The development of high-efficiency, stable perovskite solar cells (PSCs) depends on a comprehensive understanding of molecular interfaces, which are crucial in influencing charge transport, passivation, and overall stability. This symposium invites contributions on recent advances in interfacial engineering for PSCs, examining how optimized interfaces can enhance charge transport properties, suppress recombination, and improve device stability under operational conditions. Topics will cover novel approaches to interface passivation, the design of selective charge transport layers, and strategies for mitigating ionic migration—all with an emphasis on stability.
The role of surface treatments, grain boundary engineering, and advanced molecular passivation in preserving perovskite integrity will be highlighted. Advanced characterization techniques that provide insights into interface dynamics will be included. This symposium, planned to be two days, aims to bring together leaders from materials science, chemistry, and photovoltaic research to foster discussions on overcoming interfacial limitations in PSCs. By advancing our understanding of interface design and characterization, this event seeks to address both performance and stability, setting the foundation for the commercialization of reliable, high-performance perovskite solar technologies.
- Emerging photovoltaics
- Perovskite solar cells
- Charge transport layers
- Device performance
- Stability


Jan Anton Koster received his PhD in Physics from the University of Groningen in 2007. After his PhD, he worked as a postdoc at the universities of Cambridge and Eindhoven. Having obtained a VENI grant for organic solar cell modelling, he moved back to Groningen to continue his work on organic semiconductors. In 2013 he became a tenure-track assistant professor and was promoted to associate professor (with ius promovendi) at the University of Groningen in 2017. Currently, his main research interests include hybrid perovskite solar cells, organic solar cells and organic thermoelectrics.


Philip Schulz holds a position as Research Director for Physical Chemistry and New Concepts for Photovoltaics at CNRS. In this capacity he leads the “Interfaces and Hybrid Materials for Photovoltaics” group at IPVF via the “Make Our Planet Great Again” program, which was initiated by the French President Emmanuel Macron. Before that, Philip Schulz has been a postdoctoral researcher at NREL from 2014 to 2017, and in the Department of Electrical Engineering of Princeton University from 2012 to 2014. He received his Ph.D. in physics from RWTH Aachen University in Germany in 2012.


Stefan Weber (born 1981) studied Physics at the University of Konstanz. Already as an undergrad student he started to work with an SFM in the group of Prof. Leiderer. For his diploma thesis under the supervision of Prof. Dr. Johannes Boneberg he studied the interaction of gold nanoparticles with pulsed laser light. In 2007, he joined the group of Prof. Butt at the Max Planck Institute for Polymer Reaearch (MPI-P), Mainz. During his PhD, he spent six months at Seoul National University, Korea, in the groups of Prof. K. Char and Prof. C. Lee. In 2010 he received a joint doctoral degree from Mainz University and SNU. In 2011 he went to University College Dublin as a Feodor Lynen Fellow (Alexander von Humboldt Foundation) to join Prof. Brian Rodriguez and Prof. Suzi Jarvis. In 2012 he became a group leader in the Physics of Interfaces group in the department of Prof. Hans-Jürgen Butt at the Max Planck Institute for Polymer Research (MPI-P), Mainz. From 2015 to 2023 he held a junior professor postition in the Physics department of Mainz University. Sind June 2023, he is a permament group leader at the Institute for Photovoltaics at University Stuttgart, where he heads the Nanoscale Microscopy and Characterization group. In 2024, he won an ERC Consolidator grant for the development of a Photovoltaic Microscope that combines nanoscale electrical imaging with high-resolution optical microscopy and ultrafast spectroscopy
The broad materials library of halide perovskites and their versatility have made this class of semiconductors exciting for a wide range of optoelectronic applications. Much of this success is based on the unique tunability of composition, dimensionality, optical and electronic properties as well as their defect tolerance. A better understanding of their properties and synthesis mechanisms is, however, needed for further progress and development. Here, advanced characterization methods and the ever-evolving theoretical framework help to observe and better understand these properties, which need to be addressed over several length and time scales.
This symposium aims to bring the community together to present these recent advances in our fundamental understanding of halide perovskites and discuss how theory as well as spectroscopy and microscopy tools can be applied to increase our knowledge base. We will explore new materials chemistries, optical and electronic behavior, the role of dimensionality, crystallization mechanisms in solution- and vapor-processing and defect dynamics. We invite contributions from a diverse set of speakers from a variety of scientific backgrounds to emphasize the interdisciplinary nature of the field that has been foundational to its success.
- Physics and fundamental aspects of 3D and 2D perovskites
- Novel and emerging synthesis methods
- Advanced characterization techniques
- Defect physics and effect of interfaces
- Interface characterization
Selina Olthof studied physics at the University of Stuttgart (Germany) and completed her master's thesis at the Max Planck Institute for Solid State Research. In 2010, she earned her Ph.D. from the University of Dresden under Karl Leo, followed by a two-year postdoctoral stay at Princeton University with Antoine Kahn. From 2012 to 2024, she led the Surface Science Research Group in the Department of Chemistry at the University of Cologne. Recently, she was appointed Full Professor at the University of Wuppertal, where she established the Chair of Material and Surface Analysis. Her research focuses on advancing the understanding of the electronic structure of novel semiconducting materials, particularly organic semiconductors and hybrid perovskites.
Hendrik (Henk) Bolink obtained his PhD in Materials Science at the University of Groningen in 1997 under the supervision of Prof. Hadziioannou. After that he worked at DSM as a materials scientist and project manager in the central research and new business development department, respectively. In 2001 he joined Philips, to lead the materials development activity of Philips´s PolyLED project.
Since 2003 he is at the Instituto de Ciencia Molecular (ICMol )of the University of Valencia where he initiated a research line on molecular opto-eletronic devices. His current research interests encompass: inorganic/organic hybrid materials such as transition metal complexes and perovskites and their integration in LEDs and solar cells.


