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Antonio GuerreroView profile

Associate Professor

• Materials Science
• Electronic Devices
• Memristors
• +5 more

Antonio Guerrero is an Associate Professor in Applied Physics at Jaume I University and Principal Investigator of the Active Materials and Systems Research (AMSY) group at the Institute of Advanced Materials (INAM). His work focuses on developing novel materials for electronic devices, with emphasis on memristors, photovoltaics, and energy applications. Education: Bachelor of Chemistry, University of Alcalá de Henares (2002) Ph.D. in Organometallic Chemistry, University of East Anglia, UK (2006) Guerrero's research centers on three interconnected domains: memory devices (memristors/transistors for neuromorphic computing), photovoltaics (perovskite/organic solar cells), and energy materials . His approach integrates materials synthesis, device fabrication, and fundamental characterization to understand ion transport mechanisms in halide perovskites. This interdisciplinary work bridges chemistry, physics, and engineering to address stability challenges in next-generation electronics. Analysis of his 2023-2025 publications reveals dominant trends in perovskite-based memristors for neuromorphic systems (60% of articles), photovoltaic innovations (25%), and sustainable energy materials (15%). Key advancements include engineering perovskite compositions for resistive switching control, developing organic-inorganic hybrid electrolytes for synaptic transistors, and creating scalable manufacturing techniques for solar cells. His work consistently explores the role of ion migration in device performance. Professional Recognition: Panel member of ERC Consolidator program Regular reviewer for Science, Nature Energy, and Energy & Environmental Science As Principal Investigator of the AMSY group, Guerrero mentors students across all levels and evaluates international research proposals. His leadership has yielded over 110 publications (h-index 53), three patents, and significant contributions to perovskite device physics. He actively collaborates with European research networks and industry partners through INAM's technology transfer initiatives. The AMSY group operates within INAM's advanced laboratories, utilizing specialized equipment for materials synthesis, thin-film deposition, and nanoscale device characterization. Current projects focus on ion migration dynamics in perovskites, flexible memristor arrays, and enzymatic PET recycling processes, with strong ties to Spain's neuromorphic computing roadmap.

Rosario VidalView profile

Professor

• Life Cycle Assessment
• Sustainability Assessment
• Environmental Impact Analysis
• +3 more

Rosario Vidal is a Full Professor of Engineering Projects at the Universitat Jaume I since 2009, with teaching responsibilities in Ecodesign, Engineering Projects, and Design Methodologies. She leads the RG8. GID - Green Investigation & Development research group at the Institute of Advanced Materials (INAM) and has supervised 16 doctoral theses. Educational Background : B.Sc. in Industrial Technical Engineering (Chemistry, 1990), M.Sc. in Industrial Engineering (Mechanical, 1993), Ph.D. (1996) from Universitat Politècnica de València . Research Interests focus on: Life Cycle Assessment (LCA) applied to renewable energy technologies, materials, and industrial processes. Sustainability Assessment integrating social impacts and circular economy principles. Environmental Impact Analysis of photovoltaics, additive manufacturing, and battery recycling. Critical Raw Materials and resource depletion risks in emerging technologies. Eco-Innovation in design and production systems. Recent Publications (2025-2018) emphasize perovskite solar cell sustainability, lithium-ion battery recycling, additive manufacturing for underwater applications, and eco-friendly LED production. Key trends include comparative LCA across technologies, green chemistry , and resource criticality in renewable energy systems. International Collaborations include research stays at the Environmental Protection Agency (USEPA, US) , Cranfield University (UK) , NREL (US) , and Tampere University (Finland) . Her work bridges industrial scaling simulations , pollutant fate modeling , and multi-criteria decision analysis to advance sustainable solutions.

