Find Academic Supervisors

• Polymer Science
• Rheology
• Complex Fluids
• +3 more

Wesley Burghardt serves as Associate Dean of Undergraduate Engineering and Professor of Chemical and Biological Engineering at Northwestern University's McCormick School of Engineering. Appointed in 1990, he previously chaired the Department of Chemical and Biological Engineering and oversees curriculum development, professional growth, and personal development initiatives for engineering undergraduates. His academic credentials include: Ph.D. in Chemical Engineering from Stanford University M.S. in Chemical Engineering from the University of Illinois B.S. in Chemical Engineering from the University of Illinois Burghardt's research pioneers optical and X-ray scattering methodologies to investigate complex fluid dynamics during polymer flow. Key focus areas encompass: Microstructure evolution in block copolymer gels under deformation Flow-induced crystallization mechanisms in polymers Rheological behavior of physically associating networks Nanocomposite orientation dynamics under shear In-situ structural characterization using synchrotron techniques Analysis of his 2018-2023 publications reveals dominant emphasis on Rheo-SAXS for capturing transient microstructure in deforming soft materials. His work systematically explores strain-temperature interdependencies in triblock gels, sphere-forming copolymer alignment mechanisms, and molecular origins of extensional strain hardening. Recent studies increasingly bridge polymer physics with biomedical applications through hydrogel research for 3D bioprinting and tissue engineering. No scientific awards were documented in the source materials. No student advising records or grant funding details were provided in the available content. His experimental program operates through a specialized laboratory focused on polymer rheology and advanced scattering techniques, supporting investigations into structure-property relationships in soft matter systems.

Antoniya HauerwaasView profile

Researcher

• Entrepreneurship
• Sustainable Development
• Innovation Management
• +3 more

Dr. Antoniya Hauerwaas is a researcher at the Institute for Management & Organization (IMO) within Leuphana University Lüneburg. She is a core member of the Wise STEP research team, focusing on Gender and Entrepreneurship, Social Identity and Entrepreneurship, and Sustainability Entrepreneurship. Her work bridges organizational psychology with sustainable innovation, addressing systemic challenges in urban development, healthcare systems, and consumer behavior toward sustainable practices across Germany and international contexts. Her research interests prioritize Entrepreneurship, Sustainable Development, and Innovation Management, with deep integration of Organizational Psychology and Social Identity frameworks. She investigates how institutional innovations emerge from urban 'spaces of possibility,' examining cultural dynamics in sustainable city development and systemic transformations in healthcare. Her methodology combines qualitative case studies, design thinking, and systems theory to analyze policy-practice gaps and co-creation mechanisms for inclusive work environments and circular economies. Analysis of her 13 publications (2008-2023) reveals a cohesive trajectory in sustainable innovation research. She consistently explores systemic change mechanisms, from healthcare transplant systems to urban sustainability transitions and consumer acceptance of biodegradable materials. Her work demonstrates interdisciplinary convergence across business, environmental science, and public policy, with increasing emphasis on gender dimensions in entrepreneurship and practical applications like the Sustainable Entrepreneurship Certificate (L-SEC). No scientific awards were documented in the source materials. Details regarding student advising, grant funding, or specific laboratory facilities were not provided, though her involvement in collaborative projects like MEHRCE (Circular Economy in Germany) and Social & Sustainable Entrepreneurship indicates active team-based research leadership. Dr. Hauerwaas contributes significantly to IMO's Social & Sustainable Entrepreneurship unit, particularly through the 'Sozial-innovative Transformation durch inklusive Arbeitswelten' (Social-innovative Transformation through Inclusive Work Environments) initiative. Her current projects emphasize digital platforms for entrepreneurship training and fostering innovation communities that accelerate regional development, reflecting IMO's strategic focus on transformative organizational practices.

Zhenkun LiView profile

Researcher

• Structural Engineering
• Bridge Health Monitoring
• Machine Learning
• +6 more

Zhenkun Li is a Postdoctoral Researcher at Aalto University’s Department of Civil Engineering, specializing in structural health monitoring (SHM) and computational methods. His research focuses on indirect SHM techniques, leveraging vehicle responses and machine learning for bridge damage detection. Research Interests: Structural Engineering, Bridge Health Monitoring, Machine Learning, Signal Processing, and Drive-By Inspection Methods. His work integrates convolutional neural networks, deep learning, and physics-guided models to analyze bridge dynamics via shared scooters, smartphones, and instrumented vehicles. Publication Trends: Recent articles (2023–2025) emphasize data-driven SHM, explainable machine learning for asphalt modeling, and innovative frameworks for bridge frequency identification. Techniques include multisynchrosqueezing transforms, Mel-frequency cepstral coefficients, and crowdsensing for real-time damage detection.