Maksym Kovalenko has been a tenure-track Assistant Professor of Inorganic Chemistry at ETH Zurich since July 2011 and Associate professor from January 2017. His group is also partially hosted by EMPA (Swiss Federal Laboratories for Materials Science and Technology) to support his highly interdisciplinary research program. He completed graduate studies at Johannes Kepler University Linz (Austria, 2004-2007, with Prof. Wolfgang Heiss), followed by postdoctoral training at the University of Chicago (USA, 2008-2011, with Prof. Dmitri Talapin). His present scientific focus is on the development of new synthesis methods for inorganic nanomaterials, their surface chemistry engineering, and assembly into macroscopically large solids. His ultimate, practical goal is to provide novel inorganic materials for optoelectronics, rechargeable Li-ion batteries, post-Li-battery materials, and catalysis. He is the recipient of an ERC Consolidator Grant 2018, ERC Starting Grant 2012, Ruzicka Preis 2013 and Werner Prize 2016. He is also a Highly Cited Researcher 2018 (by Clarivate Analytics).
Paulina Plochocka, Directrice de recherché de 2e classe (DR2) in Laboratoire National des Champs Magnétiques Intenses (LNCMI), CNRS in Toulouse.
P. Plochocka obtained her PhD cum-laude in 2004 at the University of Warsaw working on the dynamics of many-body interactions between carriers in doped semi-magnetic quantum wells (QW). During her first post doc at Weizmann Institute of science, she started working on the electronic properties of a high mobility 2D electron gas in the fractional and integer quantum Hall Effect regime. She continued this topic during second post doc in LNCMI Grenoble, where she was holding individual Marie Curie scholarship. At the same time, she enlarged her interest of 2D materials towards graphene and other layered materials as TMDCs or black phosphorus. In 2012 she obtained permanent position in LNCMI Toulouse, where she created the Quantum Electronics group, which investigates the electronic and optical properties of emerging materials under extreme conditions of high magnetic field and low temperatures. Examples include semiconducting layer materials such as transition metal dichalcogenides, GaAs/AlAs core shell nanowires and organic inorganic hybrid perovskites.
Shuxia Tao is a compuational materials scientist and she studies how photons, electrons and ions interact with each other and how such interactions determine the formation, function and degradation of materials. Currently, she leads the Computational Materials Physics group at the department of Applied Physics, Eindhoven University of Technology, the Netherlands.
Tao's group focuses on multiscale modelling of energy and optoelectronic materials, studying the growth of nanomaterials and developing theory of light-matter interactions. The ultimate goal is perfecting the quality of these materials and maximizing their efficiency for converting and storing energy and information. Her recent contribution to PV materials focuses on halide perovskites, where she made important contribution in the understanding of the electronic structure, the defect chemistry/physics and the nucleation and growth of halide perovskites. Recently, she also expanded the research to the interactions of perovskites with other contact materials in devices and novel optoelectronic properties, such as optical chirality and chiral induced spin selevetivity.
With the rapid progress in perovskite solar cells, research on perovskite optoelectronic devices, including light-emitting diodes, photodetectors, and lasers, has also seen remarkable growth. This surge is primarily driven by the easy tunability of optical bandgaps in halide perovskite materials. These materials offer a broad color spectrum from ultraviolet to near-infrared, coupled with high luminescence yields and exceptional color purity. The development of innovative chemical routes for synthesizing perovskite layers has led to a solid foundation for producing optoelectronic devices. While spin coating remains the go-to method for achieving high performance in laboratory, industrial applications demand scalable techniques that enable mass production, large-area deposition, and spatial resolution. Recent European projects proposed printing technologies as a more sustainable approach to fabricating perovskite devices.
Therefore, this symposium serves as a platform to bring together the scientific community and industry stakeholders to evaluate the potential of various printed electronics techniques—such as inkjet , screen printing, slot-die , blade-coating and gravure —for advancing perovskite optoelectronic and electronic devices. A special focus will be given to environmentally friendly approaches, alongside emerging studies that integrate machine learning to optimize printing processes. By fostering collaboration and knowledge exchange, PeroPRINT aims to catalyze innovation in the sustainable development of high-performance perovskite-based devices.
- Development of sustainable inks, solutions, or slurries.
- Comparison of solution-processed quantum dots and precursor approaches.
- Innovation in electrodes and charge transport layers.
- Fully printed optoelectronic and electronic device architectures.
- Comparative analysis of advanced deposition technologies.
- Machine learning and AI-driven enhancements in printing technologies.
- Flexible, wearable, and skin-integrated electronics.
- Novel techniques in printed electronics, including electrohydrodynamic inkjet, tapping-mode inkjet, laser-induced forward transfer, and more.
Aldo Di Carlo is Director of the Institute of Structure of Matter of the National Research Council and Full Professor of Optoelectronics and Nanoelectronics at the Department of Electronics Engineering of the University of ROme "Tor Vergata". His research focuses on the study and fabrication of electronic and optoelectronic devices, their analysis and their optimization. Di Carlo founded the Center for Hybrid and Organic Solar Cells (CHOSE) which nowadays involve more than40 researchers dealing with the development of III generation solar cells (DSC, OPV and Perovskite) and on scaling-up of these technologies for industrial applications. CHOSE has generated 6 spin-off companies and a public/private partnership. Di Carlo is author/coauthor of more than 500 scientific publications in international journals, 13 patents and has been involved in several EU projects (three as EU coordinator)
Emil List-Kratochvil graduated from the Napier University Edinburgh with a first class BSc (Hons) in Applied Physics in 1996, followed by a first class Master Degree in 1998 and a first class degree of a Doctor Technicae in 2000, both from Graz University of Technology (TU Graz).
He received his Habilitation (Venia Docendi) in Solid State Physics in 2003 at TU Graz. At that time, he was a Christian-Doppler-Society funded Research Associate (2000-2007), directing a laboratory for “Advanced Functional Materials” focusing on an applied research agenda in collaboration with Industry. In 2004 he was appointed Associate Professor in Solid State Physics at TU Graz. In 2004 Professor List-Kratochvil was awarded the Fritz Kohlrauschpreis (ÖPG) and the Basic Research Nanotechnology Award (Province of Styria).
In 2006 he got the offer to found the NanoTecCenter Weiz Forschungsgesellschaft mbH, which he directed as Scientific Managing Director until 2015, in parallel to his appointment at TU Graz.
In 2015 he joined Humboldt-Universität zu Berlin as full professor (W3) at the Departments of Physics and Chemistry as well as a member of the Integrative Research Institute for the Sciences (IRIS Adlershof).
In August 2018 he also accepted the offer of Helmholtz-Zentrum Berlin to found and lead a Joint Laboratory as well as Joint Helmholtz Research Group on “Generative Manufacturing Processes for Hybrid Devices”.
Ji-Youn Seo is an Associate Professor in the Department of Nanoenergy Engineering at Pusan National University, Korea. She earned her BSc and MSc degrees from Ajou University in 2009 and 2011, respectively, and her PhD in Materials Science from École Polytechnique Fédérale de Lausanne (EPFL), Switzerland, under the mentorship of Professor Michael Grätzel. Her doctoral research focused on advancing dye-sensitized solar cells, contributing to innovations in renewable energy technologies. Following her academic training, Dr. Seo gained valuable industry experience at Hyundai Motor Company (HMC) in Korea, where she worked on bio-plastics and fuel cell technologies, and at H.GLASS in Switzerland, where she contributed to the development of organic photovoltaics (OPV) and dye-sensitized solar cells. Currently, Dr. Seo’s research centers on high-efficiency and stable perovskite solar cells, with a particular focus on large-area module fabrication. She is also actively involved in education, serving as the Associate director of Korea’s innovative open shared university and early-employment contract graduate school programs in the field of energy and semiconductor industries, fostering international collaboration and mentoring the next generation of scientists and engineers.
Senol Öz obtained his diploma in chemistry in 2013 at the University of Cologne
(Germany). Completing his PhD under supervision of Prof. Sanjay Mathur in 2018 at
University of Cologne (Merck KGaA PhD scholarship). In 2019 he joined Prof.
Tsutomu Miyasaka`s group as a post-doctoral fellow at Toin University of Yokohama
under a JSPS scholarship. His research interests include the synthesis, chemical
engineering, and solution processing of inorganic-organic hybrid metal halide
perovskite materials for photovoltaic application. He is currently a senior R&D project
leader at Saule Technologies and managing director of Solaveni GmbH.
Over the last decade, metal halide perovskite materials have ushered in a new era for next-generation optoelectronic devices, including solar cells, light emitting diodes and X-ray detectors. These developments have been attributed to the unusual physics and chemistry in these materials, which are still being actively investigated. This symposium will bring together the community to discuss latest efforts in obtaining deeper understanding of material properties through advanced characterization and theoretical modelling in a range of halide perovskite compositions and perovskite-inspired materials (including nanocrystals and single crystals), which also holds the key to further advancements in the performance and stability of the resulting devices.
When integrated in a multilayer device stack, the presence of interfaces may alter the expected dynamics of relevant processes and therefore, efforts dedicated to the improved understanding of the interface effects and ways to minimize interface-induced losses in the device performance will also constitute another key focus area of this symposium. In addition, we invite submissions on emerging applications exploiting the fascinating fundamental properties of halide perovskites, such as (light emitting) field effect transistors, thermoelectrics, memristors and neuromorphics, optically and electrically pumped lasing, single photon emission, polarized light emission, spintronics, ferroelectricity and piezoelectricity, among others.
- Structural characterization
- Optoelectronic characterization
- Chemical characterization
- Electrical characterization
- Ion migration
- Defect chemistry
- Lower dimensional perovskites and perovskite-inspired materials
- In-situ and in-operando measurements
- Emerging applications
- Theoretical modeling and device simulation
Iván Mora-Seró (1974, M. Sc. Physics 1997, Ph. D. Physics 2004) is researcher at Universitat Jaume I de Castelló (Spain). His research during the Ph.D. at Universitat de València (Spain) was centered in the crystal growth of semiconductors II-VI with narrow gap. On February 2002 he joined the University Jaume I. From this date until nowadays his research work has been developed in: electronic transport in nanostructured devices, photovoltaics, photocatalysis, making both experimental and theoretical work. Currently he is associate professor at University Jaume I and he is Principal Researcher (Research Division F4) of the Institute of Advanced Materials (INAM). Recent research activity was focused on new concepts for photovoltaic conversion and light emission based on nanoscaled devices and semiconductor materials following two mean lines: quantum dot solar cells with especial attention to sensitized devices and lead halide perovskite solar cells and LEDs, been this last line probably the current hottest topic in the development of new solar cells.
Since 2019, Yana Vaynzof holds the Chair for Emerging Electronic Technologies at the Technical University of Dresden. Prior to that (2014-2019), she was a juniorprofessor in the Department of Physics and Astronomy, Heidelberg University (Germany). She received a B.Sc degree (summa cum laude) in electrical engineering from the Technion - Israel Institute of Technology (Israel) in 2006, and a M.Sc. degree in electrical engineering from Princeton University, (USA) in 2008. She pursued a Ph.D. degree in physics under the supervision of Prof. Sir. Richard Friend at the Optoelectronics Group, Cavendish Laboratory, University of Cambridge (UK), and investigated the development of hybrid polymer solar cells and the improvement of their efficiency and stability. Upon completing her PhD in 2011, she joined the Microelectronics group at the University of Cambridge as a Postdoctoral Research Associate focusing on the research of surfaces and interfaces in organic and hybrid optoelectronics. Yana Vaynzof was the recipient of a number of fellowships and awards, including the ERC Starting Grant, Gordon Y. Wu Fellowship, Henry Kressel Fellowship, Fulbright-Cottrell Award and the Walter Kalkhof-Rose Memorial Prize.
Jacky Even was born in Rennes, France, in 1964. He received the Ph.D. degree from the University of Paris VI, Paris, France, in 1992. He was a Research and Teaching Assistant with the University of Rennes I, Rennes, from 1992 to 1999. He has been a Full Professor of optoelectronics with the Institut National des Sciences Appliquées, Rennes,since 1999. He was the head of the Materials and Nanotechnology from 2006 to 2009, and Director of Education of Insa Rennes from 2010 to 2012. He created the FOTON Laboratory Simulation Group in 1999. His main field of activity is the theoretical study of the electronic, optical, and nonlinear properties of semiconductor QW and QD structures, hybrid perovskite materials, and the simulation of optoelectronic and photovoltaic devices. He is a senior member of Institut Universitaire de France (IUF).
He studied electrical engineering in Stuttgart and started working on Si solar cells in 2004 under the guidance of Uwe Rau at the Institute for Physical Electronics (ipe) in Stuttgart. After finishing his undergraduate studies in 2006, he continued working with Uwe Rau first in Stuttgart and later in Juelich on simulations and electroluminescence spectroscopy of solar cells. After finishing his PhD in 2009 and 1.5 years of postdoc work in Juelich, Thomas Kirchartz started a three year fellowship at Imperial College London working on recombination mechanisms in organic solar cells with Jenny Nelson. In 2013, he returned to Germany and accepted a position as head of a new activity on hybrid and organic solar cells in Juelich and simultaneously as Professor for Photovoltaics with Nanostructured Materials in the department of Electrical Engineering and Information Technology at the University Duisburg-Essen. Kirchartz has published >100 isi-listed papers, has co-edited one book on characterization of thin-film solar cells whose second edition was published in 2016 and currently has an h-index of 38.
Hernán Míguez (born in Buenos Aires, Argentina, 1971) is Research Professor of the Spanish Research Council (CSIC) in the Institute of Materials Science of Seville. He studied Physics in the Universidad Autónoma de Madrid and did his PhD in the Institute of Materials Science of Madrid. After a postdoctoral stay at the University of Toronto in the group of Prof. Ozin, he returned to Spain and joined the CSIC in 2004. He leads the group of Multifunctional Optical Materials, whose activities are devoted to the development, characterization and modeling of new photonic architectures for applications in different fields, among them solar energy conversion and light emission. He has received an ERC starting grant (2012, Consolidator Modality) and the “Real Sociedad Española de Física-Fundación BBVA 2017” Prize in the modality of “Physics, Innovation and Technology”.
This symposium explores cutting-edge advancements in vacuum deposition techniques for the fabrication of halide perovskite-based materials and devices. It also welcomes discussions on hybrid processes that combine vacuum and other methods, as well as emerging deposition strategies that push the boundaries of current vacuum technologies for halide perovskites. It will address the challenges and innovations in achieving high-quality perovskite films with enhanced stability, efficiency, and scalability. Topics include study of nucleation and growth mechanisms, interface engineering, scalability challenges and integration strategies for thin films in photovoltaic and optoelectronic applications.
- Vacuum deposition techniques for halide perovskites and perovskite-inspired photoabsorbers
- Hybrid deposition processes for halide perovskites
- Stability and scalability of perovskite thin films and solar cell devices
- Interface engineering in vacuum-deposited perovskite devices
- In-situ growth monitoring during vacuum-based perovskite formation
- Applications in photovoltaics and optoelectronics
- Innovations in material quality and defect reduction
- Vacuum-based LEDs, Photodetectors and other optoelectronics are welcome too
Dr. Annalisa Bruno is a Principal Scientist at the Energy ResearchInstitute at Nanyang Technological University (ERI@N) coordinating a team working on perovskite high-efficiency solar cells and modules by thermal evaporation. Annalisa is also a tenured Scientist at Italian National Agency for New Technologies, Energy, and Sustainable Economic Development (ENEA). Previously Annalisa was a Post-Doctoral Research Associate at Imperial College London. Annalisa received her B.S., M.S., and Ph.D. Degrees in Physics from the University of Naples Federico II. Her research interests include perovskite light-harvesting and charge generation properties and their implementation in solar cells and optoelectronic devices.
Hendrik (Henk) Bolink obtained his PhD in Materials Science at the University of Groningen in 1997 under the supervision of Prof. Hadziioannou. After that he worked at DSM as a materials scientist and project manager in the central research and new business development department, respectively. In 2001 he joined Philips, to lead the materials development activity of Philips´s PolyLED project.
Since 2003 he is at the Instituto de Ciencia Molecular (ICMol )of the University of Valencia where he initiated a research line on molecular opto-eletronic devices. His current research interests encompass: inorganic/organic hybrid materials such as transition metal complexes and perovskites and their integration in LEDs and solar cells.
Dr Juliane Borchert is the head of the junior research group “Optoelectronic Thin Film Materials” at the University of Freiburg as well as the head of the research group “Perovskite Materials and Interfaces” at the Fraunhofer Institute for Solar Energy Systems. She studied physics in Berlin, Groningen, and Halle (Saale). Her PhD research was conducted at the University of Oxford where she focused on co-evaporated perovskites for solar cells. She continued this research as a postdoctoral researcher at the University of Cambridge and AMOLF research institute in Amsterdam. Now she leads a team of researchers and technicians who are on a mission to develop the next generation of solar cells combining novel metal-halide perovskite semiconductors and established silicon technology into highly efficient tandem solar cells.
Dr Juliane Borchert is the head of the junior research group “Optoelectronic Thin Film Materials” at the University of Freiburg as well as the head of the research group “Perovskite Materials and Interfaces” at the Fraunhofer Institute for Solar Energy Systems. She studied physics in Berlin, Groningen, and Halle (Saale). Her PhD research was conducted at the University of Oxford where she focused on co-evaporated perovskites for solar cells. She continued this research as a postdoctoral researcher at the University of Cambridge and AMOLF research institute in Amsterdam. Now she leads a team of researchers and technicians who are on a mission to develop the next generation of solar cells combining novel metal-halide perovskite semiconductors and established silicon technology into highly efficient tandem solar cells.
Annamaria Petrozza received her PhD in Physics from the University of Cambridge (UK) in 2008 with a thesis on the study of optoelectronic processes at organic and hybrid semiconductors interfaces under the supervision of Dr. J.S. Kim and Prof Sir R.H. Friend. From July 2008 to December 2009 she worked as research scientist at the Sharp Laboratories of Europe, Ltd on the development of new market competitive solar cell technologies (Dye Sensitized Solar cells/Colloidal Quantum Dots Sensitized Solar cells). Since January 2010 she has a Team Leader position at the Center for Nano Science and Technology -IIT@POLIMI. She is in charge of the development of photovoltaic devices and their characterization by time-resolved and cw Photoinduced Absorption Spectroscopy, Time-resolved Photoluminescence and electrical measurements. Her research work mainly aims to shed light on interfacial optoelectronic mechanisms, which are fundamental for the optimization of operational processes, with the goal of improving device efficiency and stability.


Since 2019, Yana Vaynzof holds the Chair for Emerging Electronic Technologies at the Technical University of Dresden. Prior to that (2014-2019), she was a juniorprofessor in the Department of Physics and Astronomy, Heidelberg University (Germany). She received a B.Sc degree (summa cum laude) in electrical engineering from the Technion - Israel Institute of Technology (Israel) in 2006, and a M.Sc. degree in electrical engineering from Princeton University, (USA) in 2008. She pursued a Ph.D. degree in physics under the supervision of Prof. Sir. Richard Friend at the Optoelectronics Group, Cavendish Laboratory, University of Cambridge (UK), and investigated the development of hybrid polymer solar cells and the improvement of their efficiency and stability. Upon completing her PhD in 2011, she joined the Microelectronics group at the University of Cambridge as a Postdoctoral Research Associate focusing on the research of surfaces and interfaces in organic and hybrid optoelectronics. Yana Vaynzof was the recipient of a number of fellowships and awards, including the ERC Starting Grant, Gordon Y. Wu Fellowship, Henry Kressel Fellowship, Fulbright-Cottrell Award and the Walter Kalkhof-Rose Memorial Prize.