Rafael Sánchez SánchezView profile

Researcher

• Semiconductors
• Photovoltaics
• Optoelectronics
• +5 more

Rafael Sánchez Sánchez is a Senior researcher at the Institute of Advanced Materials (INAM) within Universitat Jaume I in Castelló, Spain. His office is located in NB4012DI, and he can be reached at rasanche@uji.es or by phone at 964387010. As a member of Research Group 4 (Advanced semiconductors), Dr. Sánchez focuses on the development of novel semiconductor materials for optoelectronic applications. Dr. Sánchez earned his M.Sc. degree in Chemistry in 2006 and his Ph.D. degree in 2011, both from the Universitat Autònoma de Barcelona, Spain. His academic journey includes research positions at: Universitat Jaume I (2012-2017) University of Liverpool (2017-2018) Henkel Ibérica-UAB (2018-2019) Université de Bordeaux (2019-2020) Dr. Sánchez's research primarily centers on the synthesis and electro-optical characterization of functional materials and semiconductors for light generation, photovoltaics, and water splitting applications. His current work focuses on the chemical design and synthesis of quaternary diazaaromatic dications for developing novel 2D metal halide perovskite semiconductors. These materials aim to enable the preparation of low-cost, highly efficient, and durable optoelectronic devices. His expertise spans materials chemistry, semiconductor physics, and device engineering, with particular emphasis on perovskite-based technologies that offer promising alternatives to conventional semiconductors in various optoelectronic applications. Analysis of Dr. Sánchez's recent publications reveals a strong focus on perovskite materials for light-emitting diodes (LEDs) and solar cells. His work demonstrates expertise in nanocrystal synthesis, surface engineering, and device fabrication techniques. A significant portion of his research addresses stability challenges in perovskite devices, particularly through chemical engineering approaches and interface modifications. His publications span high-impact journals across materials science, chemistry, and engineering disciplines, reflecting the interdisciplinary nature of his work. The research shows a clear trajectory toward practical applications, with increasing attention to scalable manufacturing processes and environmental sustainability considerations in perovskite technology development. Dr. Sánchez has established a strong publication record with 1 book chapter and 27 publications in peer-reviewed international journals, all in Q1 journals with 18 in D1 journals having impact factors greater than 6.9. His work has garnered 2733 citations and maintains an h-index of 21, indicating significant impact in his field. While specific awards aren't mentioned in the provided information, his consistent publication in top-tier journals and substantial citation count suggest recognition within the scientific community. With extensive international research experience across multiple institutions in Spain, the UK, and France, Dr. Sánchez has developed a robust network of collaborations. His work often involves interdisciplinary teams addressing complex challenges in semiconductor materials. Although specific grant information isn't provided, his publication record suggests successful funding for research projects focused on advanced materials development. His expertise in both fundamental materials science and practical device engineering positions him well for future research directions exploring commercial applications of perovskite technologies. As a member of the Advanced Semiconductors research group at INAM, Dr. Sánchez contributes to the institute's mission of developing cutting-edge materials for energy and electronic applications. His work with perovskite semiconductors aligns with INAM's strategic research program focusing on sustainable materials and technologies. The collaborative nature of his publications indicates active participation in research teams working on various aspects of perovskite optoelectronics, from fundamental material properties to device integration and performance optimization.

• Neuromorphic Computing
• Materials Science
• Memristors
• +4 more

Hongwei Tan is a Visiting Professor in the Department of Applied Physics at Aalto University, affiliated with the School of Science and Technology. He holds a Ph.D. in Natural Sciences from the Chinese Academy of Sciences (2011-2016) and a Bachelor's degree in Natural Sciences from Nankai University (awarded 2011). Research focuses on neuromorphic computing, memristors, wearable health monitoring, and bioinspired materials. Principal Investigator of the Optoelectronic Synapses for Artificial Neuro Networks project (2018-2021). Published 16+ articles in journals like Advanced Materials , Nature Electronics , and ACS Nano . Key research interests include developing neuromorphic systems, flexible synaptic transistors for healthcare, and materials science innovations for machine vision. His work contributes to UN Sustainable Development Goals related to education and technological advancements. Media highlights include coverage of neuromorphic visual sensors and programmable smart fabrics in outlets like Nature Communications and Cell Reports Physical Science . Led projects on optoelectronic synapses and collaborated on datasets like the 2024_CRPS project. His research bridges materials science, computer science, and biomedical engineering.

