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Margit SchulzeView profile

Professor

• Industrial Organic Chemistry
• Polymer Chemistry
• Lignin Research
• +7 more

Prof. Dr. Margit Schulze is Professor of Industrial Organic Chemistry and Polymer Chemistry at the Department of Applied Natural Sciences, Hochschule Bonn-Rhein-Sieg (H-BRS), within the Institute of Technology, Resource Conservation and Energy Efficiency (TREE). She maintains significant external academic affiliations as Privatdozent at the University of Bonn, External Expert for the PhD School at the University of Palermo, Italy, and Speaker for 'Circular Value Creation' in the NRW Doctoral College. Her research bridges fundamental chemistry with practical applications in sustainable materials development. Her research focuses on biopolymer isolation, technical catalysis, and water treatment with emphasis on lignin processing and renewable resource conversion. Prof. Schulze leads multiple research projects including BiopolymerModell for developing faster biopolymer analysis methods, LignoBau for lignin-based construction materials, and CytoTransport investigating cellular transport processes. Her work spans from fundamental molecular characterization to practical applications in packaging, biomedicine, and construction materials. Prof. Schulze supervises numerous doctoral candidates through cooperative programs with multiple universities. She has successfully guided students to completion including Dr. Roman Grimmig (2024), Dr. Katharina Walbrück (2023), and Dr. Jessica Rumpf (2023). She actively mentors through programs including GDCh's 'CheMento', FRAMES at University of Siegen, and Metra at University of Bonn. Her Schulze-Williams-Witzleben working group offers extensive student research opportunities through theses and projects. She teaches across multiple programs: Organic Chemistry (BSc CM), Organic Chemistry (BSc Bio), Macromolecular Chemistry (BSc CM), Organic Chemistry III (BSc NatFor & BSc CM), Organic Chemistry and Biochemistry (MSc AQS), and Sustainable Materials 2 (MSc MSSM). Funded by the Chemical Industry Fund's Blue Rail project, her teaching integrates practical sustainable chemistry applications. She serves as Academic Advisor for Chemistry students and Ethics Officer for her department since 2021.

• Surface Science
• Colloid Science
• Nanoscience
• +4 more

Tommy Nylander serves as Expert Professor of Physical Chemistry at Lund University's Faculty of Engineering (LTH), where he is Principal Investigator for NanoLund: Centre for Nanoscience. He holds cross-disciplinary roles in LU's Light and Materials profile area and LTH's Food and Bio initiative, reflecting his integrative research approach spanning surface science, colloid chemistry, and nanotechnology. His research centers on lipid self-assembly, interfacial phenomena, and nanostructured biomaterials, employing neutron scattering, X-ray techniques, and microscopy to investigate systems like sponge-phase nanoparticles, vesicular dispersions, and protein-lipid interfaces. Recent work explores enzymatic modification of food lipids, therapeutic protein stabilization, and ion-specific adsorption effects on oxide surfaces, with strong applications in drug delivery and sustainable materials. Current publications (2025) reveal consistent focus on structural characterization of lipid nanoparticles across Food Hydrocolloids, Langmuir, and Journal of Colloid and Interface Science, demonstrating interdisciplinary collaboration with biologists and engineers for biomedical and food science applications. Notable recognitions include: Norblad-Ekstrand-medal (2017) for surface science contributions Berols Nordic Research price for PhD thesis (1988) He supervises 17 graduate students and leads major grants including Swedish Research Council funding for neutron reflectivity optimization (2025-2026), ESS instrument development, and dietary regulation of gut-brain barriers. His work addresses UN Sustainable Development Goals through sustainable materials and health innovations. Nylander manages Lund's Surface Characterization infrastructure and Super ADAM neutron facility, collaborating with European Spallation Source teams on next-generation scattering instruments while hosting international researchers like Ben Humphreys (2020-2021).

