IRP FOCOMAT

IRP FOCOMAT

French-Vietnamese International Research Project in New Composite Materials

IRP (LIA) FOCOMAT
2013
Contact:
Dr. Nadine Pébère
Nadine.Pebere@ensiacet.fr

Dr. Tran Dai Lam
tdlam@itt.vast.vn

IRP FOCOMAT
News

Introduction

The IRP (LIA) FOCOMAT “Functional Composite Material” (started in 2013 and renewed in 2017) is managed by Dr. Nadine Pébère (CIRIMAT) in France and Dr. Tran Dai Lam (VAST) in Vietnam.

Missions and research themes

The project aims at developing new composites materials (bulk or thin films systems). The scientific program is divided in three axes:

  1. Development of greener organic coatings
  2. Electrodeposited biomimetic apatite coatings
  3. Polymer composites with reinforcing plant fibers

1. Development of greener organic coatings

Organic coatings are widely used to prevent corrosion of metallic structures because they are easy to apply and cost effective. Corrosion inhibitors are incorporated in organic coatings to provide active corrosion protection. In the past, chromates were the most commonly used inhibitive pigments. However, due to their high toxicity, many studies have been devoted to the development of more environmentally acceptable organic coatings. In this context, our project aims to incorporate non-toxic corrosion inhibitors in organic coatings via natural clays (montmorillonite – MMT or layered double hydroxides – LDH), acting as nano-reservoirs for green inhibitors. The complementary effects of MMT and LDH on the microstructure of the coatings are investigated to search for synergistic effects by using different inhibitors. The study of the inhibitor leaching from the clays and their healing action in the case of damaged coatings will be specifically considered.

2. Biomimetic apatite coatings

A proper design of a bone implant material is aimed to provide the necessary durability, functionality, and biological response for long-term use. In this context, metallic materials, among which stainless steels, are most commonly implemented for load bearing implants. Durability and functionality of the implant are governed not only by the mechanical properties of the bulk material but also by the biological response, i.e. osteointegration that depends mainly on the surface/chemical characteristics of the implantable device. The challenges for electrodeposited coatings are twofold: (i) to be able to co-dope the apatite coating and to control the release kinetics and (ii) to produce coatings in lattices structures made from additive manufacturing (3D approaches), that is becoming the most usual method to produce the implants.

 3. Polymer composites with reinforcing plant fibers

The tailoring of polymer composites with long reinforcing plant fibers is a major issue of research in the domain of structural organic composite. The main advantage of such materials is weight saving. The other issue is to design recyclable materials. This explain that the choice must be restricted to linear polymers i.e. thermoplastics. Now, the difficult point is to be able to make the processing at a temperature that is sufficiently low for avoiding the degradation of the plant fiber. Finally, we focus on biosourced polymers. The reinforcing long fibers are bamboo fibers growing in North Vietnam: Dendrocalamus barbatus. The major interest of bamboo fiber is to possess the highest Young modulus among vegetal fibers. The first keys point is to define a treatment allowing the handling of the fiber during the processing of the composite. Moreover, it must allow a satisfactory interface with the polymeric matrix: the interfacial region is insuring the stress transfer from the matrix to the reinforcing fiber.

Some important dates for the collaboration on the topic “Corrosion and protection” 

November 1999: Do Son School “Corrosion protection”.

1997-2004: FSP “Espoir” Project (financial support for PhD thesis and for equipment).

2005-2012: Cooperation agreement VAST/CNRS “Corrosion and protection of materials”.

2013-2020: LIA “FOCOMAT”.

Organization of international Workshops on Corrosion and Protection of Materials in Hanoi: December 2012, October 2015, September 2018 and the next one planed in September 2020 (shifted in 2021, due to the Covid outbreak).

institutions and laboratories involved

France

  • Dr. Nadine Pébère, CIRIMAT Laboratory, Université de Toulouse

Vietnam

  • Dr. Tran Dai Lam, Director of the Institute of Tropical Technology (Vietnam Academy of Science and Technology) in Hanoi.

Participants to the Workshop CPM 2015, ITT, Hanoi

Participants to the Workshop CPM 2018, ITT, Hanoi

On November 29, 2019, Nadine Pébère received the Friendship Medal, awarded by the President of the Republic of Vietnam, Mr Nguyễn Phú Trọng, in recognition of her strong involvement in the collaboration between Vietnam and France for nearly 25 years.

Assoc. Prof. Dr. TRAN Tuan Anh – vice president of VAST – and Nadine Pébère

After the ceremony of the Friendship Medal.

