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Prof. Ulrich Schwaneberg serves as a University Professor at RWTH Aachen University's Faculty of Mathematics, Computer Science and Natural Sciences within the Institute of Biotechnology. His research group operates from the Biology Sammelbau facility (Worringerweg 3, Aachen) and maintains strong ties with the DWI - Leibniz Institute for Interactive Materials. His primary research focuses on protein engineering and biocatalysis , with significant contributions to plastic degradation technologies (particularly PET hydrolases), material-binding peptide development , and high-throughput screening methodologies . Key research thrusts include engineering enzymes for plastic recycling, developing anchor peptides for industrial applications, and creating novel biocatalytic systems for sustainable chemistry. Recent publications reveal a strong trend toward computational-guided enzyme design (using MD simulations and machine learning) combined with practical applications in environmental remediation . His team actively develops solutions for microplastic detection, phosphate recovery, and textile functionalization using biohybrid systems. The 2025 article portfolio demonstrates particular emphasis on PET degradation technologies and enzyme immobilization strategies. Prof. Schwaneberg leads the recently launched Materials Lab Incubator (MerLIn) funded with over 7 million euros from BAFA, and coordinates the Bio4MatPro competence center connecting industry partners with academic research. His group actively recruits Chinese students through CSC fellowships and organizes the annual Aachen Protein Engineering Summer School (AcES2) . The Schwaneberg group maintains state-of-the-art facilities for directed evolution, high-throughput screening, and biocatalytic process development, with strong industry partnerships focused on sustainable material innovations. Current initiatives include the development of flame-retardant textile coatings using biohybrid anchor peptides and scalable systems for plastic upcycling.

• Protein Engineering
• Enzyme Engineering
• Biocatalysis
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Zandrie Borneman is an Associate Professor at Eindhoven University of Technology's Department of Chemical Engineering and Chemistry, specializing in membrane materials and processes. His research focuses on designing sustainable polymer membranes for molecular separation and process applications, emphasizing 'recycle, reuse, reduce' principles. He holds a PhD from the University of Twente (2006) and previously worked at Wageningen University (1995–2001) and the University of Twente's Membrane Technology Group (2001–2016). Education: BSc in Laboratory Engineering, Saxion University of Applied Sciences (1991) PhD in Membrane Technology from University of Twente (2006) Research Interests: Membrane chemistry, morphology optimization, sustainable separations, and applications in energy storage (e.g., flow batteries) and waste valorization. His work aligns with UN SDGs on clean energy and sustainable consumption. Recent Trends in Articles: Focus on recyclable membranes, advanced separation technologies (e.g., organic solvent nanofiltration), and energy storage systems like acid-base flow batteries. Collaborations highlight interdisciplinary approaches in materials science and environmental engineering. Grants/Projects: Active in EU-funded projects like NEWBAT (2023–2027) for cost-effective redox flow batteries and PHA recovery initiatives (2022–2026). Manages the Membrane Materials and Processes group, contributing to 87+ research outputs. Labs/Teams: Leads the Membrane Materials and Processes research group, collaborating with EIRES (Eindhoven Research on Energy and Sustainability). Engages in cross-disciplinary teams for membrane innovation and sustainable process development.

• Polymer Membranes
• Sustainable Process Engineering
• Separation Technology
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Pouya Dehghankelishadi is a Research Fellow at Monash University's Department of Drug Delivery, Disposition and Dynamic. His work focuses on developing multi-functional drug delivery systems using porous silicon nanoparticles and gold nanoclusters for cancer treatment, particularly glioblastoma and breast cancer. He holds a PhD from the University of South Australia (2022) and a Doctorate of Pharmacy (PharmD) from Tehran University of Medical Sciences (2014). Education: PhD in Nanomedicine, University of South Australia (2022) Doctorate of Pharmacy (PharmD), Tehran University of Medical Sciences (2014) Research Interests: Targeted drug delivery systems for cancer therapy Nanoparticle engineering (porous silicon, gold nanoclusters) Theranostics and biomedical applications of nanomaterials Radiosensitiser delivery to tumour microenvironment Article Trends: His publications emphasize nanoparticle-based drug delivery systems, with recent work focusing on aptamer-targeted carriers, implantable biosensors, and stimuli-responsive nanocarriers for brain cancer treatment. Themes include nanomedicine design, cancer therapeutics, and biomedical imaging. Advising/Grants: No formal advisees listed. Research is conducted under Prof. Nicolas Voelcker's lab, with a focus on translational nanomedicine. Labs/Teams: Active member of Prof. Voelcker's lab at Monash University, contributing to interdisciplinary research in drug delivery and biomedical engineering.

