Robotics
  • Flexibility in manufacturing
  • Digital manufacturing

Some examples of recent issues we have addressed:

  • Manipulation and control of the deformation of flexible objects for 3D forming applications in industrial processes.
  • Control of Thermal Phenomena in Direct Energy Deposition Additive Manufacturing
  • Energy Optimization of Thermal Manufacturing Cycles.
05 Rates

How to get involved in PERFORM?

The commitment from industry partners is for three years, which allows them to track the progress of all the thesis projects launched during that period (18 in total) for a limited financial investment.

Type of business (by number of employees)Annual membership fee (€)
n ≥ 100025 000
250 ≤ n ≤ 99910 000
20 ≤ n ≤ 2495 000
n < 202 500
06 directory of theses

All current PERFORM theses

  • Pauline ARNOULIN
    Pauline ARNOULIN SIS, GeM, Nantes Université

    Thermal Control to optimize deposition rate in Wire Arc Additive Manufacturing (WAAM). Application to stainless steel alloys using dual-wire TIG welding: optimization of microstructure and stress Distribution.

  • Hawraa BECHER
    Hawraa BECHER MaSTIC, IREENA, Nantes Université

    Control of interfaces during inductive welding, specifically for the heating and cooling phases

  • Flavie LARGENTON
    Flavie LARGENTON SMI, LAMPA & I2M, ENSAM Angers

    A study of the recyclability of long carbon fibres – contributions to processes and mechanical behaviour.

  • Kyu-Taek KIM
    Kyu-Taek KIM SPI, LAUM, Le Mans Université

    Visual optical experimental methods for the detection and characterisation of defects in metallic and composite structures

  • Valentin CLAVIER
    Valentin CLAVIER SIS, GeM, IMN, Nantes Université

    Thermo-mechanical-metallurgical simulation of the manufacture of titanium alloy components using the WAAM process and of their mechanical behaviour using a mean-field approach.

  • Arthur RAQUIN
    Arthur RAQUIN 3MG, IMN, Nantes Université

    Improvement of the mechanical properties of titanium alloy components produced by WAAM additive manufacturing using molten pool vibration

  • Guillaume LEBRETON
    Guillaume LEBRETON SIS, LTeN, Nantes Université & ICAM Ouest

    Rapid processing of vitrimer composites and investigation of their reprocessability for aerospace applications

  • Pierre WAROQUIER
    Pierre WAROQUIER SIS, LTeN, Nantes Université

    Anisothermic development of adhesion between two thermoplastic composites – Modelling, characterisation and application to industrial processes

  • Johan BERRIER GONZALEZ
    Johan BERRIER GONZALEZ Matisse, INRIA, Université de Rennes

    Shaping carbon fibre fabrics using vision-based control

  • Mohamed Abdelmalek BOUCHERIKA
    Mohamed Abdelmalek BOUCHERIKA PHF, LAMIH, Université Polytechnique Hauts de France

    Robust shaping of deformable objects using visual servoing in the form of a quasi-LPV polytopic model

  • Fatma BENSAAD
    Fatma BENSAAD SIS, LTeN, Nantes Université

    Spatio-temporal control of thermal conditions at the boundaries of a composite component with considerable thickness and significant thickness variation, with the aim of controlling the polymerisation kinetics.

  • Manal AATIK
    Manal AATIK SIS, LTeN, Nantes Université et ICAM

    Improving the energy efficiency of manufacturing equipment operating on a thermal cycle by recovering waste heat

07 PERFORM from the inside
08 more videos

‘My PhD at IRT Jules Verne’: former PhD students share their experiences

Open Youtube playlist
‘My PhD at IRT Jules Verne’: former PhD students share their experiences
Playlist . 7 vidéos
09 Further reading

Find out more about the IRT Jules Verne’s five areas of technological expertise

Composites
Composite materials processes
Fact sheet — Composites Manufacturing processes

Composites

Based near Nantes, the IRT Jules Verne has, since its creation in 2012, developed outstanding expertise in the manufacturing processes for composite parts and structures.

As the core activity that led to its creation, the institute’s expertise in composite materials processes is now recognised at both national and European levels. IRT Jules Verne is also recognised as a key player in the field within international networks, notably JEC World, which has on several occasions recognised the groundbreaking technological innovations developed at the institute.

With a multi-sector technological research team dedicated to composite materials and processes, IRT Jules Verne leads collaborative national and European R&D projects and provides R&D services to address industrial performance challenges, particularly those relating to the manufacture of complex and large-scale structures.

The R&D activities combine the development of innovative processes with product design in order to optimise production costs, meet production rate targets and reduce environmental impact. They cover thermoplastic and thermosetting composite materials, from preforming and shaping through to assembly.

Linking up with IRT Jules Verne’s expertise in modelling and simulation, robotics and process monitoring, the team develops comprehensive solutions, from technical and economic feasibility studies through to full-scale industrial demonstrators.

20+ experts, engineers, technicians and PhD students
1200 m2 of technology halls
8 development platforms
  • Large-scale automated preforming
  • Liquid impregnation processes: thick infusion, RTM injection and isothermal CRTM
  • Forming processes: thermocompression, stamping/overmolding and non-autoclave consolidation
  • Welding of TP composites
Find out more about Composites

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