Transparent and semi-transparent PV constitute a new paradigm in PV technologies that initiated in early 2000’s related to the need for increased and seamless PV building integration. Since then, relevant advances have been achieved including the development of innovative materials and strategies for high optical quality and aesthetic smart solar windows and glass-based façades involving emerging perovskites, DSSC, organic and chalcogenide/oxide inorganic technologies, and new relevant applications have also raised as Agrivoltaics (APV) and PV of things.
This symposium invites contributions on new materials and devices challenges to enhance the performance of Transparent PV solar cells, focusing on new device architectures aiming to cost-efficient, robust technologies with suitable optical quality for advanced PV integration applications.
- Inorganic technologies for UV-blue selective transparent devices
- New perovskite transparent device architectures
- Advanced DSSC device concepts
- Organic transparent devices
- IR-selective device approaches
- New materials for highly transparent solar windows, including LSC approaches
- Advances in materials and processes for high optical quality segmented devices
Aldo Di Carlo is Director of the Institute of Structure of Matter of the National Research Council and Full Professor of Optoelectronics and Nanoelectronics at the Department of Electronics Engineering of the University of ROme "Tor Vergata". His research focuses on the study and fabrication of electronic and optoelectronic devices, their analysis and their optimization. Di Carlo founded the Center for Hybrid and Organic Solar Cells (CHOSE) which nowadays involve more than40 researchers dealing with the development of III generation solar cells (DSC, OPV and Perovskite) and on scaling-up of these technologies for industrial applications. CHOSE has generated 6 spin-off companies and a public/private partnership. Di Carlo is author/coauthor of more than 500 scientific publications in international journals, 13 patents and has been involved in several EU projects (three as EU coordinator)
Alejandro Pérez-Rodríguez is Full Professor of Electronics at the University of Barcelona (UB). Since October 2009 he is ascribed to IREC as Head of the Solar Energy Materials and Systems (SEMS) Group. His research activities are centred in the development and advanced characterisation of cost-efficient thin film emerging inorganic technologies, using processes compatible with their industrial sustainable upscaling with very low environmental impact. Special emphasis in these activities is given to the exploitation of the technological flexibility of these technologies for advanced PV integration applications, including the development of flexible solar cells and innovative efficient transparent contacts for next generation semi-transparent devices specially suited for Building Integration and Agrivoltaics. He is co-author of 413 scientific publications, including 329 papers in SCI high IF journals, with an h-factor of 58 and 11322 citations (with a consolidated average of 802 citations/year during the last 6 years) (Scopus January 2025). He is co-author of 6 patents, including a patent that was under exploitation by the former company Smalle Technologies SL (spin-off of the UB) and 3 patents shared with NEXCIS (former spin-off of EDF in France).

Dr. Sascha Sadewasser is the Principal Investigator of the Laboratory for Nanostructured Solar Cells at INL – International Iberian Nanotechnology Laboratory. The group of Sascha works on the development of advanced solar cell materials and devices implementing nano- and microstructures. Additionally, scanning probe microscopy methods, especially Kelvin probe force microscopy, are developed and applied for the characterization of the optoelectronic nanostructure of solar cell materials. Finally, the group also works on 2D chalcogenide materials.
Sascha Sadewasser holds a Diploma (1995) in Physics from the RWTH Aachen, Germany and a PhD (1999) from the Washington University St. Louis, MO, USA. After 2 post-docs in Berlin (Hahn-Institute) and Barcelona (Centro Nacional de Microelectrónica), he became group leader and later deputy department head at the Helmholtz-Zentrum Berlin, Germany. After his Habilitation in Experimental Physics from the Free University of Berlin, Germany (2011) he joined INL in 2011. Sascha has published more than 80 peer-reviewed papers, with 2000 citations (h-index 25). He has published 5 book chapters and 1 book and has been granted 3 patents. He is also a member of several scientific committees and evaluation boards.


This symposium brings together expert researchers from modelling, simulation and characterization with the main objective of demonstrating the latest developments on next generation of highly efficient and stable emerging OptoElectroIonic devices, from solar cells, LEDs, photodetectors, memristors, batteries, capacitors, fotoelectrodes, etc… with special focus on OptoElectroIonic perovskite solar cells.
From modelling and simulation, essential topics as drift-diffusion simulations, opto-electro-ionic modelling, machine learning, device optimization, device degradation and physical mechanisms at different time scales will be addressed.
From characterization, a special emphasis on general and advanced characterization techniques (including in-situ characterization) focused on device performance, stability (Lab-scale cells and modules) and reliability (industry modules).
- Numerical device modelling and simulation of OptoElectroIonic devices: perovskite solar cells, tandem devices, LEDs, memristors, detectors, batteries…
- Characterization techniques focused on device performance, stability (Lab-scale cells and modules) and reliability (industry modules)
- Protocols
- Degradation models – bayesians, machine learning methods
- In-situ characterization for stability assessment
Prof. Mónica Lira-Cantú is Group Leader of the Nanostructured Materials for Photovoltaic Energy Group at the Catalan Institute of Nanoscience and Nanotechnology (www.icn.cat located in Barcelona (Spain). She obtained a Bachelor in Chemistry at the Monterrey Institute of Technology and Higher Education, ITESM Mexico (1992), obtained a Master and PhD in Materials Science at the Materials Science Institute of Barcelona (ICMAB) & Autonoma University of Barcelona (1995/1997) and completed a postdoctoral work under a contract with the company Schneider Electric/ICMAB (1998). From 1999 to 2001 she worked as Senior Staff Chemist at ExxonMobil Research & Engineering (formerly Mobil Technology Co) in New Jersey (USA) initiating a laboratory on energy related applications (fuel cells and membranes). She moved back to ICMAB in Barcelona, Spain in 2002. She received different awards/fellowships as a visiting scientist to the following laboratories: University of Oslo, Norway (2003), Riso National Laboratory, Denmark (2004/2005) and the Center for Advanced Science and Innovation, Japan (2006). In parallel to her duties as Group Leader at ICN2 (Spain), she is currently visiting scientist at the École Polytechnique Fédérale de Lausanne (EPFL, CH). Her research interests are the synthesis and application of nanostructured materials for Next-generation solar cells: Dye sensitized, hybrid, organic, all-oxide and perovskite solar cells. Monica Lira-Cantu has more than 85 published papers, 8 patents and 10 book chapters and 1 edited book (in preparation).
Juan Bisquert (pHD Universitat de València, 1991) is a Professor of applied physics at Universitat Jaume I de Castelló, Spain. He is the director of the Institute of Advanced Materials at UJI. He authored 360 peer reviewed papers, and a series of books including . Physics of Solar Cells: Perovskites, Organics, and Photovoltaics Fundamentals (CRC Press). His h-index 95, and is currently a Senior Editor of the Journal of Physical Chemistry Letters. He conducts experimental and theoretical research on materials and devices for production and storage of clean energies. His main topics of interest are materials and processes in perovskite solar cells and solar fuel production. He has developed the application of measurement techniques and physical modeling of nanostructured energy devices, that relate the device operation with the elementary steps that take place at the nanoscale dimension: charge transfer, carrier transport, chemical reaction, etc., especially in the field of impedance spectroscopy, as well as general device models. He has been distinguished in the 2014-2019 list of ISI Highly Cited Researchers.
He studied electrical engineering in Stuttgart and started working on Si solar cells in 2004 under the guidance of Uwe Rau at the Institute for Physical Electronics (ipe) in Stuttgart. After finishing his undergraduate studies in 2006, he continued working with Uwe Rau first in Stuttgart and later in Juelich on simulations and electroluminescence spectroscopy of solar cells. After finishing his PhD in 2009 and 1.5 years of postdoc work in Juelich, Thomas Kirchartz started a three year fellowship at Imperial College London working on recombination mechanisms in organic solar cells with Jenny Nelson. In 2013, he returned to Germany and accepted a position as head of a new activity on hybrid and organic solar cells in Juelich and simultaneously as Professor for Photovoltaics with Nanostructured Materials in the department of Electrical Engineering and Information Technology at the University Duisburg-Essen. Kirchartz has published >100 isi-listed papers, has co-edited one book on characterization of thin-film solar cells whose second edition was published in 2016 and currently has an h-index of 38.


He has more than 15 years research experience in the academic sector working on nanoelectronics, spintronics and optoelectronics. He possesses extensive hands-on experience on emerging low-dimensionality electronic systems including nanowire transistors, GaAs single spin quantum-bits, as well emerging phenomena in functional oxide and superconductive/ferromagnetic interfaces towards beyond CMOS technologies. He has served at various academic research positions in high reputation European institutions including the Foundation of Research and Technology in Greece, the Institut Néel CNRS in France and the London centre for Nanotechnology – University College of London in United Kingdom. He obtained his PhD in Nanoelectronics from Grenoble Institute of Technology in France, in 2009. He is currently Researcher (Grade C) in the i-EMERGE Research Institute of the Hellenic Mediterranean University (HMU) and the Team Leader of Innovative Printed Electronics at the Nanomaterials for Emerging Devices research group. His current research interests include 2D materials engineering in various printed device concepts suc as high performing solar cells, functional sensors as well as neuromorhic computation architectures towards energy efficient, smart Internet of Intelligent Things and wearable systems.


There is a growing interest in understanding emergent properties in nanomaterials and ways to engineer them for use in technology. The complexity of novel materials grows as chemistry and physics advance to address materials discovery and UN sustainable goals. This involves multicomponent and hierarchical structures, combining dissimilar components. Examples include but are not limited to nanocrystal assemblies, hybrid organic-inorganic materials, and high-entropy compounds.
In such cases, the properties and performance of a nanomaterial exceed the sum of its parts and give rise to emergent properties. These phenomena include cooperative light-matter interactions (e.g., superfluorescence and plasmonic resonances), enhanced electronic transport, chirality transfer, heat transfer, and phononics. The #EmergentNANO symposium brings together leading early-career and established scientists exploring the synthesis, structure, and applications of materials with emergent properties.
- Synthesis, fabrication, and additive manufacturing of nanomaterials with emergent properties
- Structure and composition control in nanoparticle assemblies, high-entropy, and hybrid organic-inorganic materials
- Electronic structure and structure-property relationships by theoretical and experimental methods
- Energy, carrier, and thermal transport in nanostructures
- Emergent optical phenomena such as superradiance, superfluorescence, chirality transfer, and plasmonic effects
James Utterback’s research focuses on ultrafast optical spectroscopy and microscopy of energy relaxation and transport in materials for optoelectronic applications.
CNRS Researcher | Researcher; Institute of Nanosciences of Paris; Sorbonne University | 2023 – present
Postdoctoral Fellow | Beckman Postdoctoral Fellow; University of California, Berkeley | 2019 – 2022
PhD in Chemistry | NSF Graduate Research Fellow; University of Colorado, Boulder | 2013 – 2018
B.S. in Physics | Goldwater Scholar & Undergraduate Research Fellow; University of Oregon | 2007 – 2011
Dr. Carlos L. Bassani studies the multiscale interactions of systems containing crystals, from molecular ordering to the emergence of mesostructures and their interactions with the environment. Of special interest are plasmonic nanocrystals and clathrate hydrates. Carlos holds a dual doctorate in Chemical Engineering from Mines Saint-Etienne, France, and Mechanical and Materials Engineering from the Federal University of Technology—Paraná, Brazil. He is a postdoctoral fellow at the Self-Organization Group of the Institute for Multiscale Simulation at FAU Erlangen-Nürnberg, Germany.
Maria Ibáñez was born in La Sénia (Spain). She graduated in physics at the University of Barcelona, where she also obtained her PhD in 2013, under the supervision of Prof. Dr. Cabot and Prof. Dr. Morante. Her PhD thesis was qualified Excellent Cum Laude and awarded with the Honors Doctorate by the University of Barcelona. Her PhD research was funded by a Spanish competitive grant (FPU) which supported her to conduct short-term research stays in cutting-edge laboratories. In particular she worked at CEA Grenoble (2009), the University of Chicago (2010), the California Institute of Technology (2011), the Cornell University (2012) and the Northwestern University (2013). In 2014, she joined the group of Prof. Dr. Kovalenko at ETH Zürich and EMPA as a research fellow where in 2017 she received the Ružička Prize. In September 2018 she became an Assistant Professor (tenure-track) at IST Austria and started the Functional Nanomaterials group.
Prof. R. Robinson received his PhD in Applied Physics from Columbia University. After his PhD, Prof. Robinson was awarded a postdoctoral fellowship at University of California, Berkeley/LBNL in the research group of Paul Alivisatos. There, he worked on nanoparticle synthesis, chemical transformations of nanoparticles, and advanced property characterizations of nanoparticles. In 2008 Richard began a faculty position at Cornell University in the Materials Science Department, and is currently an associate professor. His primary research interests are: (I) Synthesis and chemical transformations in nanocrystals, (II) Nanocrystals in energy applications, and (III) Synchrotron x-ray characterization of nanomaterials.
therobinsongroup.org/


Vanessa Wood is a professor in the Department of Information Technology and Electrical Engineering at ETH Zurich, where she heads the Laboratory for Nanoelectronics. Before joining ETH in 2011, she was a postdoctoral associate in the laboratory of Professor Yet-Ming Chiang and Professor Craig Carter in the Department of Materials Science and Engineering at MIT, performing research on novel lithium-ion battery systems. She received her MSc and PhD from the Department of Electrical Engineering and Computer Science at MIT. Her graduate work was done in the group of Professor Vladimir Bulović and focused on the development of optoelectronic devices containing colloidally synthesized quantum dots.
This symposium invites contributions from a wide range of topics relating to the use of whole living organisms in bioelectronics. Microbe electrode interfaces are key to connecting metabolic processes to electronic signals. These lay the foundation for sustainable applications in biosensing, bioremediation, electrosynthesis and energy conversion.
The later also includes solar energy conversion using photosynthetic organisms in biological photovoltaics. The symposium will cover all microbial electronic technologies from a bioengineering, electrode engineering and application focused perspective to highlight recent developments in the field.
- Advanced materials for improved microbe electrode interaction
- Engineered microbes for bioelectronics
- Solar energy conversion in bio-photovoltaics
- CO2 sequestration in microbial electrochemical technologies
- Bio-electrochemical remediation of waste streams
- Whole microbe bio-electrochemical sensors
- Microbial electrosynthesis






Ariel L. Furst is the Cook Career Development Professor of Chemical Engineering at MIT. Her lab combines biological, chemical, and materials engineering to solve challenges in human health and environmental sustainability. They develop technologies for implementation in low-resource settings to ensure equitable access to technology. She completed her Ph.D. in the lab of Prof. Jacqueline K. Barton at the California Institute of Technology developing new cancer diagnostic strategies based on DNA charge transport. She was an A. O. Beckman Postdoctoral Fellow in the lab of Prof. Matthew Francis at UC, Berkeley developing sensors to monitor environmental pollutants. She is the recipient of the NIH New Innovator Award, the NSF CAREER Award, the Dreyfus Teacher-Scholar Award, and the Sloan Fellowship. She is the cofounder of three startups: Seia Bio, Helix Carbon, and Ouroloop. She is passionate about STEM outreach and increasing participation of underrepresented groups in engineering.