Nicholas GrantView profile

Assistant Professor

• Photovoltaic Engineering
• Atomic Layer Deposition (ALD)
• Silicon Photovoltaics
• +5 more

Nicholas E. Grant is an Assistant Professor in the School of Engineering at the University of Warwick. His research focuses on advancing silicon photovoltaic materials, energy storage systems, metamaterials, and surface passivation techniques using atomic layer deposition (ALD). He holds a PhD in Photovoltaic Engineering from the Australian National University (2012) and a BSc (Honours) in Physics from the University of Adelaide (2007). Research Interests: - Development of surface layers to enhance interfacial properties in high-efficiency silicon PV devices - Mitigation of light-induced defects in gallium-doped silicon materials - Application of ALD for depositing dielectric coatings on 2D materials like MoS2 - THz metamaterials and silicon-based photomodulators - Electrochemical performance of silicon electrodes in lithium-ion batteries Key Projects: - EPSRC-funded research on charged oxide inversion layer (COIL) solar cells (2021–2024) - Leverhulme Trust grant investigating dark matter impacts on silicon semiconductors (2021–2024) - Royal Society collaboration on ALD for battery anode coatings (2022–2023) Teaching: - ES190 Thermodynamics - ES327 3rd year projects Publications Trends: Recent work emphasizes ALD applications for defect passivation, THz imaging via emissivity modulation, and gallium-doped silicon stability. Over 50 publications span silicon surface science, metamaterials, and energy storage materials. Office: A418, School of Engineering, University of Warwick Advice hours: Fridays 10am–12pm term time

Sam GielenView profile

Researcher

• Organic Electronics
• Near-Infrared Photodetectors
• Semiconductor Materials
• +3 more

Dr. Sam Gielen is a postdoctoral researcher (FWO) at Hasselt University, affiliated with the DSOS research group. He holds a Bachelor of Chemistry from Hasselt University (2014) and a Master of Chemical Engineering from Eindhoven University of Technology (2016). His research focuses on organic electronics, particularly near-infrared photodetectors, semiconductor materials, and trap states in organic devices. His work emphasizes the chemical origins of performance limits in these systems. Gielen has published extensively on topics like porphyrin molecules, mid-gap trap states, and photodetector design, with an H-index of 9 and over 300 citations. His current projects explore structural purity in polymers and novel materials for high-performance optoelectronic devices. Education: Bachelor in Chemistry, Hasselt University (2014) Master in Chemical Engineering, Eindhoven University of Technology (2016) Research Interests: Gielen’s work combines organic semiconductor design, optoelectronic device engineering, and materials characterization. Key areas include: Near-infrared photodetection (NIR/SWIR) Trap state dynamics in organic electronics Porphyrin-based molecular materials Thin-film photodetector fabrication Hybrid perovskite systems His recent studies investigate how structural perfection in conjugated polymers impacts optoelectronic performance, with applications in imaging sensors and photovoltaics. Grants & Collaborations: His postdoctoral funding is supported by FWO (Research Foundation - Flanders). Gielen has collaborated on projects involving CMOS-integrated infrared sensors and co-organized workshops on XR studio applications. Labs/Teams: Primary affiliation with the DSOS group at Hasselt University, focusing on organic semiconductor research and device innovation.