Carlos Gonzalez LopezView profile

Assistant Professor

• Polymer Science
• Rheology
• Polyelectrolytes
• +3 more

Carlos Gonzalez Lopez is an Assistant Professor in the Department of Materials Science and Engineering at Pennsylvania State University's College of Earth and Mineral Sciences. Joined in 2024, he leads research on soft matter systems with a focus on polyelectrolytes, poly(ionic liquid) gels, and colloidal dispersions. His work bridges fundamental polymer physics with practical applications in industrial settings. PhD in Chemical Engineering, Imperial College London MSc in Experimental and Theoretical Physics, University of Cambridge Dr. Lopez's research program investigates the structure-property relationships in complex polymeric systems. His work combines advanced experimental techniques including rheology, neutron scattering, and microfluidics to understand fundamental mechanisms governing polymer behavior in solution. His expertise spans polyelectrolyte solutions, cross-linked poly(ionic liquids), polysaccharide rheology, and polymer-ion interactions, with applications ranging from industrial detergents to advanced materials design. Recent publications reveal a strong focus on polyelectrolyte behavior under varying ionic conditions, nanoparticle-polymer interactions, and the rheological properties of complex biopolymer systems. His work demonstrates consistent innovation in understanding how molecular structure translates to macroscopic material properties, with particular attention to electrostatic effects and chain conformation in solution. Julia Higgins Centenary Prize for PhD work at Imperial College, London Dr. Lopez's research has attracted significant attention, with publications in high-impact journals including Macromolecules, Angewandte Chemie, and Soft Matter. His work on polyelectrolyte solutions has established him as a rising expert in polymer physics, particularly in understanding how counterion effects influence polymer conformation and solution properties. He maintains active collaborations with researchers in Germany and the United States, continuing his interdisciplinary approach to soft matter research.

Saeed SharifView profile

Associate Professor

• Artificial Intelligence
• Innovative Tele-Health
• Medical Technology
• +9 more

Dr Saeed Sharif is an Associate Professor in the Computer Science department at the School of Architecture, Computing and Engineering , University of East London . He leads the Intelligent Technologies Research Group and serves as Course Leader for MSc Computer Science programs. With a PhD in artificial intelligence from Brunel University London , his work bridges Artificial Intelligence , Medical Technology , and Smart Infrastructure . His research interests span Medical Image Analysis , Intelligent Diagnosis Systems , Big Data Analysis , and IoT Security . Collaborations with NHS Trusts and global institutions focus on improving healthcare systems through machine learning and biomedical signal processing. 2018-2022: £268,000 KTP project with Innovate UK Multiple Research Internship Schemes at UEL (2017-2021) European Research Centre collaboration (2015) As a technical committee member for conferences like IEEE CIT and a journal Guest Editor , he drives academic discourse. He has supervised numerous PhD students and served on examination panels, while maintaining 53+ publications in venues including IEEE Access , Applied Soft Computing , and Computer Methods and Programs in Biomedicine .

Suzanne NevilleView profile

Associate Professor

• Molecular Magnetism
• Spin-Crossover Materials
• Coordination Chemistry
• +5 more