This symposium dives into recent progress achieved by international experts in academia and industry in the area of sustainable and emerging battery chemistries beyond classical Li-ion batteries, including mono- and multi-valent chemistries based on organic and aqueous electrolyte media, to achieve net zero.
We particularly welcome contributions from researchers in the field of sustainable battery technologies, including those based on Na, K, Mg, Ca, Zn and Al, that highlight advances and novel approaches toward the design, characterisation and understanding of electrode and electrolyte materials, and their respective interf(ph)ases.
- Mono and multivalent organic and aqueous-based batteries beyond Li, including Na, K, Mg, Ca, Zn and Al- based batteries
- Inorganic and organic electrodes
- Organic, aqueous and super-concentrated electrolytes
- Interfaces and interphases
- Modelling and simulation
- Insights from industry




Serena Cussen (née Corr) is Full Professor of Materials Chemistry at University College Dublin. She obtained her BA and PhD degrees in Chemistry from Trinity College Dublin, before going on to carry out postdoctoral research at University of California Santa Barbara with Professor Ram Seshadri.
Serena's research focuses on understanding the synthesis-structure-function interplay in materials for electrochemical energy storage. Her group are particularly interested in determining strategic routes to functional materials which afford control over crystal chemistry, particle size and particle morphology and deepening our understanding of the impact this has over properties. Recipient of the RSC Journal of Materials Chemistry Lectureship (2017), the ISIS Science Impact Award (2021) and the RSC Interdisciplinary Prize (2023), Serena is deeply committed to career sustainability, early career mentoring, the promotion of women in STEM and public outreach. A former member of the RSC’s Materials Division Council, she has contributed to the RSC’s Equity in Publishing group (contributing to the recent “Is publishing in the chemical sciences gender biased?” report) and was featured in the International Women’s Day report “The Chemical Ladies”.
Since the 1st of October 2023, Sonia Dsoke holds a Professorship for “Electrochemical Energy Carriers and Storage” at the Department of Sustainable Systems Engineering (INATECH), University of Freiburg, she leads a group “Innovative Battery Materials” at Fraunhofer Institute for Solar Energy Systems (ISE) and she is member of the Freiburger material center (FMF).
At the international level, she is the chair of Division 3 (electrochemical energy conversion and storage) of the International Society of Electrochemistry (ISE), one of the largest electrochemical communities in the world.
From 2017 until September 2023 Sonia Dsoke was the leader of a multidisciplinary group at the Institute for Applied Materials – Energy Storage Systems (KIT, Germany). In the same period, she was the deputy director of the platform CELEST and a spokesperson for Research Unit A (electrode materials) in the Cluster of Excellence POLiS dealing with “post-lithium” battery research. Previously she led an independent young research group focused on designing novel electrodes for Hydrid Battery-Supercapacitors at ZSW-Ulm (Germany). She also had industrial experience at an Italian battery manufacturing company FAAM (in 2009) and she was a researcher at the University of Camerino (Italy), where she also obtained her PhD in the field of Li-ion batteries.
Sonia Dsoke was honored with the Brigitte-Schlieben-Lange Programm Grant (2017-2019, Ministry of Science and Culture, Baden-Württemberg) and a Young Investigator Group Grant (2012-2016, Federal Ministry of Education and Research) within the framework “Energy Storage Initiative”.
Her actual main research subjects are the development of novel advanced functional materials for supercapacitors, lithium, and post-lithium ion batteries, with a special focus on tackling challenges of novel battery concepts such as Na, K, Mg, Ca, and Al batteries.
Patrik Johansson is Professor in Chemistry at Uppsala University, Sweden, and holds a Distinguished Professor grant with the topic of “Next Generation Batteries” from the Swedish Research Council (48.5 MSEK – ca. 4.5M€, 10 years). He is the Director of Battery 2030+ as well as co-director of ALISTORE-ERI.
Prof. Johansson received his PhD in Inorganic Chemistry in 1998 from Uppsala University, Sweden and has continuously aimed at combining understanding of new materials at the molecular scale, often via ab initio/DFT computational methods and IR/Raman spectroscopy, with battery concept development and real battery performance – with a special interest in all kinds of electrolytes. He is currently active in several large battery projects both at the national and European level, including educational efforts such as DESTINY. Most notably, his team won the Open Innovation Contest on Energy Storage arranged by BASF in 2015 for his new ideas on Al-battery technology (prize sum 100,000€) and in 2020 he was awarded “l'Ordre des Palmes Académiques, Grade d'Officier” by the French Ministry of Education. He has published ca. 250 papers and started the software company Compular AB together with some former PhD students.










Dr. Marine Reynaud is a Chemical Engineer from Chimie ParisTech (France) and Doctor in Materials Sciences. She completed her PhD in 2013 under the direction of Prof. Tarascon, Dr. Chotard and Dr. Rousse. Then, she joined the group of Dr. Montse Casas-Cabanas at CIC energiGUNE, where she is has recently been appointed Research Team Leader. Her research is focused on the design and development of electrode materials for Li-ion and Na-ion batteries. She is expert in inorganic syntheses and materials characterizations, looking for determining correlation between compositions, (micro)structure and electrochemical properties. For the last few years, she has been developing innovative strategies to accelerate the discovery of new battery materials.
She is author of c.a. 40 scientific publications in peer reviewed journals. She has been PI of several industrial projects and competitive national and European research projects. She has supervised 5 PhD students and currently leads a team of 12 researchers. She has recently received the first BRTA award from the Basque Research and Technology Alliance, recognizing young researchers’ passion, talent and ambition.
The development of energy-efficient and fast computer systems is paramount due to the rise in big data and artificial intelligence. Currently, the advancement in computing is being hampered by the speed and power efficiency constraints of the John von Neumann architecture, which divides the CPU from memory. Neuromorphic computing, which is inspired by the human brain, can potentially address these issues. The human brain serves as an archetype for next-generation computing systems due to its almost 100 billion neurons and 100 trillion synapses, which process enormous volumes of data in parallel with remarkable energy efficiency.
There is an increasing need for functional electronic materials for neuromorphic artificial intelligence systems, beyond silicon. Halide perovskites can mimic the synapse functioning in the human brain, and this has fueled the interest in building efficient neuromorphic computing systems. Metal oxides, organic semiconductors, halide perovskites, 2D materials, chalcogenides, piezoelectric materials, and magnetic materials are not only energy-efficient and multipurpose, but they can also replicate the characteristics of synaptic processes in the human brain.
Devices that can switch at low power with high endurance are switching neuromorphic devices' components and features, along with characterization techniques, which will be the main topics of this conference along with the emerging fields of bioinspired ionic-electronic photonic materials.
- Neuromorphic Devices
- Neuromorphic computing
- Memristive devices
- Halide Perovskite for synapses
- Organic semiconductors
- Nanocrystals and low-dimensional halide perovskites
- Characterization protocols
- Low-power neuromorphic devices
- Human brain interface
- Neuristor
- Interfacing biological neurons and electronics
Antonio Guerrero is Associate Professor in Applied Physics at the Institute of Advanced Materials (Spain). His background includes synthesis of organic and inorganic materials (PhD in Chemistry). He worked 4 years at Cambridge Dispaly Technology fabricating materiales for organic light emitting diodes and joined University Jaume I in 2010 to lead the fabrication laboratory of electronic devices. His expertise includes chemical and electrical characterization of several types of electronic devices. In the last years he has focused in solar cells, memristors, electrochemical cells and batteries.
Juan Bisquert (pHD Universitat de València, 1991) is a Professor of applied physics at Universitat Jaume I de Castelló, Spain. He is the director of the Institute of Advanced Materials at UJI. He authored 360 peer reviewed papers, and a series of books including . Physics of Solar Cells: Perovskites, Organics, and Photovoltaics Fundamentals (CRC Press). His h-index 95, and is currently a Senior Editor of the Journal of Physical Chemistry Letters. He conducts experimental and theoretical research on materials and devices for production and storage of clean energies. His main topics of interest are materials and processes in perovskite solar cells and solar fuel production. He has developed the application of measurement techniques and physical modeling of nanostructured energy devices, that relate the device operation with the elementary steps that take place at the nanoscale dimension: charge transfer, carrier transport, chemical reaction, etc., especially in the field of impedance spectroscopy, as well as general device models. He has been distinguished in the 2014-2019 list of ISI Highly Cited Researchers.
Bruno Ehrler is leading the Hybrid Solar Cells group at AMOLF in Amsterdam since 2014 and is also a honorary professor at the University of Groningen since 2020. His group focuses on perovskite materials science, both on the fundamental level, and for device applications. He is recipient of an ERC Starting Grant and an NWO Vidi grant, advisory board member of the Dutch Chemistry Council, recipient of the WIN Rising Star award, and senior conference editor for nanoGe.
Before moving to Amsterdam, he was a research fellow in the Optoelectronics Group at Cambridge University following post-doctoral work with Professor Sir Richard Friend. During this period, he worked on quantum dots, doped metal oxides and singlet fission photovoltaics. He obtained his PhD from the University of Cambridge under the supervision of Professor Neil Greenham, studying hybrid solar cells from organic semiconductors and inorganic quantum dots. He received his MSci from the University of London (Queen Mary) studying micro-mechanics in the group of Professor David Dunstan.
2022 Science Board member Netherlands Energy Research Alliance (NERA)
2021 Member steering committee National Growth fund application Duurzame MaterialenNL
2021 Member advisory board Dutch Chemistry Council
2020 Honorary professor Universty of Groningen for new hybrid material systems for solar-cell applications
2020 ERC starting Grant for work on aritifical synapses from halide perovskite
2019 Senior conference editor nanoGe
2018 WIN Rising Star award
2017 NWO Vidi Grant for work on metal halide perovskites
since 2014 Group Leader, Hybrid Solar Cell Group, Institute AMOLF, Amsterdam
2013 – 2014 Trevelyan Research Fellow, Selwyn College, University of Cambridge
2012-2013 Postdoctoral Work, University of Cambridge, Professor Sir Richard Friend
2009-2012 PhD in Physics, University of Cambridge, Professor Neil Greenham
2005 – 2009 Study of physics at RWTH Aachen and University of London, Queen Mary College, MSci University of London




He has more than 15 years research experience in the academic sector working on nanoelectronics, spintronics and optoelectronics. He possesses extensive hands-on experience on emerging low-dimensionality electronic systems including nanowire transistors, GaAs single spin quantum-bits, as well emerging phenomena in functional oxide and superconductive/ferromagnetic interfaces towards beyond CMOS technologies. He has served at various academic research positions in high reputation European institutions including the Foundation of Research and Technology in Greece, the Institut Néel CNRS in France and the London centre for Nanotechnology – University College of London in United Kingdom. He obtained his PhD in Nanoelectronics from Grenoble Institute of Technology in France, in 2009. He is currently Researcher (Grade C) in the i-EMERGE Research Institute of the Hellenic Mediterranean University (HMU) and the Team Leader of Innovative Printed Electronics at the Nanomaterials for Emerging Devices research group. His current research interests include 2D materials engineering in various printed device concepts suc as high performing solar cells, functional sensors as well as neuromorhic computation architectures towards energy efficient, smart Internet of Intelligent Things and wearable systems.
Wolfgang Tress is currently working as a scientist at LPI, EPFL in Switzerland, with general interests in developing and studying novel photovoltaic concepts and technologies. His research focuses on the device physics of perovskite solar cells; most recently, investigating recombination and hysteresis phenomena in this emerging material system. Previously, he was analyzing and modeling performance limiting processes in organic solar cells.