Mohammad LatifiView profile

Research Professor

• Chemical Engineering
• Materials Science and Technology
• Fuels and Energy Technology
• +7 more

Dr. Mohammad Latifi is a Research Professor (Class II) in the Department of Chemical Engineering at Polytechnique Montréal, where he established his research career starting as a postdoctoral fellow in 2012. He leads the Advanced Process Engineering Research Laboratory (PEARL) and holds an NSERC-Discovery grant focused on metal recycling and chemical recycling of plastics from electronic waste. His industrial collaborations include projects with TOTAL (France), OCP Group (Morocco), Johnson Matthey Battery Materials (Canada), and other international partners. Dr. Latifi completed his Ph.D. in Chemical and Biochemical Engineering at Western University (Canada, 2012), M.Sc. at University of Tehran (Iran, 2003), and B.Sc. at Babol Noushiravani University of Technology (Iran, 2001). Prior to joining academia, he worked in Iran's oil and petrochemical industry with companies including NIPC, NIOC, and IOEC. His research focuses on sustainable process engineering with emphasis on: Clean energy technologies including biomass conversion and syngas production Advanced reactor designs like induction-heated fluidized beds and microwave-assisted systems Resource recovery through metal recycling and mineral processing Electrification of industrial processes for reduced carbon footprint He has developed innovative reactor technologies including the Induction Heating Fluidized Bed Reactor (IHFBR) and Jiggle Bed Reactor (JBR). Analysis of his recent publications reveals strong focus on sustainable chemical processes, with recurring themes in microwave-assisted reactions, fluidized bed reactor design, waste valorization, and materials for energy applications. His work frequently bridges fundamental reaction engineering with industrial implementation. Dr. Latifi contributes to academic training through courses including: GCH-6201: Catalysis and applied kinetics GCH-6902: Design of gas-solid reactors GCH-8103: Biomass conversion GCH-8104: Mineral Processing He actively recruits graduate students and founded the cleantech startup NeoCtech Corp. to commercialize rare earth element recycling technologies.

Yannis IeropoulosView profile

Professor

• Environmental Engineering
• Bioelectrochemistry
• Autonomous Bio-Robotics
• +3 more

Professor Yannis Ieropoulos, Head of the Water and Environmental Engineering Group (WEEG) at the University of Southampton, is a leading figure in bioelectrochemical systems and environmental engineering. With over 20 years of experience, his work focuses on waste-to-energy technologies, particularly microbial fuel cells (MFCs), which power autonomous biosystems like the EcoBot family of robots and the Pee Power® urinal system. His research spans Energy autonomy via MFCs Sanitation solutions for developing countries Ultra-low power electronics Biofilm engineering He leads Horizon Europe projects like MI-HY and MET-C, and previously drove the EU FET OPEN 'Living Architecture' and ALICE projects. Scientific awards include EPSRC Career Acceleration Fellow (2010-2015) He has secured over £6M in research funding and published 150+ peer-reviewed articles. As a PhD supervisor, he mentors students in waste-to-energy systems, wearable bio-devices, and environmental remediation. His editorial roles include Editor for Energy Reports Reviewer for Scientific Reports Current projects involve scaling MFC technology for real-world implementation in non-sewered environments.

• Structural Cell Biology
• Cancer Biology
• Vascular Biology
• +4 more

Professor Filip Braet is an esteemed academic at The University of Sydney , serving as the Director of Sydney Microscopy and Microanalysis , Sydney Node Director of Microscopy Australia , and Professor of Structural Cell Biology within the Molecular Biomedicine Research Theme in the School of Medical Sciences . With over 35 years of experience, he specializes in correlative microscopy and biomolecular labeling to study structure-function relationships in cancer, vascular biology, and liver disease. Research Interests: Structural cell biology, cancer biology, vascular biology, chemical biology, nanobiotechnology, correlative imaging, and microscope development. Service Expertise: Core facility management, business planning, risk management, health and safety protocols, customer relations, and strategic infrastructure planning. Teaching Focus: Life sciences, histology, cellular microscopy, structural cell biology, and advanced imaging techniques. Current Projects include multimodal imaging in pathology, human liver atlas development, correlative microscopy workflows across X-ray/electron/photon modalities, and data ethics in bio-imaging. His work intersects the Cancer and Obesity/Diabetes/Cardiovascular Disease themes, employing cellular signaling, molecular analysis, and pathology approaches. Scientific Contributions span 3D ultrastructural mapping, fenestrae dynamics, and nanoparticle applications in cancer therapy. He has supervised numerous PhD projects on correlative microscopy and liver disease mechanisms.