Associate Professor Suzanne Neville is a distinguished researcher in the School of Chemistry at the University of New South Wales (UNSW), specializing in molecular magnetism and spin-crossover materials. Her work focuses on designing and developing advanced functional materials with applications in modern technology. Professor Neville received her Bachelor of Science (Hons) from the University of Sydney in 2000 and completed her Ph.D. in Chemistry there in 2005. She then pursued postdoctoral research at Monash University's Molecular Magnetism Group (2006-2008) followed by a Marie Curie Fellowship at the Institut de Chemie de la Matière Condensée de Bordeaux, France (2008-2009). She served as Laboratory Manager at CSIRO's Process Science and Engineering in Melbourne (2010), held Australian Research Fellowships at Monash University (2011-2012) and the University of Sydney (2013-2016), before joining UNSW as a Future Fellow and Associate Professor in Chemistry in 2017. Her research interests center on molecular switching nanomaterials, particularly spin-crossover materials that exhibit reversible changes in magnetic and optical properties in response to external stimuli. She investigates the structure-property relationships of coordination polymers and framework materials, with special focus on Hofmann-type frameworks. Her work spans synthetic inorganic chemistry, crystal engineering, and in situ structure-function studies of materials under various conditions. Professor Neville's publication record demonstrates consistent high-impact research in the field of molecular magnetism, with a particular emphasis on spin-crossover phenomena in coordination frameworks. Her recent work explores multistep spin transitions, guest-induced switching behavior, and the effects of structural modifications on magnetic properties. This research has significant implications for the development of molecular switches and sensors. RACI Inorganic Division Alan Sargeson Lectureship 2018 for significant and innovative contributions to the field Sandy Mathieson Medal for distinguished contributions to science involving X-ray, neutron, or electron diffraction Professor Neville currently leads several major research projects including a Future Fellowship (FT17) on "Molecular switching nanomaterials for modern technology," a Discovery Project (DP20) on "Emergent behaviours in spin crossover materials," and a Cooperative Research Centre Project on "Novel processing of pyrite ore to produce battery grade cobalt and sulfur." Her research group develops new synthetic approaches to create functional materials with applications in sensing, information storage, and energy technologies. Her laboratory focuses on the design and synthesis of polynuclear coordination materials, porous frameworks, and molecular switches that respond to thermal, light, and guest-induced stimuli. The team employs advanced characterization techniques including single-crystal and powder X-ray diffraction, magnetic susceptibility measurements, and spectroscopic methods to understand structure-property relationships in these materials.

Andrew HrymakView profile

Professor

• Polymer Processing
• Materials Engineering
• Computational Fluid Dynamics
• +4 more

Professor Andrew Hrymak is a distinguished academic in the Department of Chemical and Biochemical Engineering at Western University, where he has been a faculty member since 2009. Prior to his appointment at Western, he served as Professor and Department Chair at McMaster University from 1985-2009. During his tenure at Western, he held the position of Dean of the Faculty of Engineering from July 1, 2009 to July 31, 2018. He currently serves as Deputy Director of the Fraunhofer Project Centre for Composites Research at Western and has held significant editorial roles including Editor of Computers and Chemical Engineering (2002-2010) and Editor-in-Chief of International Polymer Processing (2004-2016). His educational background includes: PhD in Chemical Engineering from Carnegie Mellon University (1985) B.Eng. in Chemical Engineering from McMaster University (1980) Professor Hrymak's research focuses on the modeling, design, and optimization of materials processing systems, with particular emphasis on composites processing, injection molding, compression molding, mixing liquid coating flows, and complex rheology. His work integrates computational methods with experimental approaches to address challenges in polymer processing operations. His research spans multiple scales, from microscopic fiber-matrix interactions to macroscopic process modeling. He has made significant contributions to understanding the behavior of complex fluids and multiphase systems, particularly in the context of polymer composites manufacturing. His work often combines computational fluid dynamics with experimental validation to develop predictive models for industrial applications. Professor Hrymak's extensive publication record demonstrates a consistent focus on advancing the science and engineering of polymer processing, with recent work incorporating machine learning approaches to model complex material behaviors. His research has practical applications in automotive, aerospace, and manufacturing industries where composite materials play a critical role. His scientific recognition includes: Fellow of the Canadian Academy of Engineering (2010) Fellow of the Chemical Institute of Canada (2005) Excellence in Process Development Research Award by the Process Development Division of the American Institute of Chemical Engineers (2005) As an academic advisor, Professor Hrymak has mentored numerous graduate students through their PhD and Master's research. His current research group includes students working on projects related to structural long-fiber thermoplastics for automotive applications, compression molding simulation, and dip coating processes. His research has been supported by various funding sources including NSERC, Greenfield Global Products, and the Chinese Scholarship Council. He has also served on important committees including the Fellowship Selection Committees of the Chemical Institute of Canada and the Canadian Academy of Engineering, and was past Chair of the Board of Directors of the Chemical Institute of Canada. Professor Hrymak is actively involved with the Fraunhofer Project Centre for Composites Research at Western, where he serves as Deputy Director. His research group collaborates with industry partners on various projects related to composite materials processing and characterization. He has also been instrumental in developing the virtual process chain concept for sheet molding compound composites, which integrates multiple simulation tools to predict final part properties based on processing conditions.

