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Anna-Marie Gorman
[ February 27, 2025 by vasoula2025 0 Comments ]

Anna-Marie GORMAN

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Anna has 13 years’ experience in developing inks, coatings and materials for additive manufacturing. Following a BSc from Newcastle University in Chemistry with Medicinal Chemistry, she completed a masters by research through interrogating the relationship between polymer formulation and process parameters for slot die coating.
During her time at CPI, she has led and contributed to many successful collaborative and commercial projects with industry and academia across a range of applications, including sustainable materials, electronic materials, bioprinting and materials for biomedical application.
Her formulation methodology for material design includes the use of statistical experimental design, a bottom-up approach to formulation, and a safety & sustainability driven approach to raw material selection.

Abstract

Gianmarco Griffini
[ February 27, 2025 by vasoula2025 0 Comments ]

Prof. Gianmarco GRIFFINI

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Gianmarco Griffini is an Associate Professor of Materials Science and Technology at the Department of Chemistry, Materials and Chemical Engineering “Giulio Natta” of Politecnico di Milano (Italy). He received his MSc degree in Chemical Engineering from Politecnico di Milano in 2005 and his PhD degree in Materials Engineering from the same institution in 2012, after spending a few years in the private sector working as process engineer. He has held visiting positions at University College London (UK), at University of California at Berkeley (USA), and at University of Castilla-La Mancha (Spain). His research interests are mainly focused on the design, synthesis and characterisation of polymer-based materials and on the study of their structure-property relationships. Areas of major effort include: bio-derived and biodegradable polymers and composites for sustainable manufacturing; materials and devices for solar energy harvesting, management and conversion, and for energy storage; stimuli-responsive polymeric materials for smart, advanced manufacturing. In these areas, he is/has been involved as scientific coordinator in several regional, national and European funded projects, and as responsible for different research contracts with the private sector. He currently serves as editorial board member of the journal Aggregate (Wiley).

Abstract

In the plethora of solar energy technologies, luminescent solar concentrators (LSCs) represent a particularly interesting concept for sunlight harvesting, management and conversion, with great potential to enable the penetration of photovoltaic systems in the built environment as well as in some niche market segments where lightness, shape versatility and color tunability may represent important assets. In such devices, incident photons are absorbed and re-emitted by luminophore species embedded in a waveguide, and transported by total internal reflection towards solar cells for the light-to-electricity conversion. Together with device efficiency, the operational durability of LSCs in outdoor conditions and their ability to retain functionality upon prolonged use are key aspects to be considered for their widespread adoption. Notably, harsh weather phenomena and mechanical damages are only few of the many external factors that can negatively affect device functioning in real-life operation, widening the gap for their eventual commercialisation. In this context, the large compositional flexibility of polymeric materials as well as their proven easy processability may be of great help in imparting improved durability and in extending the life cycle of LSCs. In particular, multifunctional polymeric systems providing tunable response as a result of tailored chemical functionalisation and modification constitute a particularly interesting platform for securing enhanced and sustained device performance in different operating conditions. In this contribution, we will present some recent strategies to obtain multifunctional polymers for application in LSC devices with high performance and prolonged durability, focusing on materials exhibiting self-healing response, (super)hydrophobic/oleophobic characteristics and antifogging/frost-resisting behavior. We will show how these approaches can be implemented to adequately suppress the effects of detrimental external agents and preserve the performance of LSC devices in conditions mimicking real-life operation. By introducing their use as light harvesting, management and conversion systems for LSCs, we will discuss our view on the essential role played by these advanced multifunctional polymers in increasing the sustainability of energy conversion technologies through extended device life cycle.

Pleros
[ February 12, 2025 by admin 0 Comments ]

Prof. Nikos PLEROS

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Dr. Nikos Pleros is a Full Professor at the Department of Informatics, Aristotle University of Thessaloniki, Greece, and Head of the Wireless and Photonics Systems and Networks (Win.Phos) research laboratory (http://winphos.web.auth.gr/ ) at the Center for Interdisciplinary Research and Innovation at the same University. His research interests extend along a broad range of photonic technologies and their use for communications, computing and sensing, including linear optics, photonic neural networks, optical RAMs, optical interconnects, silicon photonics and photonic integrated circuit technologies, optical switching and fiber-wireless networks. He has more than 450 archival journal publications and conference presentations including several invited contributions, while his work has been cited >7.500 times with an h-index of 42 (GS). He holds 7 US and 3 National Patents in the fields of photonic biosensing and neuromorphic photonics, having co-invented a series of new architectures for matrix-vector and matrix-matrix multiplication circuits using integrated photonics. He has held positions of responsibility at several major conference committees including ECOC, OFC and SPIE Photonics West and has coordinated several FP7 and Horizon European projects, having raised in total a research funding of >15M Euro since 2010. He has received the 2003 IEEE Photonics Society Graduate Student Fellowship, the 15th prize in the Greek Mathematics Olympiad in 1993, the 2018 AUTH Excellence Award for his research project funding ID, the 2021 Greek Innovator Award and the 2021 AUTH Excellence Award for Innovation and Research. Dr. Pleros is also a Scientific Advisor at the US start-up company Celestial AI.