• Structural Coloration in Plants
• Cellulose-Hemicellulose Interactions
• Molecular Dynamics Simulation
• +3 more

Dr. Hanieh Mianehrow is a postdoctoral researcher and Maria Skłodowska-Curie postdoctoral fellow at the Max Planck Institute of Colloids and Interfaces. She focuses on molecular dynamics simulations and experimental studies of cellulose-hemicellulose interactions, structural coloration in plants, and bio-inspired nanocomposite materials within the Department of Sustainable and Bio-inspired Materials led by Prof. Silvia Vignolini. Bachelor’s/Master’s in Polymer Engineering, Tehran, Iran PhD in Fiber and Polymer Science, KTH Royal Institute of Technology, Stockholm Her research explores the molecular mechanisms behind structural colors in fruits like Margaritaria nobilis, using molecular dynamics (MD) simulations to analyze xylan-cellulose interactions. She also investigates bio-nanocomposites of cellulose and graphene oxide, with applications in sustainable materials and mechanical reinforcement. Dr. Mianehrow’s publications focus on moisture effects in cellulose-graphene nanocomposites, interface engineering, and structural coloration. These works span nanotechnology, materials science, and computational modeling. Maria Skłodowska-Curie Postdoctoral Fellowship At the Max Planck Institute, she integrates advanced simulation techniques with experimental characterization to unravel the self-assembly processes in plant cell walls, aiming to develop novel bio-inspired materials with tailored optical and mechanical properties.

• Metabolic Engineering
• Microbiology
• Biochemistry
• +5 more

Ruud Weusthuis serves as a Personal Professor in Bio Process Engineering at Wageningen University, with extensive research output spanning multiple disciplines in biotechnology and metabolic engineering. His work focuses on microbial systems for chemical production, particularly using bacteria like Pseudomonas putida and yeast for bio-based chemical synthesis. His primary research interests include metabolic engineering of microorganisms for chemical production, optimization of fermentation processes, redox cofactor engineering, and development of cell factories for sustainable chemical production. His work bridges fundamental microbial physiology with applied bioprocess engineering, with particular emphasis on metabolic pathways for diol and organic acid production. Analysis of his recent publications reveals a strong focus on metabolic engineering of Pseudomonas putida for chemical production, yeast energy metabolism, and the development of novel redox cofactor systems. His research increasingly incorporates computational approaches for metabolic optimization and focuses on sustainable production of medium-chain chemicals from renewable resources. Ruud Weusthuis actively supervises PhD candidates and collaborates on multiple research projects, with current work focusing on energy conservation in microorganisms (ICEMAN project), non-canonical redox cofactors (NWO-XL project), and metabolic modeling of production strains. His supervision portfolio includes projects on implementing non-canonical redox cofactors and optimizing fed-batch fermentation processes. His laboratory work centers on developing microbial cell factories, particularly focusing on Pseudomonas putida systems for diol production, yeast stress response mechanisms, and Monascus ruber for lactic acid production at low pH conditions. Current research directions include uncoupling growth and product formation through novel redox engineering approaches.

• Advanced Composite Materials
• Nanocomposites
• Elastomer Compounds
• +3 more

Miguel Angel Lopez Manchado is a Research Professor at the Institute of Polymer Science and Technology, Spanish National Research Council (CSIC), Madrid, Spain. His work focuses on advanced composite materials, particularly self-healing elastomers and sustainable polymer design. PhD : Chemistry Sciences, Universidad Complutense de Madrid (1997) Postdoctoral : University of Perugia (1998-2000) CSIC Affiliation : Ramon y Cajal Contract (2002), Tenured Researcher (2006), Research Scientist (2011), Research Professor (2016) His research centers on composite materials , self-healing polymers , and elastomer sustainability , with a focus on structure-property relationships and recycling. Recent articles highlight innovations in physically unclonable labels , bio-based vitrimers , and gamma radiation shielding composites . Scientific achievements include the IX Talgo Award for Technological Innovations (2009) and patents on: Thermoset Conductive Foams Electrochemically Active Nanoparticulated Polymers Physically Unclonable Labels He pioneers self-healing composites for automotive and packaging applications, with expertise in polymer synthesis, nanocomposite characterization, and circular economy strategies.

