We are delighted to announce that all 2D-PRINTABLE deliverables have now been successfully completed. These final results demonstrate significant progress in the development of printable electronics based on two-dimensional materials (2DMs), covering computational materials discovery, materials design, heterostructure development, characterization, device fabrication, exploitation, and data management. Below is a summary of the project’s latest deliverables.
D1.6 – Other properties of monolayers and multilayers (led by EPFL)
This deliverable expanded the project’s computational screening of 2D materials by evaluating their stability, optical properties, and electronic behaviour. From an initial database of 2,702 monolayers, researchers identified 54 promising dynamically stable materials with direct or quasi-direct band gaps and strong optoelectronic potential. The results provide a valuable shortlist of candidate materials for future exfoliation, spectroscopy, and device development activities.
D2.4 – Second Generation of Discrete Assemblies of 2DMs (led by UNISTRA)
This deliverable developed a new molecular assembly strategy for solution-processed 2D materials. Using benzene-1,4-dithiol (BDT) linkers, researchers created controlled connections between MoS₂ and WSe₂ nanosheets, improving network interconnectivity and charge transport. The work also demonstrated light-responsive electrical behaviour, opening opportunities for advanced functional heterostructures.
D3.5 – Second generation of printed network heterostructures (led by TCD)
This deliverable focused on the development of chemically cross-linked printed network heterostructures. MoS₂ and graphene nanosheets were connected using molecular linkers to form hybrid structures designed to improve charge transport across nanosheet junctions. Advanced spectroscopic studies confirmed successful covalent coupling and increased carrier density, providing important insights into the design and optimization of future printed heterostructure architectures.
D4.4 – Characterisation of Networks and Heterostructures (led by TCD)
A comprehensive characterization framework was established to evaluate 2D nanosheets, networks, and heterostructures. Advanced spectroscopy, microscopy, nanotomography, and impedance analysis enabled detailed assessment of nanosheet quality, orientation, porosity, uniformity, and interface integrity. The work provides a powerful toolkit for linking material structure to device performance.
D5.3 – Electrical Characterisation of Films and Vertical Heterostructures (led by UniBW M)
This deliverable explored the electrical properties of printed 2D material films and hybrid heterostructures. The results showed how deposition methods influence network quality and charge transport, while hybrid COF-Azo/MoS₂ structures demonstrated reversible light-controlled electrical behaviour. These findings highlight the potential of molecularly engineered heterostructures for future printed electronics.
D6.4 – Nanosheet-Based Memory Devices (led by UNISTRA)
Researchers successfully demonstrated high-performance ferroelectric memory devices using hybrid dielectric layers composed of CIPS ferroelectric nanosheets and P(VDF-TrFE) polymer. The devices achieved stable non-volatile switching, long retention times, and excellent endurance, demonstrating the potential of hybrid 2D ferroelectric systems for low-power memory applications.
D7.4 – Final Exploitation Plan (led by UNR)
The Final Exploitation Plan outlines the strategy for maximizing the impact of the project’s Key Exploitable Results (KERs). The report defines ownership and IP arrangements, identifies target markets and end users, and presents commercialization pathways and exploitation roadmaps to support future industrial adoption of 2D-PRINTABLE innovations.
D8.5 – Final Data Management Plan (led by TCD)
This deliverable establishes the long-term approach for preserving, maintaining, and managing project data after completion. Building on the project’s FAIR data commitments, it ensures that research outputs, records, and dissemination materials remain accessible, sustainable, and appropriately archived.
The successful completion of all deliverables marks a major milestone for the 2D-PRINTABLE consortium. Together, these achievements provide a strong foundation for future research, innovation, and commercialization of printable 2D material technologies. We invite you to explore our deliverables and discover more about the project’s results on our website here.