Roy Vellaisamy is a Chair Professor of Intelligent Systems and leader of Molecular Electronics (MOLEC) group at the Hong Kong Metropolitan University (HKMU). Prior to HKMU, he was a Professor of Intelligent Systems at the University of Glasgow (UK) where he is currently a Professor Affiliate. In Hong Kong, he held faculty positions at City University of Hong Kong for 11 years (2008 to 2019; Assistant & Associate Professor) and The University of Hong Kong (2005 to 2008; Research Assistant Professor). He holds adjunct positions at UESTC, Chengdu & SZAR (ShenZhen Academy of Robotics), China. In 2019, he received gold medals for his “Sensor Platform” at the 47th International Exhibition of Inventions (Geneva); iCAN 2022 (Toronto, Canada); He was also a recipient of TRIL-Research Fellow awarded by The International Centre for Theoretical Physics (ICTP, UNESCO institution), Trieste (Italy), Excellent Product Award (2011, 12, 13 & 18) at China Hi-Tech Fair awarded by the PRC's Ministry of Commerce and secured “1000 talent plan” of Zhejiang province (2017). Together with his graduate students, Roy as a founding member, established 3 spin-off companies in HK and UK for the development of point of care diagnostic tools. Roy works closely with industries in UK and Greater Bay Region for the development of intelligent sensors and quantum technologies.
Inspired by the brain’s highly energy-efficient ability for in-memory computing, the field of neuromorphic engineering strives to develop materials, devices, and circuits that can emulate artificial synaptic and neuronal capabilities. Whereas the realization of robust and scalable neuromorphic hardware offers tremendous promise for the future of electronics and computer science with implications for society at large, many current challenges in neuromorphic computation are related to materials development and the integration of materials into novel device paradigms.
This symposium invites contributions to cover the latest advancements in engineered materials with promising physical properties for neuromorphic devices, such as ferroic materials, phase-change materials, valence-change materials, spintronic materials, 2D van der Waals materials, halide perovskites, and organic materials. It will cover the processing challenges of these materials, design approaches to tune memristive characteristics via structure or defect engineering, the conceptualization of novel neuromorphic device schemes, and the integration of materials and devices into neuromorphic circuits.
- In-memory sensing and computing
- Artificial synaptic and neuronal materials and devices
- Materials integration for neuromorphic circuits
- Memristive materials: spintronic, ferroelectric, resistive RAM, phase-change materials, organics, halide perovskite, 2D materials
- Neuromorphic oscillators
- Stimuli-responsive materials and devices
- Concepts for edge computing
Juan Bisquert (pHD Universitat de València, 1991) is a Professor of applied physics at Universitat Jaume I de Castelló, Spain. He is the director of the Institute of Advanced Materials at UJI. He authored 360 peer reviewed papers, and a series of books including . Physics of Solar Cells: Perovskites, Organics, and Photovoltaics Fundamentals (CRC Press). His h-index 95, and is currently a Senior Editor of the Journal of Physical Chemistry Letters. He conducts experimental and theoretical research on materials and devices for production and storage of clean energies. His main topics of interest are materials and processes in perovskite solar cells and solar fuel production. He has developed the application of measurement techniques and physical modeling of nanostructured energy devices, that relate the device operation with the elementary steps that take place at the nanoscale dimension: charge transfer, carrier transport, chemical reaction, etc., especially in the field of impedance spectroscopy, as well as general device models. He has been distinguished in the 2014-2019 list of ISI Highly Cited Researchers.






Antonio Guerrero is Associate Professor in Applied Physics at the Institute of Advanced Materials (Spain). His background includes synthesis of organic and inorganic materials (PhD in Chemistry). He worked 4 years at Cambridge Dispaly Technology fabricating materiales for organic light emitting diodes and joined University Jaume I in 2010 to lead the fabrication laboratory of electronic devices. His expertise includes chemical and electrical characterization of several types of electronic devices. In the last years he has focused in solar cells, memristors, electrochemical cells and batteries.








The use of organic mixed ionic-electronic conductors (OMIECs) for (bio)electronic devices has grown substantially in the last 20 years, with new materials and device concepts pushing performance forward. The inclusion of both electronic and ionic carriers makes an understanding of transport phenomena however challenging, and the materials design rules and device models are still actively being developed.
Interdisciplinary discussions and research are therefore crucial in developing structure-property relations and enabling rational design of high-performance materials and devices. This symposium aims to bring together speakers spanning from materials synthesis and design to characterization and device engineering to discuss a holistic view of OMIEC materials development, with the final application in OECTs in mind.
- Organic electrochemical transistors (OECTs)
- Organic mixed ionic-electronic conductors (OMIECs)
- Solid-state electrolytes
- In-operando material and device characterization
- (Electrochemical) doping
- OECT device engineering
- OECT device modeling and material simulations
Tom van der Pol is a Marie Curie fellow at the Laboratory of Organic Electronics within the Linköping University in Sweden. His research interests revolve around characterization of novel semiconductors, currently focused on organic mixed ion-electron conductors. He conducted his PhD research at the group of René Janssen studying optical characterization of thin film organic and perovskite semiconductors for solar cell applications.
Olivier joined ICPEES as independent young researcher (Chargé de Recherche) in February 2023. His interests are in understanding the chemical and electrochemical doping mechanisms of highly anisotropic and porous organic semiconductors for bioelectronic and thermoelectric applications. A physicist by training, he obtained his MSc in Nanoscience and Engineering Physics at the Grenoble Institute of Technology (Phelma, France) in partnership with Imperial College London (UK). To better understand the molecular design of the materials he was studying, he completed a PhD at Université Grenoble Alpes/CEA Grenoble (France) with Dr. Renaud Demadrille from 2016 to 2019. He focused on the organic synthesis of n-type polymers and their doping for thermoelectric and photovoltaic applications. From 2020 to 2023, he developed his skills in time-resolved spectroscopy and data analysis during a post-doctoral stay in the FemtoMat group of Prof. Natalie Banerji at the University of Bern. Notably, he improved the electronic performance of organic electrochemical transistors (OECTs) and identified energetical and morphological factors limiting the (de)doping kinetics of the polymer channel during device operation.
C. Daniel Frisbie is Distinguished McKnight University Professor of Chemical Engineering & Materials Science (CEMS) at the University of Minnesota. He was Head of CEMS from 2014-2024. He obtained a PhD in physical chemistry from MIT in 1993 and was an NSF Postdoctoral Fellow at Harvard in 1994. His research focuses on materials and processes for large area printed electronics and photonics. Additional topics include organic semiconductors and devices, electrochemical transistors, molecular electronics, and scanning probe microscopy.


Dr. Esma Ismailova, Associate Professor with an HDR at Mines de Saint-Etienne (EMSE), France. She received her BSc. in Physics and a Master’s degree in Polymer Science at Strasbourg University in France, where she also completed her PhD in Chemistry and Chemical Physics sponsored by STMicroelectronics. She then joined the Laboratory for Organic Electronics at Cornell University, NY, USA as a PostDoc, studying the interface between biology and electronics. In 2010, she joined EMSE to establish a micro-fabrication platform for soft biocompatible neural implants at the Bioelectronics Department. Her current research interests focus on the design and fabrication of novel organic electronic devices for multi-parametric sensing. Dr. Ismailova has initiated national and international collaborations to develop organic wearable devices on textiles for healthcare.
Ji-Seon Kim is Professor of Solid State Physics and Director of the Plastic Electronics Centre for Doctoral Training (https://www.imperial.ac.uk/plastic-electronics/) at Imperial College London. She has previously taken up an EPSRC Advanced Research Fellowship at the University of Cambridge, obtained a PhD in Physics in 2000. Her research focuses on the basic science and technology of Nanoscale Functional Materials such as organics, organic/ inorganic hybrids, nanomaterials and their related applications, as well as developing novel Nanometrology for these functional materials (http://www.imperial.ac.uk/nanoanalysis-group).
Jenny Nelson is a Professor of Physics at Imperial College London, where she has researched novel varieties of material for use in solar cells since 1989. Her current research is focussed on understanding the properties of molecular semiconductor materials and their application to organic solar cells. This work combines fundamental electrical, spectroscopic and structural studies of molecular electronic materials with numerical modelling and device studies, with the aim of optimising the performance of plastic solar cells. She has published around 200 articles in peer reviewed journals, several book chapters and a book on the physics of solar cells.


Exsolution presents a sustainable alternative to conventional catalyst preparation methods by enabling the activation of earth-abundant elements through nano-structural effects, in-situ rejuvenation, or long-lasting preservation of active sites, dramatically extending catalyst lifetime and reducing material waste in energy conversion systems. This symposium aims to bring together leading experts in exsolution and solid-state ionics to discuss the latest advancements in this promising nanocatalyst fabrication route, which has significantly impacted many relevant energy conversion and storage technologies.
Beyond its initial applications in Solid Oxide Electrochemical Cells, exsolution has emerged as a versatile surface functionalization strategy finding new applications across sustainable technologies, from membrane reactors for green hydrogen production to catalyst systems for CO utilization and environmental remediation.
Topics will include recent breakthroughs in nanoparticle exsolution, with a focus on unraveling the underlying physicochemical mechanisms at the nanoscale and exploring future directions to broaden the application potential of this technology. This symposium will also examine pathways to scale exsolution from laboratory to industrial implementation while maintaining its core advantages in resource efficiency, stability and sustainability.
- New trends in metallic nanoparticle exsolution (multicomponent exsolution, non-conventional routes for exsolution, endogenous exsolution)
- In situ monitoring of exsolved nanoparticle formation
- Operando studies on electrochemical performance of advanced electrodes
- Advances in thin-film surface functionalization
- Oxide exsolution in Proton Ceramic Electrochemical Cells
- Mechanistic understanding of metallic exsolution based on computational tools
- Nanoparticle exsolution in thermo-catalytic processes and membrane reactors
Alfonso J. Carrillo holds a Ph.D. in chemical engineering by Universidad Rey Juan Carlos (Spain)—research conducted at IMDEA Energy. Then, he moved to the Electrochemical Materials Laboratory, first at ETH Zurich (Switzerland), and after at MIT (USA), where he was 2018 Eni-MIT Energy Fellow. He has been awarded with the Energy and Environmental Research Grant by Fundación Iberdrola, Juan de la Cierva Formación by the Spanish Ministry of Science, and Junior Leader Fellowship by Fundación LaCaixa. He has worked at ITQ (Spain) since January 2019, with a focus on the functionalization of redox oxides for energy storage and production of renewable fuels.
I am currently a Senior Lecturer (2023), having joined the University of Strathclyde in 2020, as a Chancellor's Fellow in Renewable Energy in the Department of Chemical and Process Engineering. I completed my MEng in Materials and Process Engineering at the University Politehnica of Bucharest in 2008, and later earned a PhD in Energy Materials from the University of St Andrews, Scotland, in 2013. Following this, I worked in several post-doctoral research roles at the University of St Andrews and Newcastle University.
My career has been dedicated to contributing innovative and ground-breaking concepts in the fields of advanced materials and renewable energy conversion applications, as evidenced by my 40+ peer-reviewed publications, including five in the prestigious Nature-family journals and two in Energy and Environmental Science.
Now leading a dynamic research team of 7 PhD students, 2 PDRAs, and multiple masters and interns, as well as international visitors, our focus is on the development of materials and devices for renewable energy conversion. This includes materials development, characterisation, and testing with applications in green hydrogen production, clean power generation, carbon capture, and conversion to sustainable fuels and chemicals. My mission is to accelerate the transition to a low-carbon society by improving technology performance, reliability, cost-effectiveness, and sustainability. This is achieved by collaborating with both industrial and academic partners worldwide to drive meaningful change.
In addition to my research, I am committed to mentoring the next generation of energy engineers and promoting knowledge transfer for a cleaner, sustainable energy future.






Francesco Ciucci works as an Associate Professor at the Hong Kong University of Science and Technology. He received his M.Sc. and Ph.D. in Mechanical Engineering at the California Institute of Technology where he was supported by a Rotary Ambassadorial Scholarship and a Bechtel Fellowship. Francesco’s current research centers on solid-state energy technologies, including solid-state batteries, reversible fuel cells, and electrolyzers, with a particular emphasis on the modeling of these systems and the development of new functional materials. Francesco is also interested in the probabilistic analysis of electrochemical impedance spectroscopy through the distribution of relaxation methods. In that context, he developed several pieces of software that can be found at https://github.com/ciuccislab.