Aleix Costa CornellàView profile

Researcher

• Materials Science
• Polymer Science
• Sustainable Materials Engineering
• +5 more

Aleix Costa Cornellà is a postdoctoral researcher specializing in Materials Science and Sustainable Materials Engineering , based in Brussels, Belgium. His work focuses on the synthesis and application of self-healing polymers for robotics and sensor systems, with a particular emphasis on integrating dynamic covalent bonds to enhance material properties. Key collaborations include projects with European Commission funding (EU626: Soft, Self-responsive, Smart Materials for Robots) Active in international conferences such as BioRob and ICRA40 ORCID profile: 0000-0003-2804-5641 Research Interests: Aleix's work bridges fundamental polymer chemistry with applied robotics, developing materials that combine associative/dissociative dynamic covalent bonds for improved healing efficiency and mechanical stability. Current projects explore microwave heating activation and fused granulate fabrication methods. Publication Trends: Recent outputs (2022-2024) emphasize self-healing polymers for sustainable robotics, additive manufacturing techniques, and viscoelastic material optimization . Collaborative work with industrial partners appears in Advanced Materials and Additive Manufacturing journals. Awards: RSC Applied Polymers Oral Presentation Award (2024) Advising: Supervised two Master's theses on conductive inks and molecular architecture optimization for self-healing materials, co-advised with Guy Van Assche and Joost Brancart. Labs & Collaborations: Part of the Belgian Polymer Group and ICRA40 conference networks. Collaborates with researchers in polymer physics, biomedical robotics, and sustainable manufacturing.

Maja Levak ZorincView profile

Researcher

• Marine Biogeochemistry
• Nanotoxicology
• Drug Delivery Systems
• +3 more

Maja Levak Zorinc is a postdoctoral Researcher at the Ruđer Bošković Institute , affiliated with the Division for Marine and Environmental Research and the Laboratory for Marine and Atmospheric Biogeochemistry . Her work spans interdisciplinary research at the intersection of marine biogeochemistry, nanotoxicology, and drug delivery systems. She employs advanced methodologies like atomic force microscopy (AFM) and bioelectrochemistry to explore microalgae stress responses, nanoparticle behavior in marine environments, and bioinspired material design. Education: PhD in Geology from the University of Zagreb (2020), focusing on silver nanoparticle stabilization in seawater. Her publications highlight expertise in nanoparticle-protein interactions , microalgae adaptation to environmental stressors , and marine-derived drug delivery systems . Recent journal articles delve into TiO2/Carbon electrode optimization and marine vesicle self-assembly , while conference proceedings address salinity stress in diatoms and biogeochemical responses . Collaborations with international institutions (e.g., University of Antwerp, CNRS) underscore her global research network. Despite no listed awards, her work contributes to understanding nanomaterial fate in marine ecosystems and biotechnological applications of algae .

Joseph BakerView profile

Professor

• Computational Biochemistry
• Molecular Dynamics Simulations
• Biophysics
• +3 more

Joseph Baker is a Professor of Chemistry at The College of New Jersey (TCNJ), where he leads the Baker Computational Chemistry Lab within the School of Science. His research focuses on Computational Biochemistry , Molecular Dynamics Simulations , and Biophysics , with an emphasis on bacterial adhesion pili, protein structure-function relationships, and High Performance Computing (ELSA Cluster) . He earned his Ph.D. in Physics from the University of Arizona in 2011. Research Interests : Computational modeling of biomolecular systems, protein mechanics, bacterial surface structures, AI-driven peptide design, and biomechanical stability. Recent Trends : His 2025–2024 publications highlight collaborations with students on histatin-5 interactions, SARS-CoV-2 nanobodies, and force-induced pilus dynamics using tools like ProteinMPNN and Martini coarse-grained simulations. Scientific Recognition includes multiple MUSE Awards , the Barbara Meyers Pelson Award , and the American Chemical Society Outreach Volunteer of the Year Award . He mentors undergraduate and graduate students, including Giovanny Parada , and has secured over $2 million in grants from NSF , NASA , and NIH to study protein resilience and enhance computational infrastructure.

• Electromagnetic Modeling
• Multi-Physics Simulation
• Non-Destructive Testing
• +3 more

Prof. Didier Trichet is a full Professor in Electrical Engineering at Polytech'Nantes (School of Engineering) of Nantes University, France. He became chair of the IREENA lab (Nantes-Atlantique Electrical Energy Research Institute) in 2022 after serving as former head of Nantes University's Master 2 Electrical Energy international program. PhD in Electrical Engineering (Nantes University, 1999) Accreditation to supervise researchers (2012) His research focuses on advanced numerical modeling of multi-physic and multi-scale electromagnetic phenomena applied to low frequency devices, electrothermal processes, Non-Destructive Testing (NDT), diagnosis of complex electrical structures, fuel cell power trains, and power electronics. He has authored/co-authored over 130 papers and 32 technical reports, with expertise in FP7, H2020, and PHC projects. Recent publications analyze: Carbon fiber composite conductivity via inversion methods Domain decomposition for electromagnetic simulations Topology optimization of actuators Inter-ply percolation in laminated composites Magnetic permeability evaluation using eddy currents Induction welding of composites Scientific Awards: 2 research awards from French Ministry of Education IEEE Transactions on Magnetics Associate Editor French Excellence Research Grant recipient since 2007