IRN SINERGIE

IRN SINERGIE

International Research Network on Renewable Energy

IRN SINERGIE
2017- 2020
Contact:
Dr. Alain Dollet
Alain.dollet(at)promes.cnrs.fr 

Dr Subodh Mhaisalkar

IRN SINERGIE
Website

IRN SINERGIE
News

PREDIS – Distribution Network Demonstrator at G2Elab (Copyright G2Elab)

4th meeting & Fall School of SINERGIE : “Sustainable & resilient cities: energy considerations”

 5-8 Nov 2019, Singapore

Introduction

The IRN “SINERGIE” for French-SINgaporean network on renewable enERGIEs is a joint CNRS-NTU initiative that is the follow-up of an international workshop on Renewable Energy which was held in Singapore in early February 2015. From 2016 to 2019, the network involved 25 laboratories from 27 institutions in France, and the Nanyang Technological University and ENGIE-Lab in Singapore. In 2020, 4 additional laboratories from 3 French institutions joined the network. SINERGIE should be renewed for 4 years in 2021.

Missions and research themes

The network aims at:

  • coordinating the organisation of conferences, lectures, seminars, symposiums, study days, theme-based workshops or any other type of meeting dealing with the scientific theme of the network;
  • facilitating and encouraging exchange of information and documentation on the scientific theme;
  • identifying common research projects relating to the scientific theme;
  • coordinating replies to invitations to tender for supporting research and technological development;
  • encouraging permanent training initiatives and promote pedagogical operations.

MAIN OBJECTIVES OF THE NETWORK

The scientific project adresses five topics. Each topic is co-leaded by 1 French and 1 Singaporean researcher, and organized in several subtopics.

Topic 1. Smart Grids and Power systems

Coordinators: Nouredine HadjSaid (G2Elab, Grenoble INP) Prof. Choo Fook Hoong (ERI@N/NTU)

Subtopic 1: Microgrids and Renewable Energies integration
Subtopic 2: Electromobility and challenges for the power systems
Subtopic 3: Peer to peer Energy and Cyber-physical modelling

Topic 2. Energy storage

Coordinators: Madhavi Srinivasan (ERI@N/NTU) Mathieu Morcrette (LRCS/CNRS)

Subtopic 1: Electrochemical Energy storage
Subtopic 2: Solid Oxide Fuel Cells and Solid Oxide Electrolyzer Cells (SOFC/SOEC) and
Subtopic 3: Thermal Energy Storage

Topic 3. Wind and Marine Energies

Coordinators: Pierre Ferrant (LHEEA, Ecole Centrale Nantes) Narasimalu Srikanth (ERI@N/NTU)

Subtopic 1: Tidal Energy
Subtopic 2: Wind Energy

Topic 4: Photovoltaics

Coordinators: Péré Roca i Cabarrocas (LPICM/CNRS) Nripan Mathews (ERI@N/NTU)

Subtopic 1: Tandem solar cells
Subtopic 2: Fundamental recombination at bulk and interfaces
Subtopic 3: Perovskite quantum dots: New synthesis and theoretical approaches

Topic 5: Green/Smart Buildings

Coordinators: Christophe Ménézo (LOCIE/Université Savoie-MB) Yann Grynberg (ERI@N/NTU)

Subtopic 1: Building Integrated Energy systems
Subtopic 2: Indoor Air Quality and Comfort
Subtopic 3: Building Management System and Energy performance Evaluation

    institutions and laboratories involved

    French institutions

     

    • CNRS – Centre National de la Recherche Scientifique
    • CEA – Commissariat à l’énergie atomique et aux énergies alternatives
    • CentraleSupélec
    • École centrale de Lyon
    • École centrale de Nantes,
    • Institut national polytechnique de Grenoble,
    • Institut national des sciences appliquées de Lyon
    • Université Claude Bernard Lyon 1
    • Université de Corse Pascal Paoli,
    • Université Grenoble Alpes
    • Université Paris-Sud
    • Université Pierre et Marie Curie
    • Université de Picardie Jules Verne
    • Université de Nantes
    • Collège de France
    • Ecole Nationale Supérieure de Mécanique et Microtechnique
    • Université de Franche-Comté
    • Université de Technologie de Belfort-Montbéliard
    • Ecole Polytechnique
    • Chimie-ParisTech
    • Université de Nantes
    • Université de La Rochelle
    • Université de Savoie Mont-Blanc
    • Université Technologique de Compiègne
    • Université des Sciences et Techniques de Lille
    • Ecole centrale de Lille
    • Université d’Artois
    • Université de Paris-Est Créteil Val-De-Marne
    • Université Gustave Eiffel
    • École Nationale des Ponts et Chaussées