Hamid HamedView profile

Research Fellow

• Electrochemical Engineering
• Battery Technology
• Material Science
• +3 more

Hamid Hamed is an FWO Postdoctoral Fellow and project leader at Hasselt University's Department of Electrochemical Engineering, focusing on physics-based and data-driven models for advanced batteries. His work integrates non-equilibrium thermodynamics and multicomponent transport theory in porous media. Education: B.Sc. (2013) and M.Sc. (2016) in Chemical Engineering from Sharif University of Technology (Iran). His Bachelor’s thesis addressed in-situ groundwater remediation, while his Master’s explored dialysis membrane microstructure optimization. He completed his Ph.D. (2017–2021) at Hasselt University under Prof. M. Safari, studying mesoscale properties-performance relationships in batteries. Research interests span electrochemical engineering, battery modeling, and sustainable materials for energy storage. His projects address challenges in lithium-ion batteries, sodium-ion systems, and supercapacitors, with a focus on improving energy density and operational efficiency through material design and process optimization. Notable contributions include studies on lithium metal electrode dendrite growth, sodium-ion battery electrolyte strategies, and biomass-derived electrode materials. His work bridges theoretical modeling with experimental validation, emphasizing practical applications in energy storage systems.

• CdTe Solar Cells
• Thin Film Photovoltaics
• Semiconductor Defects
• +4 more

Ken Chin is a Professor of Physics and Director of the CNBM New Energy Materials Research Center at the New Jersey Institute of Technology (NJIT). His research focuses on advanced materials for renewable energy, particularly CdTe thin-film solar cells and MEMS-based sensors. Key areas include semiconductor defect engineering, thin-film deposition techniques, and acoustic/optical sensor development. With 1999 citations and an h-index of 17, Chin has led federal grants on MEMS education, quantum well sensors, and photovoltaic innovations. His work spans over 98 publications, emphasizing CdTe solar cell efficiency, fiber optic sensing, and material characterization via XPS and DLTS. Notable inventions include Fabry-Perot acoustic sensors for power transformers and MEMS fiber optic microphones. His research bridges semiconductor physics, materials chemistry, and engineering applications in energy and sensor technologies.

• Nano-scale materials growth
• Nano-scale device fabrication
• Future MOS Transistors
• +3 more

Zhi David Chen is a Professor of Electrical Engineering at the University of Kentucky's Stanley and Karen Pigman College of Engineering, where he has held continuous faculty appointments since 1999 and currently serves as Associate Director of the Center for Nanoscale Science & Engineering. His career includes progression from Assistant Professor (1999-2004) to Associate Professor (2004-2009) before achieving full Professorship, with prior industry experience at Bell Laboratories. Education: Ph.D. in Electrical Engineering, University of Illinois at Urbana-Champaign (1999) M.S. in Electrical Engineering, University of Electronic Science & Technology (China) (1987) B.S. in Electrical Engineering, University of Electronic Science & Technology (China) (1984) Dr. Chen's research spans nano-scale materials growth, nano-device fabrication, MOS transistor development, gate dielectrics, and advanced sensors, with dominant focus on perovskite photovoltaics. His work addresses critical challenges in solar cell efficiency, environmental stability, and scalable manufacturing, pioneering innovations in lead-free alternatives, surface passivation, and ambient-air processing techniques. He explores novel nanomaterial architectures for next-generation semiconductor and optoelectronic applications. Analysis of his 2020-2024 publications reveals intense concentration on perovskite solar cell optimization (13 of 15 articles), featuring breakthroughs in tin-lead alloys, hysteresis reduction, and underwater module stability. Emerging themes include neuromorphic optoelectronic synapses for vision systems and terahertz communication technologies, demonstrating interdisciplinary expansion while maintaining core expertise in nanoscale device physics. Scientific Awards: No scientific awards were documented in the provided materials. Advising and Grants: While specific student names and grant details were absent from source materials, his sustained publication output and leadership role at the Nanoscale Science & Engineering Center indicate active research supervision and external funding. Labs and Teams: As Associate Director of the Center for Nanoscale Science & Engineering, Dr. Chen leads cross-disciplinary teams developing advanced semiconductor materials and devices, with particular emphasis on perovskite photovoltaics and nano-sensor technologies through collaborations with national laboratories and industry partners.