• Nanomedicine
• Drug Delivery
• Cancer Treatment
• +3 more

Dr. Laura Lechuga Gómez is a CSIC Research Professor and Group Leader at the Institute of Nanoscience and Nanotechnology (ICN2), focusing on NanoBiosensors and Bioanalytical Applications . Her research emphasizes plasmonic and photonic biosensors for clinical, biomedical, and environmental diagnostics. Key projects include label-free detection of pathogens, autoimmune markers, and environmental pollutants. She leads an interdisciplinary team advancing point-of-care platforms for conditions such as tuberculosis, cancer, and preeclampsia. Research Interests span nanotechnology, biosensor design, and analytical chemistry. Her work bridges fundamental physics and applied biomedical engineering, with a focus on translating lab innovations into real-world diagnostic tools. Recent advances include biomimetic sensors for immunotherapy evaluation and veterinary SARS-CoV-2 detection. Publications (2025–2022) highlight cutting-edge contributions in Biosensors & Bioelectronics , Analytical Chemistry , and Nanomaterials , addressing challenges in sensor sensitivity, integration, and clinical validation. Her team collaborates globally on EU-funded projects, advancing nanotechnologies for health and environmental monitoring. Laura’s group develops portable platforms using silicon photonics and plasmonic systems, enabling rapid diagnostics in resource-limited settings. Ongoing work explores mRNA cleavage for splicing analysis and microfluidic integration for automated assays.

• Nanotechnology
• Biosensors
• Medical Diagnostics
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Jonathan Jeffers is a Professor of Mechanical Engineering and Associate Dean for Enterprise at Imperial College London's Faculty of Engineering. He leads the Medical Engineering division, focusing on healthcare technology and improving surgical treatments for osteoarthritis. His research spans biomedical engineering, clinical sciences, and materials engineering, with affiliations to networks like the Additive Manufacturing Network and the Centre for Blast Injury Studies. He co-founded OSSTEC and Additive Instruments, advancing implant and surgical tool technologies. His work emphasizes additive manufacturing in orthopedics, including stiffness-matched knee implants and regenerative biomaterials. Awards include an NIHR Research Professorship. Education: BSc in Mechanical Engineering from Trinity College Dublin and PhD from the University of Southampton. Research Interests: Development of regenerative orthopedic implants, biomechanics of joint surgery, and integration of machine learning in surgical customization. His team explores material properties of lattice structures and their application in bone scaffolds. Recent projects include optimizing hip resurfacing techniques and reducing implant revision risks via advanced materials and surgical tools. Key Contributions: Co-developed ceramic hip resurfacing implants with long-term success and pioneered automated implant customization using CT/X-ray data. His work on capsular mechanics post-arthroplasty has advanced surgical techniques. Industry collaborations include Finsbury Orthopaedics and Embody Orthopaedic, blending academic and industrial innovation. Labs/Teams: Medical Engineering division at Imperial, leading a 50-member team in healthcare tech. Active in the Institute for Deep Tech Entrepreneurship, fostering academic-industry partnerships.

• Biomedical Engineering
• Clinical Sciences
• Human Movement and Sports Sciences
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Admir Masic is an Associate Professor at MIT's Department of Civil and Environmental Engineering, where he leads the Masic Lab. His research focuses on sustainable construction materials, particularly cement-based systems, and integrates insights from ancient materials to address modern environmental challenges. He holds tenure and is a faculty fellow in Archaeological Materials at the Center for Materials Research in Archaeology and Ethnology (CMRAE). Education: PhD in Physical Chemistry (University of Turin, Italy) and postdoctoral research at the Max Planck Institute of Colloids and Interfaces. His work spans biomineralization, self-healing concrete, and carbon capture technologies. He co-directs the MIT Concrete Sustainability Hub and founded the MIT Refugee Action Hub (ReACT), providing education for displaced learners. Research highlights include revealing the self-healing mechanisms of Roman concrete, developing carbon-storing cement composites, and creating energy-storing supercapacitors using ancient materials. His lab employs advanced techniques like Raman spectroscopy and correlative imaging to bridge nanoscale phenomena with macro-engineering applications. Awards: Tenured at MIT (2024), numerous grants from industry partnerships. Grants: Collaborations with Japanese industry via MIT EC^3 Hub, funding for sustainable infrastructure projects. Labs/Teams: Masic Lab, MIT EC^3 Hub, MIT ReACT, and the Concrete Sustainability Hub. Active in translating research into industrial applications through partnerships like DMAT Performance Matters.