    French laboratories

    PROMES (UPR 8521), G2ELab (UMR 5269), GIPSA-Lab (UMR 5216), SIMAP (UMR 5266), LEGI (UMR 5519), GeePs (UMR 8507), AMPERE (UMR 5005), NIMBE (UMR 3685), LHEEA (UMR 6598), SPE (UMR 6134), INAC (CEA), L2S (UMR 8506), CETHIL (UMR 5008), LRCS (UMR 7314), IMN (UMR 6502), LCMCP (UMR 7574), FEMTO-ST (UMR 6174), LPICM (UMR 7647), IRDEP (UMR 7174, now UMR IPVF 9006), LOCIE (UMR 5271), LASIE (UMR 7356), LEC (EA1006), CINTRA (UMI), LAAS (UPR 8001), UCCS (UMR 8181), MSME (UMR 8208), ESYCOM (UMR 9007), LIGM (UMR 8049), COSYS department (Univ. G. Eiffel)

    Singaporean institution

    • NTU – Nanyang Technological University

    Industrial partner

    • ENGIE Lab – Singapore

    Network coordinators

    • France : Dr. Alain Dollet, Director of PROMES laboratory, CNRS

    • Singapore : Prof. Subodh Mhaisalkar, Executive Director of ERI@N, Nanyang Technological University (with support of Prof. Claude Guet NTU)

    IEA ModHVDC

    IEA ModHVDC

    French-Vietnamese International Collaboration Project in Electrical Engineering

    IEA/PICS ModHVDC
    2018-2020
    Contact:
    Dr Gilbert Teyssèdre
    gilbert.teyssedre(at)laplace.univ-tlse.fr

    Dr Thi Thu Nga Vu
    ngavtt(at)epu.edu.vn

    IEA ModHVC
    News

    Electric Power University

    Laboratoire Plasma et Conversion d’Energie – Laplace

    Introduction

    The IEA/PICS ModHVC (International Scientific Research Program), managed by Dr Gilbert Teyssèdre (Senior Researcher at CNRS, Laboratory on Plasma and Energy Conversion –Laplace, Paul Sabatier University of Toulouse and CNRS) is developed in collaboration with Dr Thi Thu Nga Vu (Lecturer, Electric Power University, Hanoï Vietnam) and was awarded for the period 2018-2020.

    CONTEXT AND OBJECTIVES

    Energy transmission networks involving High Voltage Direct Current (HVDC) are currently being developed throughout the world notably for strengthening interconnection between existing networks and for connecting to distributed electrical energy sources issued notably from renewable energy (wind farms, solar power plants, etc.). Very often, part of these HVDC links are submarine or buried, requiring insulated cables. Polyethylene materials tend to be generalized for HV cable insulation due to processing ease. One of the key issues with these materials under DC stress is the prevention space charge accumulation, which represents an early failure mechanism for cables. Specifically, accessories like cable joints and terminations represent weak points in the cable, particularly as regards the hazardous field distribution resulting from the association of insulations of different nature. Indeed, the difficulty is raised by the resistive nature of the field distribution. The aim of this project is to provide modelling approaches of transient and steady state processes occurring in HVDC cable systems, with consideration of non-equilibrium thermal conditions on the cables.

    RESEARCH PROJECT

    The development of a reliable tool for anticipating stress endorsed by the system in service is a necessary step for the design of reliable energy links. A sensible point in these technologies when cables are involved is the joint between consecutive cable sections along with terminations of cables. A workshop has been organized (Sept. 2018) with broad audience at EPU in order to prospect for potential DC links in Vietnam and identify a relevant case study. The project aims at settling reliable model of the stress distribution in 200kV cable joints. The reliability of the model is based on 3 important aspects that are:

    – The relevance of data characterizing materials being used. This encompasses the temperature and field dependence of the conductivity along with the thermal properties of materials;

    – The form of the model, i.e. macroscopic electrical involving permittivity and resistivity vs. charge drift-diffusion model involving charge generation

    – The implementation of relevant modeling tools. A commercial software based on finite element method will be used. Steady state stress as well as transient conditions, both electrically and thermally are considered.

      institutions and laboratories involved

      France
      • Dr Gilbert Teyssèdre and Dr Séverine le Roy (Laboratoire Plasma et Conversion d’Energie – UMR 5213 CNRS-UPS-INP)

      Vietnam
      • Dr Thi Thu Nga Vu and Dr Tung Tran Anh (Electrical Power University Hanoï)

      Drawing of a joint between two sections of HVDC cables.

      Crédits:  Gilbert Teyssedre

      Temperature and field distributions after 3′ and 8h simulated in a cable joint while the cable is energized under a current of 1kA and a Voltage of 200kV. 