Luisa PettiView profile

Associate Professor

• Flexible and Printed Electronics
• Wearables for Humans and Plants
• Environmentally-friendly Production of Electronic Devices
• +2 more

Luisa Petti is an Associate Professor in Electronics at the Faculty of Engineering, Free University of Bozen-Bolzano. She holds a M.Sc. in Electronic Engineering from Politecnico di Milano (2011) and a Ph.D. in Electrical Engineering from ETH Zurich (2016), where her thesis on flexible electronics earned the ETH Medal. Her career includes roles as a Scientist at Cambridge Display Technology and FlexEnable Ltd. before joining the university in 2018. Her research focuses on flexible and printed sensors, energy harvesters, and biodegradable electronics, with applications in agriculture, health, and sustainability. Key research areas include: Flexible and Printed Electronics Wearables for Humans and Plants Environmentally-Friendly Electronics Production Smart Sensors and Sensor Systems Her work has led to innovations like nanoplastic detection sensors and biohybrid interfaces. She advises students such as Moritz Ploner and Giulia Elli, whose research has been recognized at international conferences. She collaborates with institutions like the Istituto Italiano di Tecnologia (IIT) and leads the Sensing Technologies Lab. Notable achievements include the ETH Medal and contributions to sustainable electronics. She teaches courses on flexible electronics and sensors in agri-food applications, emphasizing interdisciplinary approaches to solving real-world challenges.

Anderson Ho Cheung ShumView profile

Professor

• Microfluidics
• Biomedical Engineering
• Soft Matter
• +5 more

Prof. Anderson Ho Cheung Shum is a Professor in the Department of Mechanical Engineering and core member of the Biomedical Engineering Programme at The University of Hong Kong (HKU). He serves as Associate Vice-President (Research and Innovation) at HKU. His research focuses on microfluidics, soft matter, and biomedical engineering, with contributions to aqueous phase separation, droplet-based materials, and nanomedicine. He has pioneered studies on all-aqueous multiphase systems and their applications in drug delivery, diagnostics, and biomimetic robotics. Education: B.S.E. (Princeton), S.M. and Ph.D. (Harvard). Awards include the HKU Outstanding Researcher Award (2022), NSFC Excellent Young Scientist Fund (2019), and multiple international medals. He holds editorial roles in journals like Biomicrofluidics and Scientific Reports. Research highlights include Aquabots (soft liquid robots), TransfOrigami microfluidics, and phase-separation-based drug delivery systems. His work bridges fundamental science with clinical applications, with over 100 publications and 20 patents, 7 licensed. He co-founded startups and chairs entrepreneurship initiatives to commercialize innovations.

Michael ToneyView profile

Professor

• Electrochemical energy storage
• Solar materials
• Hydrogen storage
• +11 more

Michael Toney is a Professor at the University of Colorado Boulder in the Departments of Materials Science and Engineering and Chemical and Biological Engineering. He teaches MSEN 5270: Materials Characterization for Engineers and leads research focused on electrochemical energy storage , solar materials , and hydrogen storage . His group employs X-ray diffraction (XRD) , X-ray absorption (XAS) , and X-ray photoelectron spectroscopy (XPS) for materials characterization. B.S., California Institute of Technology (1979) Ph.D., University of Washington (1983) Toney's research explores advanced materials for energy storage systems, including: Lithium-ion batteries : degradation mechanisms, SEI formation, and fast charging Organic photovoltaics (OPVs) : morphology control via X-ray scattering techniques Perovskite materials : processing-structure-function relationships Membranes : ion interactions and chlorine degradation in desalination His group contributes to initiatives like the Joint Center for Energy Storage Research (JCESR) and XCEL (Extreme Fast Charge Cell Evaluation). Recent publications highlight interdisciplinary approaches to energy storage challenges. Honors and awards include: American Physical Society Fellow (2019) Farrell W Lytle Award (2009) Multiple IBM Technical Awards (1988–1997) NATO Postdoctoral Fellowship (1983) The group actively engages in outreach programs like the Elementary Arts Lab and DPS high school mentoring , emphasizing science education and work-life balance.