• Sustainable Construction Materials
• Biomineralization
• Carbon Sequestration in Concrete
• +5 more

Dr. Amir Al Ghatta is an Honorary Research Fellow in the Department of Chemical Engineering at Imperial College London, specializing in sustainable chemistry and ionic liquid applications. His research focuses on developing green chemical processes using ionic liquids for biomass fractionation and valorization. Key areas include sustainable production of bio-based chemicals, furanic compound synthesis, and techno-economic assessment of novel processes. His work bridges fundamental chemistry with practical industrial applications in renewable materials and waste valorization. Publications demonstrate innovations in converting biomass feedstocks into valuable chemicals while minimizing environmental impact. Research themes consistently emphasize process efficiency, economic viability, and replacement of petrochemical-based processes with sustainable alternatives.

• Ionic Liquids
• Sustainable Chemistry
• Biomass Valorization
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Dr. Alessandro Faroni is Research Associate in the Blond McIndoe Laboratories at University of Manchester, investigating novel strategies for peripheral nervous system repair. Holds PhD in Developmental Biomedicine (Manchester, 2012) and MSc in Pharmaceutical Biotechnology (Milan, 2008). Research develops stem cell therapies and biomaterials for nerve regeneration. Methodological expertise includes neuronal cell culture, molecular biology techniques, and confocal microscopy. Teaches tissue engineering tutorials for MRes students.

• Peripheral Nerve Regeneration
• Stem Cell Therapies
• Biomaterials Engineering
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Glenn R. Gaudette is the John W. Kozarich ’71 Chair and Professor in the Department of Engineering at Boston College. He pioneered plant-based scaffolds for heart regeneration and cellular agriculture, featured in global media including BBC and Netflix. His work bridges biomaterials science with engineering education, emphasizing human-centered design and sustainability. Educational Background: PhD in Biomedical Engineering. He developed Boston College’s first Engineering program, integrating innovative research with interdisciplinary teaching. Research focuses on tissue engineering, biomechanics, and scalable solutions for regenerative medicine and cellular agriculture. His lab’s spinach-based scaffolds revolutionized lab-grown meat research, while decellularized plant materials enable vascularized tissue constructs. Publications highlight advancements in biomaterials, bioengineering education, and sustainable bioprocessing. Over 200k citations across disciplines reflect his cross-field impact. Awards: NAI Fellow, AIMBE Fellow, Top 2017 Altmetric Paper Patents: Bladder mapping systems, plant-derived tissue scaffolds Advises undergraduate researchers (8 named in patents) and leads NSF-funded projects. Co-directs BC’s Engineering Innovation Lab, emphasizing empathy-driven design and social justice in engineering. Labs/Teams: Plant-based Biomaterials Group, Bioengineering Education Collective, BC Tissue Engineering Core.