Graduated in Materials Science at Instituto Sabato, UNSAM, Argentina
PhD Technical University Berlin, Germany
Since 2018, staff researcher at the Helmholtz-Zentrum Berlin (HZB) in the Interface Design Department of the Energy Materials In-situ Laboratory (EMIL), currently coordinating HZB’s characterization strategies in the Care-O-Sene and Green-QUEST projects. and the the HZB Photon school held yearly at BESSY II, offering lectures and practical trainings at several beamlines.
Research focus on in-situ and operando investigations of energy materials and devices, such as catalysts and solid oxide cells. Complementary synchrotron-based spectroscopies, scattering and imaging methods are combined to investigate energy conversion processes.




MXenes, a rapidly growing family of 2D transition metal carbides and nitrides, have garnered immense interest due to their unique electronic, mechanical, and chemical properties. Their tunable surface chemistry, high conductivity, and exceptional stability make them promising candidates for diverse applications, including energy storage and conversion, catalysis, electronics, and biomedical technologies.
This symposium will bring together leading researchers to discuss the latest advancements in MXene synthesis, characterization, and functionalization, as well as emerging applications. Special emphasis will be placed on novel approaches to enhance their stability, improve processability, and expand their potential for real- world implementation. By fostering interdisciplinary discussions, this symposium aims to provide insights into the future challenges and opportunities for MXene research, paving the way for their integration into next-generation technologies.
- Synthesis and Functionalization of MXenes
- Structural and Physicochemical Characterization
- MXenes in Catalysis and Environmental Applications
- MXenes in Energy Storage and Conversion
- MXenes in Electronics and Optoelectronics
- Biomedical and Healthcare Applications
- Computational and Theoretical Insights
- Future Perspectives and Emerging Applications
Dra. Ana Primo Arnau
Research Group Leader, tenured Scientist. UPV, Valencia
Dr. Ana Primo earned her Ph.D. in Chemistry from the Universidad Politécnica de Valencia (Spain) in 2006. Following her doctoral studies, she undertook a postdoctoral stint at the Institute Charles Gerhardt in Montpellier, France, from 2007 to 2009. Currently, she holds a tenured position as a scientist at the “Instituto de Tecnología Química” (UPV-CSIC). Together with Professor Hermenegildo García, she founded the HG Energy Group, which she currently leads alongside Professor García.
Her research focuses on the synthesis of 2D materials such as graphene and boron nitride, exploring their applications in catalytic and photocatalytic processes. Notable among her investigations are CO2 reduction for methanol production and water splitting for hydrogen generation. With over 100 publications, Dr. Primo’s work has garnered more than 7,000 citations, reflecting her significant contributions to the field of chemistry, and she has an h-index of 44.
Hermenegildo García Gómez is a full Professor of the Instituto de Tecnología Química at the Univeristat Politècnica de Valencia. His group has expertise in CO2 utilization developing catalysts for CO2 conversion to methanol and C2+ products. He has published over 800 papers, has received more than 75.000 citations, has an H index of 133 and his name is included continuously since 2015 in the annual list of the most cited Scientists published by the Shanghai-Tomson Reuters. He is the recipient of the Janssen-Cilag award of the Spanish Royal Society of Chemistry (2011) and the Rey D. Jaime I award in New technologies (2016). He is doctor honoris causa by the University of Bucharest and Honorary Professor at the King Abdulaziz University since 2015. He was awarded by the Lee Hsun lecturership of the Chinese Academy of Science at Shenyang. He has participated in over 20 EU funded projects and is member of the panel of ERC Consolidator Grant as well as other Comissions and panels. He is President of the international advisory editorial board of ChemCatChem. Several of his publications have constituted research fronts in Chemistry (as defined by Essential Science Indicators) Database, such as Photocatalytic CO2 reduction by non TiO2 photocatalysis, catalysis by MOFs, etc.
This symposium will unite top scientists, researchers, and experts from the fields of electrochemistry, sustainability, and carbon management for an inspiring and thought-provoking event. Participants will have the opportunity to explore cutting-edge advancements in the (photo)electrochemical conversion of CO and N into valuable chemicals and fuels. 2 2 2 2 The symposium aims to serve as a comprehensive platform for discussing the latest developments in CO and N (photo)electroreduction, essential technologies in addressing sustainability issues.
The event will cover a broad spectrum of topics, including catalyst design and synthesis, advanced characterization techniques, energy efficiency, reactor design and process scaling up, and simulations of reaction mechanisms and processes. Renowned experts from academia, industry, and government will share their pioneering research, providing valuable insights into the real-world applications and future potential of CO and N conversion technologies.
Moreover, attendees will have numerous opportunities to engage in stimulating discussions, network with peers, and foster collaborations that will accelerate progress toward a more sustainable future. We invite you to join us as we collectively explore and shape the future of (photo)electrochemical CO and N conversion, aiming to transform CO from a climate challenge into a valuable resource and to decarbonize the production of N-containing chemicals and fuels
- Electrochemical Interface
- Advanced (in situ/ operando) Characterization
- Understanding Reaction Mechanisms
- Catalytic Material Discovery and Design
- Electrolyzers
- Electrolysis Processes
- Processes simulations
- Scaling-up
- Life Cycle Assessment
- Techno-Economic Analysis


Guillermo Díaz-Sainz received his Degree in Chemical Engineering (2015) from the University of Cantabria and his MSc. in Chemical Engineering (2017) delivered from the University of Cantabria (UC) and the University of the Basque Country. In 2021, he completed his Ph.D. in Chemical Engineering, Energy and Processes focused on the development of processes for CO2 electrocatalytic reduction to formate. He is currently integrated into the Research Group DePRO (Development of Chemical Processes and Pollution Control), and at present, he is Assistant Professor in the Chemical and Biomolecular Engineering Department. Currently, the research activity and mid/long term interests of Dr. Diaz-Sainz are mainly focused on the development of an innovative process for the CO2 capture and photo/electrochemical conversion in products of interest, and at the same time, the production of green hydrogen by electrolyzers.




Matthew T. Mayer is presently leader of a Helmholtz Young Investigator Group at Helmholtz-Zentrum Berlin, studying electrochemical and photoelectrochemical conversion of carbon dioxide. He earned his Ph.D. in chemistry from Boston College, and performed postdoctoral studies at the Ecole polytechnique fédérale de Lausanne (EPFL) in the Laboratory of Photonics and Interfaces.
Development of new strategies for integrating advanced in-situ/operando characterization tools (spectroscopy or spectrometry) into electrocatalysis research. It will be of particular interest to those involved in the development of novel electrocatalysts for energy applications, those looking to deepen their understanding of catalytic mechanisms, and those interested in the latest advancements in operando characterization techniques.
- XAS
- XRD
- X-ray CT
- NMR
- ICP-MS
- Electrochemical Mass Spectrometry and Differential Electrochemical Mass Spectrometry
- UV-VIS


Kavita Kumar obtained her Ph.D. in Electrochemistry from the University of Poitiers (France) in 2017 under the direction of Prof. K. Boniface Kokoh, Dr. Têko W. Napporn and Dr. Aurélien Habrioux. During her Ph.D., she focused on cobalt oxide nanoparticles deposed on derived graphene materials for the oxygen reduction reaction (ORR) and the oxygen evolution reaction (OER) in alkaline media. From 2018 to 2022, she was a postdoctoral research associate in the Interfacial Electrochemistry and Processes group of the LEPMI, Grenoble (France), headed by Dr. Frédéric Maillard. From 2022 to 2023, she was a postdoctoral fellow in Serhiy Cherevko’s group at HI ERN, Erlangen (Germany), where she investigated the degradation of Fe-N-C electrocatalysts during the ORR in acidic and alkaline media using mass spectrometry (ICP-MS). Since 2013, she has been a researcher at the French National Centre for Scientific Research (CNRS) in LEPMI. Her current research focuses on the structure-activity-stability relationships of platinum-group metal-free catalysts for oxygen electrocatalysis, through multi-scale physicochemical analysis including in situ and operando techniques such as ICP-MS, DEMS, FTIR.
Keywords: Electrocatalysis; Alkaline hydrogen fuel cell; Alkaline water electrolyzer; Catalyst structure-activity-stability relationship


Doing my BSc/MSc in Physics and PhD in an interdisciplinary program crossing the disciplines like Chemical Engineering, Nanotechnology, and Electrochemistry made me who I am today – a scientist who enjoys the challenge of multifaceted research.
I enjoy doing basic research in order to solve applied tasks. This explains my research interest in fundamental physical chemistry, e.g. oxidation and dissolution of metals and semiconductors, electrocatalysis, and electrochemistry at modified interfaces but also electrochemical engineering, e.g. development and optimization of catalyst layers in fuel cells and water electrolyzes.
Progress in basic research is often a direct outcome of previous achievements in experimental instrumentation. Hence, a significant part of my interest is in the development of new tools, e.g. electrochemical on-line mass spectrometry, gas diffusion electrode approaches, and high-throughput screening methods.






This symposium will focus on recent advancements in photoelectrochemical approaches for the sustainable production of added-value chemicals and industrial waste valorisation, as promising strategies for clean chemical and fuel production, compatible with circular economy schemes. Discussions will cover the design and development of novel materials, photoelectrodes and advanced devices for different reactions including water splitting, CO2 reduction, ammonia synthesis, waste valorization and environmental remediation. Upscaling strategies and technological developments beyond lab-scale are particularly relevant to the scope.
This symposium will foster a multi-disciplinary and collaborative environment, bridging lab-scale developments to industrial relevant processes and encouraging the circulation of novel ideas and recent milestones in the field of photoelectrochemical processes.
To this end, PECVAL will offer an interdisciplinary forum where both renowned scientists and young researchers will present their most relevant results, illustrating the state of the art and the latest advances in the development of more efficient materials and devices for the production of energy in the fields of (photo)electrochemistry Young researchers' active participation will be encouraged through dedicated oral and poster contributions spots.
- Direct solar water splitting (hydrogen evolution, oxygen evolution,…)
- Direct solar-driven valorization reactions of CO2, biomass, organics, nitrogen compounds and/or plastics
- Novel semiconductor and co-catalyst materials for PEC and PC (e.g., ternary oxides, perovskites, 2D materials, organics, MOFs, COFs, and SACs)
- Novel architectures and approaches for PEC and PC (e.g., heterojunction, Z- scheme, PV-integrated, tandem, and decoupled cells or systems)
- Advanced characterization techniques (e.g., in-operando) of PEC and PC systems covering e.g., performance, stability, charge transfer dynamics, and syntheses.
- Multi-physics modelling of systems
- Upscaling
- Recycling, recovery and waste use processes
Sixto Giménez (M. Sc. Physics 1996, Ph. D. Physics 2002) is Associate Professor at Universitat Jaume I de Castelló (Spain). His professional career has been focused on the study of micro and nanostructured materials for different applications spanning from structural components to optoelectronic devices. During his PhD thesis at the University of Navarra, he studied the relationship between processing of metallic and ceramic powders, their sintering behavior and mechanical properties. He took a Post-Doc position at the Katholiek Universiteit Leuven where he focused on the development of non-destructive and in-situ characterization techniques of the sintering behavior of metallic porous materials. In January 2008, he joined the Group of Photovoltaic and Optoelectronic Devices of University Jaume I where he is involved in the development of new concepts for photovoltaic and photoelectrochemical devices based on nanoscaled materials, particularly studying the optoelectronic and electrochemical responses of the devices by electrical impedance spectroscopy. He has co-authored more than 80 scientific papers in international journals and has received more than 5000 citations. His current h-index is 31.