Abstract

We will present our recent work on the deployment and performance evaluation of ultra-compact, real-time, label-free and multi-channel biochemical sensors utilizing a novel plasmo-photonic technology platform where light is completely exposed to the overlying biochemical analyte. We will discuss the underlying theory and present recent experimental results of CMOS plasmo-photonic sensors with ultra-high sensitivity values for applications in the biomedical and environmental sectors. .

Panagiotou
[ February 11, 2025 by admin 0 Comments ]

Dr. Panteleimon PANAGIOTOU

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Dr. Panagiotou studied Chemistry at the University of Bayreuth and as research fellow at CNRS in Lyon completing his studies with a diploma thesis in physical chemistry at University of Bayreuth.

He completed his doctoral degree at Technische Universität München as research fellow at DESY in Hamburg, at ESRF & at ILL in Grenoble on scanning force microscopy, neutron & synchrotron scattering.

Since 2007, Dr. Panagiotou is the Head of Unit of ICT | Engineering & Natural Sciences at the Bavarian state-funded support agency “Bavarian Research Alliance” (BayFOR) for supporting Bavarian stakeholders and their international consortium partners in obtaining information and advice in applying for EU funding to help shape the European Research Area.

Abstract

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[ February 10, 2025 by vasoula2025 0 Comments ]

Dr. Zachary J. DAVIS

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As a Lead Researcher at DTI’s printed electronics group, Zachary leverages his robust background in applied physics and electrical engineering to bring a distinctive combination of theoretical knowledge and hands-on expertise to the field. His interdisciplinary experience proves invaluable in bridging the critical gap between materials science and electronic systems—a crucial intersection for advancing technology innovation.

Under his leadership, the DTI printed electronics group pursues cutting-edge research initiatives encompassing sustainable materials, smart textiles, and advanced manufacturing processes. The group’s comprehensive expertise spans multiple domains, including the development of environmentally conscious ink formulations, optimisation of screen-printing processes for scale-up operations, and the creation of sophisticated embedded sensor systems. Their work extends to seamlessly integrating electronic components within textiles and optimising power management systems for smart garments.

Zachary’s methodical approach to documentation and quality control ensures that innovative designs successfully transition from laboratory concepts to mass-producible products. His strategic oversight of flexible electronics development has established new benchmarks in sustainable electronic manufacturing. By combining his technical acumen with strong leadership skills, he continues to drive transformative projects that advance the convergence of sustainable electronics and textile engineering, pushing the boundaries of what’s possible in smart fabric technology.

Abstract

The exponential growth in electronic device consumption has led to an unprecedented surge in electronic waste (e-waste), creating one of the fastest-growing waste streams globally. In 2022, the world generated a staggering 62 million tonnes of e-waste, marking an 82% increase since 2010 [UNITAR]. Even more concerning is that only 22.3% of this waste was documented as properly collected and recycled [WHO], highlighting a critical gap in our current waste management practices.

The situation is expected to worsen, with projections indicating e-waste generation will reach 82 million tonnes by 2030 [Earth.org]. This trajectory not only poses significant environmental risks but also represents a substantial loss of valuable resources. The inadequate recycling of electronic components results in the annual waste of approximately US $91 billion worth of valuable metals [UNITAR].

In response to these challenges, there is an urgent need for innovative approaches that can transform the electronics industry towards more sustainable and circular practices. This is particularly crucial in the field of printed electronics, which represents a growing sector with significant potential for implementing circular economy principles from the design phase.

Danish Technological Institute (DTI) is coordinating the Horizon Europe project Sustain-a-Print, which focuses on developing sustainable and circular materials and processes for printed electronics. This initiative directly addresses the critical challenges of electronic waste management and resource conservation in the electronics industry.

