BECOME / CLEAN ENERGY

Clean energy and hydrogen in their operating context

Evaluate energy technologies through the application, resources and operating conditions they must serve.

Discuss an energy project

Clean energy projects bring together scientific performance, infrastructure, demand and practical delivery constraints. BECOME’s focus on clean energy and hydrogen creates a route for discussing these issues with researchers, industrial partners and programme stakeholders.

Understand the complete use case

Start with the energy need, the existing system and the outcome to be assessed. The relevant question may concern production, storage, conversion or the relationship between several components.

Research and development questions

  • How should a technology be tested against the requirements of its proposed application?
  • Which material or storage characteristics need further investigation?
  • What infrastructure, expertise and operating resources would a pilot require?
  • Which assumptions most affect technical and economic feasibility?

Move forward through defined milestones

A feasibility assessment can identify what is known, what remains uncertain and what evidence is needed next. Demonstrators and pilots should have an agreed test scope and appropriate specialist oversight.

Connect energy with related disciplines

Advanced materials can inform performance and durability questions. Data & AI can support analysis and monitoring. Water and circularity bring additional resource considerations into project design.

Bring a research question or industrial need

Tell us about the application, the maturity of the work and the contribution you are seeking. We can explore whether a research collaboration, a consortium or an applied programme is the appropriate next step.

People connected to this expertise

3 records

Mohamed Khayri Rahmani
Scientist

Mohamed Khayri Rahmani

PhD in Electrical Engineering

Mohamed Khayri Rahmani holds a PhD in Electrical Engineering and researches AI-driven energy efficiency and intelligent control.

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Related publications

19 records

Research article

2026-06-15 · Ionics

Dual‑functionalized sulfonated poly (arylene ether sulfone) membranes with sulfonamide crosslinks and octyl grafts for intermediate‑temperature proton exchange fuel cells

Qana A. Alsulami; Walid Mabrouk; Sherif M. A. S. Keshk

Fluorine‐free proton exchange membranes are increasingly required to replace perfluoro sulfonic acid (PFAS) materials in hydrogen fuel cells operating at low humidity and moderate temperatures. In this work, a one‐step grafting–crosslinking strategy was used to fabricate…

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Research article

2026-05 · Materials Science and Engineering: B

Interfacial modulation in OPVA–ZnO–GO nanocomposites for enhanced proton transport and emission control

Ridha Elleuch; Khaled Charradi; Abdullah Y.A. Alzahrani; et al.

Flexible electronic platforms require polymer nanocomposites that integrate high optical transparency, tunable photoluminescence (PL), and efficient proton transport. Conventional poly(vinyl alcohol) (PVA) systems often suffer from limited chain mobility and poor nanoparticle dispersion, leading to trade-offs…

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Research article

2026-02-02 · Materials for Renewable and Sustainable Energy

Fabrication of transparent, dopant-free OPVA–GO nanocomposites with tunable proton conductivity and optical transparency for photonic and energy applications

Qana A. Alsulami; Khaled Charradi; Fatmah M. Alshareef; et al.

Polyvinyl alcohol (PVA) is valued for its transparency and film-forming ability, but its limited chemical reactivity and weak nanofiller interactions restrict functional tunability. Partially oxidized PVA (OPVA), enriched with ketone and hydroxyl groups, provides a versatile…

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Research article

2026-01 · Journal of Alloys and Compounds

Interfacial energy transfer and charge separation in rGO/Y2O3/ZnO: Er,Yb plasmonic hybrid nanostructures for photovoltaic enhancement

Ridha Elleuch; Marwa ben Chobba; Jean-Luc Deschanvres; et al.

This study presents a multifunctional hybrid system constructed by interfacing thermally reduced graphene oxide (rGO) nanoflakes with rare-earth-doped Y2O3/ZnO: Er,Yb thin films designed to achieve near-field optical modulation and enhanced charge transport. Here, the rGO layers…

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Research article

2026-01 · Journal of Physics and Chemistry of Solids

Enhanced lithium-ion transport in oxidized polyvinyl alcohol/La0·56Li0·33TiO3 hybrid electrolytes for solid-state batteries

Amira Siai; Abdullah Y.A.AL. Zahrani; Radhouane Chtourou; et al.

This study explores the electrical and dielectric properties of hybrid solid electrolytes made from hydrothermally synthesized La0·56Li0·33TiO3 (LLTO) oxide and oxidized polyvinyl alcohol (OPVA). The influence of LLTO on ionic conductivity and dielectric behavior was assessed…

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Research article

2025-11-26 · Materials for Renewable and Sustainable Energy

Dual proton transport in Schiff base-modified chitosan functionalized with AMPS for fuel cell applications

Sonia Jebri; Walid Mabrouk; Ridha Elleuch; et al.

Proton exchange membranes (PEMs) require high proton conductivity, stability, and durability for fuel cell applications. This study reports the synthesis of N-(2-acrylamido-2-methylpropane sulfonyl) chitosan (CSB) via Schiff base functionalization with 2-acrylamido-2-methylpropane sulfonic acid (AMPS) and the…

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Research article

2025-11 · Materials Science and Engineering: B

In-situ synthesis of ZnO nanoparticles in oxidized polyvinyl alcohol nanocomposites for tunable optoelectronic and proton conductive performance

Ridha Elleuch; Maryam mallek; Khaled Charradi; et al.

This work presents the in-situ synthesis of zinc oxide (ZnO) nanoparticles in an oxidized polyvinyl alcohol (OPVA) matrix, which greatly enhances the final nanocomposites optical, mechanical, and proton conductive properties. Zinc acetate was used as a…

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Related projects

2 records

Horizon Europe Collaborative Proposal

BIO-MICRO-GRADE

BIO-MICRO-GRADE is a European collaborative research proposal focused on developing a new generation of sustainable, bio-derived materials for solid-state energy storage.

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Discuss an energy project