      Crédits: Thi Thu Nga Vu

      IRL CINTRA

      IRL CINTRA

      International Research Laboratory between France and Singapore in nanoelectronics and nanophotonics

      CNRS International NTU THALES Research Alliance

      IRL CINTRA

      Creation date: 2009
      Contact:
      Prof. Philippe COQUET
      cintra(at)ntu.edu.sg

      IRL CINTRA
      Website

      Introduction

      CINTRA UMI 3288 is a joint research laboratory between CNRS, NTU Singapore and Thales. Based on NTU campus CINTRA was established in 2009 and has just celebrated its 10th anniversary.

      CINTRA develops research activities on Nano-electronics and Nano-photonics technologies, with objective to harness the latest in science and technology to develop innovation in these fields. CINTRA is organized in 3 research thrusts:

      i) Carbon based materials and devices,

      ii) New nanomaterials and structures,

      iii) Nanophotonics Technologies.

      The applications are related to 3D integration, advanced interconnects, electromagnetic shielding, high frequencies applications, thermal management, sensors, energy harvesting and storage, optical communications and optoelectronic devices. 

      As of today, 64 people are affiliated to CINTRA, with a full time equivalent of 43. Through CINTRA, over 50 PhD students and more than 60 student internships have been trained.

      Since its creation CINTRA has produced over 740 publications (as at April 2020) and is the main contributor for the scientific publications between CNRS and Singapore.

      Over the years, CINTRA has developed a network of academic collaborations in France with CNRS/Universities laboratories, and has helped to promote exchanges between France and Singapore researchers: over 80 researchers or students from France and Europe have worked at CINTRA (20 PhD students and over 50 interns among the total PhD and interns trained).

      NanoPhotonics Technologies (NPT)

      IRP SynBioEco

      IRP SynBioEco

      French-Singaporean International Research Program on Synthetic Biology for a Bio-inspired Economy

      IRP SynBioEco
      2019-2022
      Contact:
      Project coordinator or director:
      Gilles Truan (TBI, CNRS)
      gilles.truan(at)insa-toulouse.fr

      Coordinator partner or co-director:
      Dr Matthew CHANG (SynCTI, NUS)

      Related projects:

      EcoCTs (Intra-CREATE)

      IRP SynBioEco Keywords

      Biotechnology – enzyme engineering – optogenetics – computational protein design – subpopulation heterogeneities – bioprocess optimization – Omics analysis

      IRP SynBioEco
      News

      Introduction

      The IRP SynBioEco (Synthetic Biology for a Bio-inspired Economy), managed by Gilles Truan (Toulouse Biotechnology Institute, CNRS) in collaboration with Dr Matthew Chang (Synthetic Biology for Clinical and Technological Innovation (SynCTI) National University of Singapore) started in 2019 and will be renewed in 2023.

      Missions and research themes

      The shift from a petrochemical-based synthesis economy to a sustainable bio-resourced, climate-friendly alternative is a key challenge for the future. Biotechnology offers a plausible means to transform renewable agro-resources to high value bioproducts, achieving a circular bio-economy for urban sustainability. Engineering biology offers a unique pipeline to provide industrial biotechnology a new generation of biocatalysts that will open the way towards an unprecedented era of bio-manufacturing of high value bioproducts. The IRP’s project aims at producing new frontline scientific knowledge at the best international level, in the field of systems and synthetic biology applied to a bio-inspired economy. The scientific objective is to address generic knowledge’s bottlenecks to overcome the main limitations in using biocatalysts for industrial production, based on fundamental understanding of living systems. This knowledge ultimately will aim at designing innovative efficient strategy to develop new biocatalysts or bio products, or at optimizing the process currently used to produce targeted molecules already existing, from renewable resources. The biocatalysts will be engineered and optimized with a systemic approach to develop new bioprocess and to optimize performances according to industrial criteria.

      MAIN projects of research

      • Territorial support IDEX, regional projects
      • National Projects (ANR, PHC, .): 2 Merlion PHC
      • European projects (H2020): …………………….

      Industrial partnerships: CARBIOS, SINGER INSTRUMENT, AGILENT

      Funded projects which have merged from the IRP : 

      – 2 PHC Merlion

      – 1 Intra-Create call cities – NRF

      – 1 PhD funding

      – Staff exchanges

      institutions and laboratories involved

      France:
      • Gilles Truan, TBI (Toulouse Biotechnology Institute) UMR CNRS 5504 – INRA 792 – INSA

      • TWB (Toulouse White Biotechnology) UMS CNRS 3582 – INRA 1337 – INSA

      Singapore:
      • Dr Matthew Chang, SynCTI (Synthetic Biology for Clinical and Technological Innovation), NUS

      • Biotransformation Innovation Platform (Biotrans), A*STAR