2D-Enhanced / Patras University
September 4, 2025 2025-09-11 7:342D-Enhanced / Patras University
2D-ENHANCED
2D–ENHANCED aims to push the boundaries of graphene applications in industrial plastics across various sectors, including the pipe industry, construction market, healthcare (for pathogen prevention), and electronics e.g. electromagnetic radiation shielding. The project seeks to transition these innovative materials into ready-for-market products, fostering a deeper connection between academia, industry, and the UAE’s economy.
Driven by a global collaboration between academic and industrial partners, including key players from the UAE, the project focuses on demonstrating the practical use of 2D materials, such as graphene, combined with modern production techniques like additive manufacturing. The goal is to reshape multiple industries by leveraging the unparalleled properties of 2D materials by develop high-tech prototypes and solutions that reach high technology readiness levels (TRL) and can have a significant market impact.
For more information on how this project brings together the advanced potential of nanomaterials, particularly graphene and its derivatives, with cutting-edge manufacturing technologies for the Industry 4.0 era visit the project website: 2D-ENHANCED
Outcome
Demonstrators arising from the project target commercial applications including:
1. Enhanced Plastics for the Pipe Industry: Developing graphene-filled PP and PE composites for advanced pipe fittings. These materials are compatible with additive manufacturing (AM) and ensure superior durability, fatigue resistance, and thermal performance while addressing challenges like gas permeation and degradation in hydrogen transport pipelines.
2. Smart Functional Windows: Introducing energy-efficient smart windows with lightweight 3D-printed graphene frames and built-in heat exchangers. These windows optimize thermal balance, reduce dependency on conventional climate control, and eliminate the need for shading devices, all while supporting sustainable building practices.
3. Antimicrobial Ventilator: Creating a next-generation ventilator with inherent antimicrobial properties using specially engineered 3D-printable materials. This innovation addresses air purification challenges and combats microbial growth, offering broader applications for everyday objects like handles, levers, and hand driers.
Consortium
The project is delivered by an international consortium involving academic teams in Greece, Singapore, Switzerland and the United Arab Emirates (UAE)working closely with Industrial partners in Greece, Poland and the UAE. Find out more about the consortium here:
University of Patras
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University of Patras
National University of Singapore
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National University of Singapore
EMPA
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EMPA
Khalifa University
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Khalifa University
Borouge
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Borouge
Adrine
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Adrine
BGTeC
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