Denis AndrienkoView profile

Researcher

• Organic Electronics
• Liquid Crystals
• Polymer Science
• +3 more

Denis Andrienko is a Researcher and Group Leader of the Theory Group at the Max Planck Institute for Polymer Research (MPIP) in Mainz, Germany. He has held this position since September 2005, leading interdisciplinary research on computational modeling of organic semiconductors, soft matter, and energy materials. His work bridges computer simulations with experimental insights to advance organic electronics, photovoltaics, and optoelectronic devices. Education: PhD in 2001 from the University of Bristol (UK), supervised by Prof. M.P. Allen, focusing on confined liquid crystals. Humboldt Fellowship at MPIP (2002–2004), studying polyelectrolyte microcapsules and colloidal systems. Research Interests: Computational materials discovery, charge transport in organic semiconductors, coarse-graining methods, morphology-property relationships in polymers, and optoelectronic device modeling. His research emphasizes linking atomic-scale simulations to macroscopic material properties, with a focus on organic photovoltaics, OLEDs, and perovskite-based systems. Key contributions include developing stochastic network models for charge transport and predicting molecular ordering in thin films. He collaborates with experimental groups globally, integrating theory with experimental data to design high-performance materials. Recent work includes optimizing non-fullerene acceptors, exploring charge trapping mechanisms, and advancing coarse-grained modeling techniques for large-scale systems. His team employs multiscale simulations, density-functional theory, and machine learning to address challenges in energy conversion and device stability.

Keith RoperView profile

Professor

• Biological Engineering
• Nanotechnology
• Photonics
• +3 more

Dr. Keith Roper is a Professor in the Department of Biological Engineering at Utah State University. His research focuses on nanomaterials and their applications in biomedical engineering, photonics, and sustainable energy. He holds a PhD in Chemical Engineering from the University of Wisconsin-Madison (1994) and a BS from Brigham Young University (1989). His work integrates electrodynamics simulation with experimental methods to advance nano/biomedicine and precision agriculture. Education: PhD, Chemical Engineering, University of Wisconsin-Madison, 1994 BS, Chemical Engineering, Brigham Young University, 1989 Research Interests: Gene vector delivery, infectious disease diagnostics, nano/biotechnology, photonics, bio/nanomaterials, and electrodynamics simulation. His lab develops novel nanomaterials for pathogen sensing and sustainable energy solutions. Awards: Presidential Citation, 2018 (Institute of Biological Engineering) Fellow, American Institute for Medical and Biological Engineering (2014) Undergraduate Research Mentor of the Year, 2023 (USU) Teaching & Advising: Teaches Biological Engineering Design, Modeling, and Molecular Bioengineering. Mentored over 12 graduate students, including recent advisees Mona Soroush and Siavash Pooretemad. His research has led to 10 books/chapters and over 80 journal articles.

Alicia Petronela RambuView profile

Researcher

• Nonlinear Optics
• Optical Waveguides
• Proton Exchange Techniques
• +5 more

Dr. Alicia Petronela Rambu is a Senior Researcher III at the Department of Exact Sciences and Natural Sciences within the University of Al. I. Cuza. Her research focuses on the fabrication and characterization of nonlinear optical materials, particularly lithium niobate waveguides using advanced proton exchange techniques such as HiVac-VPE and SPE. She specializes in optimizing refractive index profiles, exploring functional oxide materials, and studying thin films for applications in sensing, solar cells, and integrated optics. Key techniques: Spin coating, photolithography, E-field poling, M-lines analysis Materials expertise: Lithium niobate (LiNbO₃), ZnO, doped oxides Her work emphasizes structural, optical, and electrical characterization of materials, with contributions to high-index contrast waveguide design and functional oxide thin films. Recent studies include thermal treatment effects on waveguides, spontaneous polarization reversal, and Fenton reaction catalysis using iron oxide nanomaterials. She collaborates within the RAMTECH Center and has published extensively in optoelectronics and materials science.