• Biomechanics
• Tissue Engineering
• Cellular Agriculture
• +4 more

António Manuel de Bastos Pereira is a Full Professor at the Department of Mechanical Engineering, University of Aveiro, Portugal. He has held significant leadership roles including Director of the Master's program in Welding Engineering and Director of the Research Unit Centre for Mechanical Technology and Automation (TEMA) from 2015 to 2024. Under his leadership, TEMA was classified with the highest rating by FCT and included in the European network of Key Enabling Technologies institutions. Dr. Pereira's research focuses on materials science, particularly the study of materials from composites to metals. His work spans advanced manufacturing technologies, surface engineering, and mechanical characterization of materials. He has published 97 articles in SCI journals with 2140 citations and an h-index of 29 (Scopus), demonstrating significant impact in his field. His research has led to the development of over 500 industrial projects worth approximately 100 million euros. His recent publications reveal consistent research trends in materials characterization, advanced manufacturing processes, and sustainable engineering solutions. Key themes include laser processing of materials, welding technologies, composite materials, surface treatments, and thermal engineering applications. His work often combines experimental and numerical approaches to solve practical engineering challenges, with growing emphasis on sustainable manufacturing methods and energy efficiency. Dr. Pereira has supervised numerous graduate students across various mechanical engineering topics, particularly in welding, materials processing, and mechanical design. He has been Principal Investigator for 39 scientific research projects and collaborated in 68 projects total, securing significant research funding. His project portfolio includes national and European initiatives focused on sustainable manufacturing, advanced materials, and innovative industrial processes. As Director of TEMA, he coordinated over 100 researchers within the Research Unit Centre for Mechanical Technology and Automation. TEMA is included in the "Portuguese Roadmap of Research Infrastructures of Strategic Relevance" and was selected to be part of the European network of institutions relevant within Key Enabling Technologies (KETs). Dr. Pereira also coordinated the thematic line "Innovative and Sustainable Industries" of LASI, Portugal's largest associated laboratory with around 500 PhD researchers. His leadership has positioned these research units as key players in technology transfer to small and medium enterprises across Portugal.

• Materials Science
• Composite Materials
• Metals
• +3 more

Leonardo Marchese is a Full Professor at the Department of Science and Technological Innovation, Università degli Studi del Piemonte Orientale 'Amedeo Avogadro'. His research focuses on advanced materials for environmental and energy applications, particularly porous materials for gas storage, pollutant removal, and sensor development. He leads projects like ECOSTORE-H2 (2023-2025) targeting eco-friendly hydrogen storage and ECOH2STORE for sustainable porous materials. Key research interests include: Functionalized silica and mesoporous materials Nuclear Magnetic Resonance (NMR) characterization Environmental monitoring sensors Waste-derived materials (e.g., rice husk, insect chitin) Adsorption mechanisms for pollutants/metals Recent projects involve collaborations in: Hydrogen storage solutions Biodegradable polymers from insect larvae Efficient water purification systems 3D-printed porous structures Prominent contributions include over 370 publications (2025: 2 articles; 2024: 23; 2023: 14), with emphasis on material synthesis and applications in sustainability. No awards are explicitly listed, but his work aligns with UN SDGs for clean energy and responsible consumption.

• Materials Science
• Environmental Chemistry
• Nanotechnology
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Dr. Benjamin Long is a Lecturer in the Science discipline at Federation University, Australia. His research focuses on molecular interactions in environmental and biomedical contexts, including pharmaceutical contamination in water systems and self-assembling hydrogels for medical applications. He holds a PhD from Deakin University (2014) and has held postdoctoral and teaching roles at the University of Sydney and Deakin University before joining Federation University in 2017. His teaching includes units like Chemistry I, II, Organic Chemistry for Drug Design, and Medicinal Chemistry. Research Interests: Benjamin’s work spans environmental chemistry (pharmaceuticals in ecosystems) and biomaterials engineering (hydrogel scaffolds for tissue engineering). His projects include elucidating pyrophosphate detection mechanisms, analyzing invasive species like Lactuca serriola, and developing functionalized peptides for biomedical applications. Recent studies highlight innovations in supramolecular assembly and eco-toxicological assessments. Key Contributions: His publications explore hybrid hydrogels for 3D printing, electrochemiluminescent sensors, and nanotube-based biomaterials. He actively participates in conferences like ACSME and RACI events, contributing to organic chemistry and synthesis advancements. His work bridges environmental science and engineering through interdisciplinary approaches. Teaching & Collaboration: Benjamin integrates research into teaching via projects like the Bush Medicine Project. He collaborates with institutions like Deakin University and the University of Sydney, advancing methodologies in analytical chemistry and sustainable materials science.