The project encompasses several key innovations aimed at reducing environmental impact and improving resource efficiency:

  1. Development of novel screen printable copper inks, offering a more sustainable alternative to traditional materials
  2. Print process optimisation techniques focused on reducing energy & material consumption
  3. Implementation of de-bondable and re-usable electrical components
  4. Development of efficient recycling processes for high value materials

Through these innovations, Sustain-a-Print aims to demonstrate that circular economy principles can be successfully integrated into printed electronics manufacturing, potentially setting new standards for sustainability in the industry. The presentation will provide detailed insights into these developments and their potential impact on reducing electronic waste while conserving valuable resources.

This work represents a significant step toward addressing the growing e-waste crisis while promoting more sustainable practices in electronics manufacturing. By focusing on both material innovation and process optimisation, the project demonstrates how technological advancement can be aligned with environmental stewardship.

Hadziioannou
[ February 9, 2025 by admin 0 Comments ]

Prof. Georges HADZIIOANNOU

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Georges Hadziioannou since 2022 is Emeritus Professor of Bordeaux University (Fr). In 1975 he obtained his bachelor’s degree in chemistry from the Aristotle University of Thessaloniki. He obtained his doctorate in Physical Sciences at the Louis Pasteur University of Strasbourg in 1980. Between 1980 and 1982, he was an associate researcher at the Polymer Science and Engineering Department of the University of Massachusetts. In 1982, he became a member of the research staff at the IBM Almaden San Jose California Research Laboratory, where he led the “Surface and Interface Dynamics” group from 1986 to 1989. Between 1985 and 1989, he was concurrently Industrial Research Fellow of the National Institute for Science and Technology (NIST), Washington DC, and consulting professor in the Department of Chemical Engineering, Stanford University, Palo Alto, California. In 1989, he became a professor at the University of Groningen (Netherlands), where he directed the Center for Materials Sciences (now Zernike Institute for Advanced Materials) from 1997 to 2000. In 2001, he joined the University Louis-Pasteur of Strasbourg where he was the director of the European School of Chemistry, Polymers and Materials (ECPM) between 2004 and 2009. From 2009 until 2022 Georges Hadziioannou was Professor at the University of Bordeaux at the Chair of “Advanced Functional Materials for Emerging Information, Communication and Energy Technologies”. He led the “Polymer Electronic Materials & Devices” group at the LCPO. Since February 2022 he is President of the Scientific Expertise Coordination Committee (CCES) of the Nouvelle Aquitaine Region.

He pioneered work on nanostructured polymer materials with innovations in flexible and printable organic electronic materials. He has published more than 450 articles (H =71, cited 17,006) and holds 45 patents. He has supervised 65 doctorates and welcomed more than 75 post-docs and visiting professors into his research group. He was co-founder of 2 startups: “Polymer Service Center”, for the scientific advice of small and medium-sized businesses, today POLYVATION, and “Papyron”, for the development of innovative technologies for electronic paper.

His scientific and technical work has been recognised by the following prizes and distinctions. In 2024 was elected member of the European Academy of Science (EurASc). In 2019 he became Doctor Honoris Causa, Aristotle University of Thessaloniki, Department of Physics. In 2016, he was elected an International Member of the United States National Academy of Engineering “For fundamental discoveries and ideas enabling the development of polymers with advanced functionality and performance.” He obtained a civil recognition in 2015 as “Chevalier dans l’Ordre des Palmes Académiques” and in 2021 as “Officier dans l’Ordre des Palmes Académiques”. In 2010 he was elected a member of the Academia Europaea. In 2007, he received the Süe Prize from the Société Française de Chimie. In 1998, he received the Humboldt Research Prize. In 1993 he was elected a Fellow of the American Physical Society (USA).

Abstract

A brief presentation will be given on the evolution over the last hundred years of two major parallel developments, namely communication and information science and technology as well as polymer science and engineering, on the shoulders of which the emerging “polymer printed flexible electronics” science and technology rest.
Polymer printed flexible electronics is an emerging, highly interdisciplinary and disruptive technology. It concerns the deposition of formulated functional polymer inks, (electroactive dielectrics, semiconductors, conductors and insulators), on flexible substrates to form electronic components and their integrated systems. Already, polymer electronics systems complement classical electronic systems, since, due to their “soft nature”, there are able to retain excellent performances under various kinds of mechanical deformations, thus exhibiting potential in achieving flexible, stretchable, deformable, portable, lightweight, and wearable electronic devices such as organic light-emitting diodes, organic photovoltaics, organic field-effect transistors, bioelectronics, sensors, energy storage and conversion devices.
Further, some milestones will be presented of the above emerging science and technology, enabling to meet important challenges for our society in the energy, environment, security, or health sectors and Internet of Thinks (IoT). This adventure is only just beginning of a future sustainable technology…