Fatwa Abdi is an Associate Professor at the School of Energy and Environment, City University of Hong Kong. Until July 2023, he was a group leader and the deputy head of the Institute for Solar Fuels, Helmholtz-Zentrum Berlin (HZB). He obtained his PhD (cum laude) in Chemical Engineering from TU Delft, the Netherlands, in 2013. He was the recipient of the Martinus van Marum prize from the Royal Dutch Society of Sciences and Humanities. His research focusses on the development of novel (photo)electrode materials as well as engineering and scale-up of devices for solar fuels and chemicals conversion.
Virgil Andrei obtained his Bachelor and Master of Science degrees in chemistry from Humboldt-Universität zu Berlin, where he studied thermoelectric polymer pastes and films in the group of Prof. Klaus Rademann (2014-2016). He then pursued a PhD in chemistry at the University of Cambridge (2016-2020), where he developed perovskite-based artificial leaves in the group of Prof. Erwin Reisner, working closely with the Optoelectronics group of Prof. Richard Friend at the Cavendish Laboratory. He was a visiting Winton fellow in the group of Prof. Peidong Yang at University of California, Berkeley (2022), and is currently a Title A Research Fellow at St John's College, Cambridge. His work places a strong focus on scalability, material design, complementary light harvesting and synthesis of added-value carbon products, introducing modern fabrication techniques towards low-cost, high-throughput solar fuel production.
Marco Favaro is the deputy head of the Institute for Solar Fuels at the Helmholtz Zentrum Berlin (HZB), Germany. After his PhD at the University of Padua (Italy) and Technical University of Munich (Germany), concluded in 2014, he spent two years as a Post-doctoral fellow at the Joint Center for Artificial Photosynthesis in Berkeley, USA, in the group of Dr. Junko Yano. He moved to Germany in 2017 to join the HZB. Here, his research activity focuses on understanding chemical composition/electronic-structural properties/performance interplay in photoelectrocatalysts by coupling operando multimodal spectroelectrochemical investigations with synchrotron-based in situ/operando spectroscopies.
Chiara Maccato obtained her MSc degree in Chemistry with full marks in 1995; PhD in Chemical Sciences in 1999. After a Post-Doc grant, in 2000 she became Assistant Professor at the Department of Chemical Sciences of Padova University, where she is currently Associate Professor of Inorganic Chemistry. Her main scientific interests are focused on inorganic/hybrid nanoarchitectures for sustainable energy production, environmental remediation, and gas sensing. and accordingly, she has been responsible of several research projects/industrial contracts. Since 2005 she is the coordinator of a morphological characterization laboratory and responsible of a research group on multi-functional inorganic and hybrid nanomaterials. She is referee for many international journals/projects and has authored more than 240 papers on international journals.
We would like to organize a symposium focused on the development and use of cutting-edge (ultrafast) spectroscopic techniques to study materials related to energy applications. Dynamic processes inside semiconductor, metallic and other (nano)materials are key to their functional use, and the crosstalk between spectroscopy and materials development serves as a feedback loop to improve both materials and device performance. We aim to attract a broad audience ranging from material scientists and experts in optics to theoretical collaborators.
Topics include a variety of applications of spectroscopy, for example:
- Development of new ultrafast pump-(push)-probe experiments.- Novel nonlinear spectroscopic techniques.
- Real-time and/or direct-space tracking of energy and charge transfer dynamics.- Spectroscopic insights into photovoltaic, photocatalytic, and battery materials.
- Advances in computational methods for interpreting spectroscopic data.
This symposium will serve as a platform to highlight recent breakthroughs, discuss challenges, and identify emerging opportunities at the interface of spectroscopy and materials science. Through engaging presentations and interdisciplinary discussions, we aim to foster collaborations that drive innovation in energy technologies. Researchers from academia, industry, and government institutions are encouraged to participate and contribute to this vibrant exchange of ideas.
- (Ultrafast) spectroscopy
- Nonlinear spectroscopy
- Energy Materials
Jaco Geuchies uses advanced (nonlinear) spectroscopic techniques to study the flow of energy, electrons and heat through various kinds of materials, ranging from colloidal nanocrystals (also known as quantum dots) to metal-halide perovskites and electrochemical systems. By creating ultrafast snapshots of the fundamental processes that govern the flow of energy, he aims to rationally manipulate materials to enhance their functionality in energy-related applications.





James Utterback’s research focuses on ultrafast optical spectroscopy and microscopy of energy relaxation and transport in materials for optoelectronic applications.
CNRS Researcher | Researcher; Institute of Nanosciences of Paris; Sorbonne University | 2023 – present
Postdoctoral Fellow | Beckman Postdoctoral Fellow; University of California, Berkeley | 2019 – 2022
PhD in Chemistry | NSF Graduate Research Fellow; University of Colorado, Boulder | 2013 – 2018
B.S. in Physics | Goldwater Scholar & Undergraduate Research Fellow; University of Oregon | 2007 – 2011
The development of renewable and sustainable energy sources has become essential to reduce global warming and current reliance on fossil fuels. A growing technological area of interest lies in photoelectrochemical and photocatalytic approaches for solar-driven fuel generation, being required for their high energy density and on-demand use. Organic semiconductor materials, such as carbon nitrides, covalent organic frameworks, and conjugated polymer photocatalysts and their operation as heterostructures are gaining increasing attention, as their bottom-up tailor ability promises optimized optoelectronic properties and processability, which enable efficient solar light harvesting across the visible and near-infrared spectrum.
Current research aims to clarify the interplay between the structure (nanomorphology), optical properties, and performance of organic semiconductor photo(electro)catalysts through systematic molecular design strategies. These are complemented by advanced optical spectroscopic studies, enabling a deeper understanding of the underlying mechanisms within materials. This symposium will serve as an important venue to exchange current insights and strategies for improving the performance of organic semiconductor photocatalysts while fostering international collaborations helping to advance the field and to increase TRL of these promising, low-cost technologies.
- Advances in organic semiconductors materials’ and (hetero-)structures’ design for applications in photocatalysis
- Advanced and coupled (in-situ/operando) characterization techniques of organic-based photocatalyst function
- Water splitting, CO2 and N2 reduction, H2 production, oxygen evolution and value-added oxidation products


James Durrant is Professor of Photochemistry in the Department of Chemistry, Imperial College London and Ser Cymru Solar Professor, University of Swansea. His research addresses the photochemistry of new materials for solar energy conversion targeting both solar cells (photovoltaics) and solar to fuel (i.e.: artificial photosynthesis. It is based around employing transient optical and optoelectronic techniques to address materials function, and thereby elucidate design principles which enable technological development. His group is currently addressing the development and functional characterisation of organic and perovskite solar cells and photoelectrodes for solar fuel generation. More widely, he leads Imperial's Centre for Processable Electronics, founded the UK�s Solar Fuels Network and led the Welsh government funded S�r Cymru Solar initiative. He has published over 500 research papers and 5 patents, and was recently elected a Fellow of the Royal Society
Antoni Llobet was born in Sabadell (Barcelona) in 1960.
He obtained his PhD at the Universitat Autònoma de Barcelona (UAB) with Prof. Francesc Teixidor in July 1985, and then moved to the University of North Carolina at Chapel Hill for a postdoctoral stay with Prof. Thomas J. Meyer, until the end of 1987.
After a short period again at UAB and at University of Sussex-Dow Corning (UK) he then become a Scientific Officer for the Commission of the European Communities, based in Brussels, Belgium (1990-1991).
Then he was appointed Senior Research Associate at Texas A&M University in College Station (USA) from 1992 till 1993, working with the groups of Prof. Arthur E. Martell and Donald T. Sawyer. From 1993 till 2004 he joined the faculty of the Universitat de Girona where he was promoted to Full Professor in 2000. At the end of 2004 he joined the faculty of UAB also as Full Professor.
In September 2006, he was appointed as Group Leader at the Institute of Chemical Research of Catalonia (ICIQ) in Tarragona.
His research interests include the development of tailored transition metal complexes as catalysts for selective organic and inorganic transformations including the oxidation of water to molecular dioxygen, supramolecular catalysis, the activation of C-H and C-F bonds, and the preparation low molecular weight complexes as structural and/or functional models of the active sites of oxidative metalloproteins.
In 2000 he received the Distinction Award from Generalitat de Catalunya for Young Scientists. In 2011 he was awarded the Bruker Prize in Inorganic Chemistry from the Spanish Royal Society of Chemistry (RSEQ) and in 2012 he has been awarded with the “Hermanos Elhuyar-Hans Goldschmidt” lecture jointly by RSEQ and the German Chemical Society (GDCh).
At present he is a member of the Editorial Advisory Board of “Catalysis Science and Technology” from the Royal Society of Chemistry, “Inorganic Chemistry” from the American Chemical Society and “European Journal of Inorganic Chemistry” from Wiley-VCH.
Iain McCulloch holds positions as Professor of Chemical Science within the Division of Physical Sciences and Engineering of KAUST, and a Chair in Polymer Materials within the Chemistry Department at Imperial College. He is also a co-founder and director of Flexink Limited. He is co-inventor on over 60 patents and co-author on over 300 papers with a current h-index of 68. His papers have been cited over 19000 times, including two papers with over 1000 citations. He was cited in Thompson Reuters “Global Top 100 Materials Scientists, 2000-10, Ranked by Citation Impact” at number 35 globally and number 2 in the UK, and was listed on ISI Highly Cited Researchers List 2014, based on ESI Highly Cited Papers 2002-2012. He was awarded the 2009 Royal Society of Chemistry, Creativity in Industry Prize, the 2014 Royal Society of Chemistry Tilden Prize for Advances in Chemistry and a 2014 Royal Society Wolfson Merit Award.
Jenny Nelson is a Professor of Physics at Imperial College London, where she has researched novel varieties of material for use in solar cells since 1989. Her current research is focussed on understanding the properties of molecular semiconductor materials and their application to organic solar cells. This work combines fundamental electrical, spectroscopic and structural studies of molecular electronic materials with numerical modelling and device studies, with the aim of optimising the performance of plastic solar cells. She has published around 200 articles in peer reviewed journals, several book chapters and a book on the physics of solar cells.
Dr. Julia Pérez-Prieto is the leader of the Photochemical Reactivity Group at the Institute of Molecular Science of the University of Valencia (http://jperezprieto-prg.com/julia_perez-prieto/). She has been a full Professor at the University of Valencia since 2007. Prof Pérez-Prieto’s research interests are currently focused on the design and synthesis of new photoactive nanomaterials, such as lead halide perovskites, gold nanoparticles and gold nanoclusters, upconversion nanoparticles and hybrid nanomaterials, as well as lanthanide complexes, to address major challenges in sensing, imaging, therapy, and sustainability. Dr. Julia Pérez-Prieto has made a number of significant contributions to the area of synthesis, catalysis, photochemistry and photoactive nanomaterials and she has published over 180 articles in peer-reviewed journals and (co)authored 10 book chapters. She is co-editor of the book “Photoactive Inorganic Nanoparticles: Surface Composition and Nanosystem Functionality”, ISBN: 9780128145319), Elsevier, 2019.
She has been the Principal Researcher in a considerable number of “I+D+I state programme” projects and has also been awarded a PROMETEO grant (PROMETEO/2019/080) by The Generalitat Valenciana for research groups of excellence and has also been granted with funding for acquiring state-of-the-art equipment for the photophysical characterization in the UV-NIR II wavelength range of the materials prepared in her group.
She was one of the PIs in the CMST COST Action CM1403 and member of its Steering Committee as well as the organizer of the 2nd Conference and Spring School on Properties, Design and Applications of Upconverting Nanomaterials, in Valencia, 2018.
Prof Pérez-Prieto was a collaborator of the Spanish Research Agency in the Area of Chemistry June 2015-June 2020 and a member of several international committees.