Cat MazzaView profile

Professor

• Textiles
• Digital Media
• Technology
• +3 more

Cat Mazza is Professor of Art at the University of Massachusetts Boston since 2007, where her practice bridges textile traditions, digital technology, and critical labor studies through innovative visual art forms. Her educational background includes: MFA in Integrated Electronic Arts, Rensselaer Polytechnic Institute (2005) BFA in Studio Art, Carnegie Mellon University (1999) Mazza's research investigates how knitting and electronic media converge to expose hidden labor systems in technological production. Her work transforms textile craft into political commentary through algorithmic design and interactive installations, challenging distinctions between handmade and machine-made while highlighting gendered labor histories. This interdisciplinary approach positions craft as critical infrastructure for examining contemporary techno-capitalism. Her recent creative output demonstrates consistent evolution in electronic textile applications, moving from single-channel animations like "Knit for Defense" to complex sculptural installations that merge physical computing with traditional fiber techniques. These works establish textiles as active interfaces for engaging with labor politics, biotechnology, and resistance strategies in digital culture. Mazza's artistic contributions have been recognized through prestigious awards: Creative Capital Fellowship MacDowell Colony Fellowship Craft Research Fund Fellowship Now+There Public Art Accelerator Fellowship Rockefeller Foundation Fellowship As a professor at UMass Boston, Mazza mentors emerging artists while maintaining an active studio practice. Her early career at Eyebeam (1999-2002) established foundational collaborative methodologies that continue to inform her interdisciplinary approach, bridging art, technology development, and social critique within academic and public spheres. Mazza's work occupies significant space in major collections including the Smithsonian American Art Museum, with international exhibitions spanning the Victoria & Albert Museum, Museum of Arts and Design, and Triennale Design Museum, demonstrating sustained relevance across art, craft, and technology discourse.

Domenico LongoView profile

Assistant Professor

• Agricultural Engineering
• Precision Farming
• Mechatronics
• +5 more

Domenico Longo is an Assistant Professor at the University of Catania, affiliated with the College of Engineering and the Department of Mechanics and Mechanisation. His research focuses on agricultural machinery design, mechatronics, biosensors, and environmental monitoring systems, with a strong emphasis on robotics and automation. He has extensive experience in developing climbing robots for industrial inspection, non-linear modeling, and control algorithms, and currently works on precision farming technologies, bio-sensors, and pesticide distribution analysis. Research Highlights: Development of UV-C spectrophotometers for SO 2 measurement, low-cost CO 2 flux detection methods, and robotic platforms for volcanic and agronomic monitoring. Collaborations: Active partnerships with INGV (National Institute of Geophysics and Volcanology), CNR-IMM (National Research Council - Institute for Microelectronics and Microsystems), and DIEEI (Department of Electronic, Electrical and Computer Engineering). Teaching: Responsible for courses in Machinery and Systems for Biotechnology, with office hours on Wednesdays and Thursdays (11:00–13:00) and MS Teams code sfxzck3 for virtual meetings. Location: Office at Via S. Sofia, 100 - 1st floor, Building B, room B1/10, Catania, Italy.

• Structural Biology
• Protein Crystallography
• Fragment-Based Drug Discovery
• +5 more

Dr. Tom Peat is an Adjunct Professor at the University of New South Wales (UNSW) within the School of Biotechnology and Biomolecular Sciences. With a strong background in molecular biophysics and structural biology, he has made significant contributions to protein crystallography and structure-based drug development. BA in biophysics and biochemistry from University of California at Berkeley Masters and PhD from Columbia University in Molecular Biophysics Dr. Peat's research spans structural biology, protein engineering, and drug discovery, with a particular focus on fragment-based screening approaches. His work has significant implications for cancer therapeutics, enzyme mechanisms, and structural enzymology. He has contributed over 300 structures to the Protein Data Bank and has been actively involved in fragment screening technologies for structure-based drug development. Two of the projects he has been involved with have progressed into phase 2 clinical trials for cancer treatments. Analysis of his recent publications (2020-2024) reveals a consistent research trajectory in structural biology with applications in drug discovery. His work frequently involves protein crystallography to understand enzyme mechanisms, particularly related to carbonic anhydrases, cancer targets, and biocatalysts. The publications demonstrate expertise in fragment-based drug discovery, structure-activity relationships, and applying structural insights to therapeutic development, especially in oncology. Dr. Peat has founded two biotechnology companies in Australia and has been involved with early-stage biotech companies in the US, demonstrating his ability to translate academic research into commercial applications. His collaborations span multiple institutions and research groups, reflecting the interdisciplinary nature of modern structural biology and drug discovery. His laboratory work appears to focus on protein structure-function relationships, with particular emphasis on enzyme mechanisms relevant to drug development. The extensive publication record indicates active research programs in structural biology with applications to cancer therapeutics, enzyme engineering, and biocatalysis.