• Environmental Chemistry
• Pharmaceutical Analysis
• Materials Science
• +3 more

Dr. Jeffrey Weitz is a Professor in the Departments of Medicine and Biochemistry and Biomedical Sciences at McMaster University, and serves as Executive Director of the Thrombosis and Atherosclerosis Research Institute (TaARI). He holds prestigious academic titles including the Tier I Canada Research Chair in Thrombosis and the Fraser Mustard Chair in Cardiovascular Research. His research focuses on hemostasis, thrombosis, and anticoagulant therapies, with a particular emphasis on developing safer anticoagulants targeting factor XI and improving medical device biocompatibility. Dr. Weitz leads a multidisciplinary team investigating mechanisms of thrombosis, clot formation regulation, and novel therapies to reduce cardiovascular-related mortality. His work spans translational research, clinical trials, and epidemiological studies, with contributions to understanding polyphosphate's role in coagulation and the development of clot-resistant medical device coatings. TaARI, under his leadership, bridges basic and clinical research to address thrombosis and bleeding disorders. Key achievements include advancements in factor XI inhibition and the design of anti-thrombogenic materials. Research Clusters: Health & Bio-innovation Key Awards: Tier I Canada Research Chair, Fraser Mustard Chair Labs: Weitz Lab (focusing on coagulation mechanisms and anticoagulant development) Dr. Weitz collaborates with bioengineers to innovate biomaterials and devices, while maintaining clinical relevance through anticoagulant trials like AXIOMATIC-TKR and AZALEA-TIMI 71. His lab's recent studies explore histidine-rich glycoprotein's role in clotting regulation and polyphosphate toxicity mitigation.

• Thrombosis
• Hemostasis
• Atherosclerosis
• +3 more

Juanma Fernandez Costa is a Researcher at the Institute for Bioengineering of Catalonia (IBEC), leading the Biosensors for Bioengineering research group. His work focuses on advancing bioengineering solutions for muscular dystrophies through innovative 3D in vitro models and tissue engineering platforms. Key contributions include developing xeno-free skeletal muscle tissues, functional Duchenne muscular dystrophy models, and organ-on-a-chip systems to study disease mechanisms and therapeutic interventions. Research interests span biosensor integration in tissue models, regenerative medicine applications, and translational research bridging bench and clinical settings. Notable projects include muscle-atrophy studies linked to non-alcoholic fatty liver disease, drug testing platforms for steroid myopathy, and miRNA-based therapies for myotonic dystrophy type 1. Collaborations involve multi-organ systems to explore metabolic interactions, such as muscle-exercise effects on insulin secretion. His lab pioneered plasmonic biosensors for real-time fibrosis monitoring and functional skeletal muscle models enabling preclinical drug evaluation. Current efforts emphasize scalable bioengineered tissues and systems integration for complex disease modeling.

• Biosensors
• Tissue Engineering
• Muscular Dystrophies
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Professor Helen Byrne is a Professor of Applied Mathematics at the University of Oxford’s Mathematical Institute and a Tutorial Fellow at Keble College. She specializes in mathematical modeling of biomedical systems, with a focus on tumor growth, wound healing, and tissue engineering. Her research bridges applied mathematics, statistics, and data science to address fundamental biomedical questions. She has held roles including Associate Head of Department (Planning & Equality), Senior Mathematics Tutor at Keble College, and Director of Equality and Diversity in the Mathematical, Physical and Life Sciences Division. Her work has been recognized through prestigious awards such as the 2021 Australian Laureate Fellowship and the 2019 Leah Edelstein-Keshet Prize. Her publications emphasize interdisciplinary applications of mathematical biology, including tumor-immune interactions, vascular dynamics, and epigenetic landscapes. Key contributions include modeling tumor-induced angiogenesis, liver assembloids, and atherosclerotic plaques. Current projects aim to develop novel mathematical frameworks for interpreting complex biomedical data. Research Grants: $3,021,288 ARC Australian Laureate Fellowship (2021) for 'New Approaches to Understand How Form and Function Shape Complex Systems.' Awards: 2021 Australian Laureate Fellowship (ARC) 2019 Leah Edelstein-Keshet Prize (Senior Award) 2020 Fellow of the Society for Mathematical Biology Labs/Teams: Part of the Mathematical Biology research group at Oxford, contributing to collaborative projects in tumor modeling and biomedical systems.

• Mathematical Biology
• Cancer Biology
• Tissue Engineering
• +3 more