Kevin Sivula obtained a PhD in chemical engineering from UC Berkeley in 2007. In 2011, after leading a research group in the Laboratory of Photonics and Interfaces at EPFL, he was appointed tenure track assistant professor. He now heads the Laboratory for Molecular Engineering of Optoelectronic Nanomaterials (http://limno.epfl.ch) at EPFL.
This symposium will focus on recent advancements in photo-assisted chemical reactions, emphasizing novel catalytic materials and their applications in photocatalysis, photoelectrocatalysis, and photothermal catalysis. Discussions will cover the design and development of cutting-edge catalysts tailored for light-driven processes, particularly those used in water splitting, CO2 reduction, ammonia synthesis, biomass conversion and organic transformation. Special attention will be given to catalytic strategies for environmental remediation, highlighting the role of these materials in breaking down pollutants and addressing pressing environmental challenges.
Additionally, the symposium will explore advanced characterization techniques, such as in situ and in operando methods, which provide real-time insights into catalytic behavior and reaction mechanisms. These studies are crucial for understanding the complex interactions within catalytic systems and for improving the efficiency and selectivity of photo-assisted transformations. Mechanistic studies of catalytic processes will further shed light on the underlying principles guiding the reactions, paving the way for future innovations in sustainable energy and chemical production.
- Catalytic materials in photocatalysis, photoelectrocatalysis, and photothermal catalysis.
- Advanced (in situ/in operando) characterization
- Advancements in water splitting, CO2 reduction, ammonia synthesis, biomass conversion, and organic transformation reactions
- Catalysis-based strategies for environmental remediation
- Study of catalytic mechanisms.
Dr. Carla Casadevall obtained her PhD degree in chemistry in 2019 at the Institute of Chemical Research of Catalonia (ICIQ) under the guidance of Prof. Julio Lloret-Fillol. Her PhD sought a fundamental understanding of the mechanisms involved in artificial photosynthesis, as well as the development of new sustainable methodologies to produce solar fuels and fine chemicals. Then, she joined the group of Erwin Reisner as a BBSRC postdoctoral researcher and later as a Marie Curie Individual Fellow, working on the development of hybrid-materials for the production of solar fuels and chemicals. In October 2022 she will start her independent career as Junior Group Leader at ICIQ and the University Rovira i Virgili thanks to a La Caixa Junior Fellowship. She will work on the development of microphotoreactors for the production of fuels and chemicals.
Hermenegildo García Gómez is a full Professor of the Instituto de Tecnología Química at the Univeristat Politècnica de Valencia. His group has expertise in CO2 utilization developing catalysts for CO2 conversion to methanol and C2+ products. He has published over 800 papers, has received more than 75.000 citations, has an H index of 133 and his name is included continuously since 2015 in the annual list of the most cited Scientists published by the Shanghai-Tomson Reuters. He is the recipient of the Janssen-Cilag award of the Spanish Royal Society of Chemistry (2011) and the Rey D. Jaime I award in New technologies (2016). He is doctor honoris causa by the University of Bucharest and Honorary Professor at the King Abdulaziz University since 2015. He was awarded by the Lee Hsun lecturership of the Chinese Academy of Science at Shenyang. He has participated in over 20 EU funded projects and is member of the panel of ERC Consolidator Grant as well as other Comissions and panels. He is President of the international advisory editorial board of ChemCatChem. Several of his publications have constituted research fronts in Chemistry (as defined by Essential Science Indicators) Database, such as Photocatalytic CO2 reduction by non TiO2 photocatalysis, catalysis by MOFs, etc.
Sixto Giménez (M. Sc. Physics 1996, Ph. D. Physics 2002) is Associate Professor at Universitat Jaume I de Castelló (Spain). His professional career has been focused on the study of micro and nanostructured materials for different applications spanning from structural components to optoelectronic devices. During his PhD thesis at the University of Navarra, he studied the relationship between processing of metallic and ceramic powders, their sintering behavior and mechanical properties. He took a Post-Doc position at the Katholiek Universiteit Leuven where he focused on the development of non-destructive and in-situ characterization techniques of the sintering behavior of metallic porous materials. In January 2008, he joined the Group of Photovoltaic and Optoelectronic Devices of University Jaume I where he is involved in the development of new concepts for photovoltaic and photoelectrochemical devices based on nanoscaled materials, particularly studying the optoelectronic and electrochemical responses of the devices by electrical impedance spectroscopy. He has co-authored more than 80 scientific papers in international journals and has received more than 5000 citations. His current h-index is 31.
Oleksandr Savateev was born and raised in Kyiv, Ukraine. He received his BSc and MSc degrees in chemistry from the National Technical University of Ukraine “Kyiv Polytechnic Institute” and the PhD degree in organic chemistry from the Institute of Organic Chemistry of the National Academy of Science of Ukraine. In 2015, he joined the Max Planck Institute of Colloids and Interfaces in Potsdam, Germany, where he worked as a postdoctoral researcher. In 2017, at the same institute, he started his group “Innovative Heterogeneous Photocatalysis”. During this period of his carrier, he received several national German and European grants. In 2023, he took the position of the Vice-Chancellor Associate Professor at the Chinese University of Hong Kong. He is a member of consortia of researchers that work on solving applied and fundamental problems by means of solar light and photocatalysis. His current research interests include organic synthesis mediated by heterogeneous photocatalysts, application of photocharged semiconductors in organic synthesis and data-driven research. He is an editor and author of several books, including “Carbon nitrides. Structure, properties and applications in science and technology”, and author of more than 100 research articles. In 2024, he completed his Habilitation in Organic Chemistry at the University of Potsdam, Germany. As an educator, he is interested in gamification of teaching and studying. He is a creator of ChemChallenge – the first video game for teaching and studying physical chemistry.
As we continue to achieve unprecedented control over material design, capturing dynamic behavior across multiple length and timescales has become essential for understanding fundamental structure-function relationships. From slow self-assembly and molecular diffusion to ultrafast electronic and structural processes, these dynamics govern the functionality and performance of emerging materials in biological sciences, energy conversion, quantum technologies, and next-generation electronics. Advanced transient microscopy techniques— spanning purely optical methods (e.g., scattering, absorption, photoluminescence), electron-based approaches (e.g., 4D TEM and SEM), and scanning probe techniques (e.g., AFM, STM)—are offering new ways to study material properties with high spatial and temporal resolution.
This #NanoDyn symposium will bring together a diverse group of scientists to investigate how a wide range of novel materials can be probed with these cutting-edge experimental techniques and how emerging data-driven analysis methods may be used to explore previously inaccessible regimes of nanoscale functionality. Whether you are already using these approaches or are considering how they might advance your research, #NanoDyn aims to connect with experts, share insights, and foster collaboration across diverse fields.
- Fast and ultrafast nanoscale probing of structural, electronic and magnetic dynamics.
- Exciton, charge and phonon transport and propagation in novel materials.
- In-situ / in-operando optical and electronic probes studying material synthesis, transformations and reactions.
- Multimodal techniques with high spatial and temporal resolution.
- Emerging machine learning approaches for advancing imaging techniques and data analysis.




Ferry Prins is a tenure-Track Group leader at the Condesed Matter Physics Center (IFIMAC) of the Universidad Autonoma de Madrid. Ferry obtained an MSc in Chemistry from Leiden University (2007) and a PhD in Physics from the Kavli Institute of Nanoscience at Delft University of Technology (2011). After completion of his PhD, he joined the the group of Prof. Will Tisdale at Massachusetts Institute of Technology (MIT). There, he started exploring the optical properties of nanomaterial assemblies with an emphasis on excitonic energy-transfer interactions. In 2014 he moved to ETH Zurich for a postdoc with Prof. David Norris at the Optical Materials Engineering Laboratory. With support from the Swiss National Science Foundation, he started an independent group at ETH in 2015. In Spring 2017 he joined he Condensed Matter Physics Center (IFIMAC) at the Autonoma University of Madrid where he directs the Photonic Nanomaterials and Devices Lab. His group specializes in the development of light-management strategies for semiconductor nanomaterials.
The global demand for batteries for complete electrification is growing at an exponential rate, requiring urgent technological developments that can adapt to market diversification and its varied applications. The Solid-State Batteries (SSBs) are called to be this breakthrough, as they make possible energy dense bipolar architectures, enable the use of lithium metal, anodeless approaches or post Li-ion battery technologies (Na, K, Mg, Zn based batteries), provide fast charging and high-power output capabilities, and reduce the generation of dendrites and the associated safety issues.
To make SSBs a reality, still many obstacles must be overcome. In response to this need, this symposium aims to bring together researchers, engineers and industry working in the development of SSBs to exchange knowledge on last developments. Contributions may comprise research in topics like design of new electrolytes involving hybrid and solid electrolytes and electrodes, development of novel and disruptive processing techniques, strategies for electrode/electrolyte interface optimization, and deep understanding through novel in-situ/operando or other advanced characterization techniques.
- Design of new materials for solid electrodes and electrolytes
- New electrolytes: hybrid solid electrolytes, ionic liquids, polymer electrolytes…
- Novel processing and manufacturing techniques of solid-state batteries components, including additive manufacturing, cold sintering process, thin-film fabrication, and wet chemistry approaches
- Optimization of electrode/electrolyte interface performance and stability
- Advanced characterization techniques, including in-situ/operando…
- Li metal anodes
- Anodeless batteries
- Strategies for mitigating lithium dendrite formation
- Recovery and Reuse Strategies for Lithium and Solid-State Battery Materials
orcid: 0000-0001-7246-2149


Professor Laurence Hardwick is the Director of the Stephenson Institute of Renewable Energy within the Department of Chemistry at the University of Liverpool, UK. Since 2011 he has led a group of 12-15 researchers that have focused on understanding real-time interface processes in batteries electrochemical capacitors and electrolysers, a crucial step in improving energy materials to meet net-zero targets. His work has focused on developing cutting-edge technologies such advanced operando Raman and infrared spectroscopic techniques that can probe the functionality of electrode interfaces at the nanoscale. He presently targets integration of automation into electrochemical methods for accelerating interface design and characterisation.


Computational modeling plays a pivotal role in the discovery and optimization of functional materials, providing atomic-scale insights into their intrinsic properties and behavior. This symposium will highlight advanced theoretical and computational methodologies - spanning electronic structure theory, molecular dynamics, and machine learning -- to elucidate and predict the performance of materials for energy conversion, storage, and transmisión and for advanced spin-opto-electronic applications.
Discussions will focus on critical material systems for photovoltaics, optoelectronics, energy storage, catalysis, and quantum technologies—including spintronic and neuromorphic devices—with particular emphasis on their coupled electronic, ionic, vibrational, and optical degrees of freedoms.
A central theme will be methodological advances in modeling excited states, charge/energy transport, and electrochemical/catalytic processes, with the goal of enhancing the predictive power and experimental relevance of computational approaches.
This symposium seeks to accelerate the development of robust computational frameworks that enable the rational design of advanced functional materials, fostering tighter integration between theory and experimentation.
- Computational Methods: first-principles simulations, molecular dynamics, machine learning, and multi-scale modeling
- Functional and innovative Materials: optoelectronics, spintronics, batteries, catalysis, and quantum materials/processes, chiro-opto-electronics;
- Fundamental Processes: optical excitations, electronic and ionic transport, phonon-electron/spin interactions, electrochemistry, and catalytic mechanisms
Alessandro Stroppa (July 14th 1976) is a Research Director of the CNR-SPIN Institute (Italy) and deputy director of the research unit in L’Aquila (Italy). He received his PhD in Theoretical Condensed Matter Physics from University of Trieste (Italy) in 2006 and he continued his research in computational materials science at University of Vienna in the group of Prof. Georg Kresse (VASP Team). After 2009, he joined the CNR in Italy where he became permanent staff in 2012. He is contract professor at University of L’Aquila (Italy), and invited professor at Shanghai and South East University (China).
His current research areas deal with solid-state physics and materials science. Specifically, he is interested in 3D and 2D hybrid inorganic-organic perovskites, non-magnetic and magnetic 2D systems with special focus on photo-ferroic, multiferroic, magnetoelectric, twistronic, topological, magneto-optical and non-linear optical properties, skyrmions, etc. He has great experience with Density Functional Theory (DFT) methods for the study of the structural, electronic and magnetic properties using all-electrons as well as pseudopotential approaches implemented in numerical codes. He has published about 138 peer-reviewed papers (h-index=43, Total citations 6744) in theoretical condensed matter also in collaboration with experimentalists. In 2017, 5 of his papers were Highly Cited (Source: Web of Science). He is on the World’s top 2% scientists lists published by Stanford University since 2019. He received honors such as the ‘Best 2008 New Journal of Physics Collection’; Research Highlight talk at EUROMAT 2013; Best oral talks at Italian Physical Society conferences in 2005 and 2011; Certificate of appreciation for “his important contributions to the theoretical understanding of microscopic mechanisms of multiferroicity and magnetoelectricity in perovskite metal-organic frameworks” by Nature Conference (Nankai University, 2019). He is carrying out an intense outreach activity for primary schools. [Last update Sept 04th 2023]
Selected papers
1. A. Stroppa, et al.“Electric Control of Magnetization and Interplay between Orbital Ordering and Ferroelectricity in a Multiferroic Metal-Organic Framework”, Angew. Chem. Int. Ed. Engl., 2011, 50, 5847-5850. Times cited:192.
2. A. Stroppa, et al. “Hybrid Improper Ferroelectricity in a Multiferroic and Magnetoelectric Metal-Organic Framework”, Adv. Mat., 2013, 25, 2284-2290. Times cited:215.
3. A. Stroppa, et al. “Tuning the Ferroelectric Polarization in a Multiferroic Metal-Organic Framework”, J. Am. Chem. Soc. 2013, 135, 18126-18130. Times cited:190.
4. A. Stroppa, et al. “Electric-Magneto-Optical Kerr Effect in a Hybrid Organic-Inorganic Perovskite”, J. Am. Chem. Soc. 2017, 139, 12883-12886. Times cited:23.
5. A. Stroppa, et al.”Tunable ferroelectric polarization and its interplay with spin-orbit coupling in tin iodide perovskites”, Nat. Commun., 2014, 5, 5900. Times cited:175 (Highly Cited Paper)
6. A. Stroppa, “Cross coupling between electric and magnetic orders in a multiferroic metal-organic framework”, Sci. Rep., 2014, 4, 6062. Times cited:134.
7. A. Stroppa, et al. “Magneto-Optical Kerr Switching Properties of (CrI3)2 and (CrBr3/CrI3) Bilayers”, ACS Appl. Electron. Mater. 2020, 2, 5, 1380-1373. Times cited:1.
8. A. Stroppa et al. “Activating magnetoelectric optical properties by twisting antiferromagnetic bilayers”, Phys. Rev. B, 106, 184408 (2022). Times cited: 0
Selected links (Outreach)
https://www.spin.cnr.it/outreach-and-t-t/events/item/240-spin-at-maker-faire-2023
https://outreach.cnr.it/risorsa/231/giocando-con-la-geometria
https://outreach.cnr.it/risorsa/79/dalla-geometria-alla-geo-materia-un-affascinante-percorso-didattico
Shuxia Tao is a compuational materials scientist and she studies how photons, electrons and ions interact with each other and how such interactions determine the formation, function and degradation of materials. Currently, she leads the Computational Materials Physics group at the department of Applied Physics, Eindhoven University of Technology, the Netherlands.
Tao's group focuses on multiscale modelling of energy and optoelectronic materials, studying the growth of nanomaterials and developing theory of light-matter interactions. The ultimate goal is perfecting the quality of these materials and maximizing their efficiency for converting and storing energy and information. Her recent contribution to PV materials focuses on halide perovskites, where she made important contribution in the understanding of the electronic structure, the defect chemistry/physics and the nucleation and growth of halide perovskites. Recently, she also expanded the research to the interactions of perovskites with other contact materials in devices and novel optoelectronic properties, such as optical chirality and chiral induced spin selevetivity.