• Materials Science
• Polymer Chemistry
• Polymer Composites
• +3 more

Fanny BONNET is a CNRS Research Director at the Materials and Transformations Unit (UMET, CNRS UMR 8207) of the University of Lille, France, based in the Chevreul Building in Villeneuve d'Ascq. She leads research in polymerization catalysis, reactive extrusion, and thermoplastic resin transfer molding (TP-RTM) within the Polymer Systems Engineering team, focusing on sustainable biopolymer composites derived from renewable resources. Her research spans Materials Science and Polymer Engineering with specific expertise in polylactide (PLA) modification, fire retardancy mechanisms, and catalytic synthesis using non-toxic metals. Key areas include one-step composite manufacturing via in situ polymerization, structure-property relationships in biosourced polymers, and dynamic covalent chemistry for recyclable matrices. She frequently collaborates with GEMTEX and UCCS laboratories on flax-reinforced composites and starch-based thermoplastics. Analysis of her 15 most recent publications (2018-2025) reveals consistent innovation in PLA biocomposites, with 60% centered on fire retardancy and reactive extrusion. Her work bridges industrial processing (TP-RTM, extrusion) and molecular design (chain shuttling, catalyst development), targeting applications in eco-friendly materials with enhanced mechanical and thermal properties. Notable journals include Polymer Degradation and Stability, Chemical Engineering Journal, and European Polymer Journal. Bonnet has supervised eight PhD students to completion and currently co-supervises two doctoral candidates: Former Students Xavier MOSCA (2024): Aluminum catalysts for cyclic ester shuttle copolymerization Marie Odile AUGé (2024): Reactive extrusion for PLA fire retardancy Bernard MIRANDA CAMPOS (2023): Polylactide with enhanced thermomechanical properties Thomas NAZé (2022): Additive manufacturing and fire reaction Elodie LOUISY (2019): Biosourced composites via RTM process Julie Meimoun (2017): Starch-based thermoplastic resins Sami FADLALLAH (2017): Organometallic catalysts from non-toxic metals Jean-Michel Berthé (2013): Eco-compatible PVC synthesis Current Students Jordan BEAUVOIS (2023): PLLA composites by TP-RTM Baptiste DUTAILLY (2023): Custom reinforcements for biopolymer composites She actively utilizes UMET's FireResist Platform and Chevreul Institute High Pressure Platform for experimental validation of polymer flammability and processing conditions. Her ORCID ID is 0000-0002-3776-6638.

• Bioengineering
• Biomaterials
• Tissue Engineering
• +4 more

Desiree Baruffaldi serves as a Fixed-term Assistant Professor in the Department of Applied Science and Technology (DISAT) at the Polytechnic University of Turin, specializing in Biochemistry (BIOS-07/A) within the Biological sciences domain. Her academic profile spans Bioengineering, Biomaterials, and Molecular Biology with strong ERC sector alignment in LS1_2, LS9_3, and LS1_14. Her research focuses on developing 3D in vitro models for antibacterial therapy screening, biomaterial-tissue interfaces for regenerative medicine, and advanced bioprinting techniques using GelMA hydrogels. Key methodologies include surface feature analysis of titanium alloys for osteoimmunomodulation and Carbopol-embedded printing for self-standing structures, demonstrating interdisciplinary innovation across bioengineering and translational medicine. Recent publications (2020-2024) reveal dominant trends in biomaterial scaffolds for skin/tissue engineering and tumor microenvironment interactions, primarily published in high-impact journals like ACS Applied Materials & Interfaces and Langmuir within Bioengineering and Biomedical Engineering disciplines. Scientific recognition includes: RIMINI SCHOOL 2025 "SUCCESSFULLY PARTICIPATE IN CALLS FOR RESEARCH FUNDING" issued by Politecnico di Torino (May 13, 2025) She actively contributes to academic governance as a member of the Chemical and Materials Engineering Collegio and invited member of the Electronic, Telecommunications and Physics Engineering Collegio. Her teaching portfolio encompasses Physics and Chemistry courses across Aerospace, Automotive, and Computer Engineering programs since 2022/23, reflecting strong institutional integration. Collaborative research networks include Simona Villata, Lucia Napione, and Francesca Frascella, with laboratory work centered on biomaterial characterization, 3D bioprinting platforms, and translational applications for regenerative medicine and cancer therapeutics.

• Robotics
• Mechatronics
• Medical Device Technology
• +2 more

Felix Pancheri is an employee at the Chair of Microtechnology and Medical Device Technology (MiMed) at the Technical University of Munich (TUM) since February 2021. Holding an M.Sc. in Mechatronics and Information Technology, he actively contributes to research and teaching within the MiMed group, supervising courses including Mechatronic Device Technology (MGT), Development of mechatronic devices (SMG), and Mathematical Tools (MTT). His research spans interdisciplinary domains with core focus areas: Robotics : Specializing in bio-inspired quadruped locomotion, soft robotics, and medical robotics applications Mechatronic Systems : Integration of mechanical, electronic, and software components for medical devices Advanced Manufacturing : Leveraging topology optimization and additive manufacturing for rapid prototyping Computational Design : Developing automated systems for custom mechanical structures Analysis of his 2021-2024 publications reveals consistent innovation in topology-optimized robotic mechanisms, particularly for legged locomotion and gripper systems. His work demonstrates strong bio-inspiration trends, translating natural movement principles into compliant mechanical designs fabricated through 3D printing. Medical applications form a significant thread, including surgical instrument development and 3D digitization techniques for surgical planning, reflecting the MiMed group's translational research focus. No scientific awards are documented for Felix Pancheri in available records. As an academic contributor, he supervises key courses: Mechatronic Device Technology (MGT) exercises Development of mechatronic devices (SMG) seminars Mathematical Tools (MTT) instruction While no individual grants are specified, he participates in MiMed's funded projects including IndiPrint, Arburg Automated Design, and CarrierBot, which advance automated design methodologies and robotic applications. The MiMed research environment provides state-of-the-art facilities for robotics prototyping, medical device development, and additive manufacturing, supporting his work on bio-inspired mechanisms and surgical robotics systems with strong industry-academia collaboration.

Muhammad Nasir UllahView profile

Researcher

• Radiation Detection
• Nuclear Medicine
• Medical Imaging
• +5 more

Muhammad Nasir Ullah is a researcher at the Molecular Imaging Instrumentation Laboratory at Korea University , with a Ph.D. in Bio-Convergence Engineering (2020) and a B.S. in Electronic Engineering (2012). His work focuses on radiation detection for medical applications, particularly in detector design for Positron Emission Tomography (PET) , intraoperative gamma probes, and hybrid ultrasound-gamma probe systems. BS: Electronic Engineering, International Islamic University, Islamabad, Pakistan (2012) Integrated MS+Ph.D.: Bio-Convergence Engineering, Korea University, Seoul, South Korea (2020) His research spans nuclear medicine instrumentation , frontend circuit design for radiation and ultrasound detectors, and hybrid imaging technologies . He has published extensively on sub-millimeter PET detectors, time-of-flight PET, and wavelength discrimination techniques. Notable trends include the integration of deep learning for PET calibration and the development of RF-penetrable PET inserts for MRI compatibility . Scientific awards include: IEEE NSS/MIC Trainee Grant (2020, 2016) Best Paper Award, Korea University (2020) Korea University Ph.D. Scholarship (2015-2020) 3rd Prize, Final Year Project, IIUI (2012) He holds 4 patents in South Korea and has contributed to projects like the 1-mm Resolution Dual Panel Clinical PET and CZT-based rhizosphere PET scanners . His work bridges radiation detection physics and medical device engineering , with a focus on clinical and plant imaging applications.