Thomas BlochowiczView profile

Associate Professor

• Structure and Dynamics of Amorphous Systems
• Glass Formation
• Molecular Dynamics
• +5 more

Thomas Blochowicz is an Associate Professor at the Institute for Condensed Matter Physics at Technische Universität Darmstadt, where he leads the research group focused on Structure and Dynamics of Amorphous Systems. He serves as Head of the Basic Physics Laboratory Course and maintains an active research program investigating molecular dynamics in disordered materials. His research spans multiple areas including glass formation, hydrogen-bonding liquids, ionic liquids and ionogels, and binary systems under confinement. Blochowicz's group employs a wide range of complementary experimental techniques to study these systems, with particular expertise in broadband dielectric spectroscopy (BDS), depolarized dynamic light scattering (DDLS), triplet solvation dynamics (TSD), differential scanning calorimetry (DSC), and quasi-elastic neutron scattering (QENS). Analysis of his recent publications reveals a strong focus on understanding the relationship between molecular structure and dynamic processes in amorphous systems. His work particularly examines spectral shapes of structural relaxation, hydrogen-bonding networks in liquids, confinement effects on molecular dynamics, and the development of novel measurement methodologies. The research has significant implications for understanding fundamental glass physics and developing advanced energy materials. Blochowicz actively supervises doctoral students including Till Böhmer and Rolf Zeißler, and his group offers numerous opportunities for bachelor's and master's theses across various research topics in condensed matter physics. His laboratory maintains strong connections with other research groups at the Institute for Condensed Matter Physics, contributing to a vibrant research environment focused on soft matter and glass physics.

Helen TranView profile

Assistant Professor

• Polymer Chemistry
• Materials Science
• Biological Chemistry
• +5 more

Helen Tran is an Assistant Professor at the University of Toronto, affiliated with the Department of Chemical Engineering and Applied Chemistry within the Faculty of Arts & Science. Her research focuses on designing polymers for next-generation electronics, emphasizing materials with self-assembly, degradability, and electronic functionality. These innovations target applications in health diagnostics, environmental monitoring, and sustainable technologies. Tran’s work bridges polymer chemistry and materials science, addressing challenges in biointegration and sustainability. Key areas include degradable conjugated polymers for transient electronics and soft, stretchable materials for wearable devices. Her group, Team Tran, emphasizes collaboration and inclusivity, fostering innovation through dynamic team environments. Recent publications highlight advancements in 4D printing of responsive hydrogels, molecular design of peptoids, and low-cost automated laboratory systems. Her research trends emphasize sustainability, functional materials, and scalable production methods. While no formal awards are cited, her contributions reflect cutting-edge exploration in polymer-based electronics. Advising and mentorship are integral to her work, though specific student names are not listed. Outreach initiatives prioritize science education for youth and underrepresented groups. The Tran Lab’s location at Lash Miller Chemical Laboratories underscores its integration within Toronto’s academic and industrial networks.

Gianfranco ClaudioView profile

Senior Lecturer

• Photovoltaics
• Renewable Energy Systems
• Solar Cell Technology
• +3 more

Dr. Gianfranco Claudio is a Senior Lecturer in Photovoltaics at the Electronic Electrical and System Engineering School of Loughborough University. He holds a PhD in Electronic Engineering from the University of Surrey (2004) and a First Class Degree in Physics from the University of Bari (Italy). He is a Chartered Physicist (since 2009) and has led significant research in renewable energy systems, photovoltaic technologies, and energy storage solutions. His research focuses on advancing solar cell efficiency, thermal energy storage systems, and low-carbon district heating networks. Key projects include developing high-efficiency silicon solar cells via antireflective coatings and laser annealing techniques. He has secured grants such as the TSB grant for epitaxial silicon solar cells (2010) and Welsh Assembly grants for silicon solar cell characterization. Currently, he co-leads a TSB project on thin-film CdTe cell interconnections. Dr. Claudio’s work spans experimental and theoretical domains, including coherence correlation interferometry for photovoltaic metrology and fuzzy C-means modeling for power systems. His contributions are evident in 4th generation district heating systems and low-cost battery testing frameworks for developing countries. Grants/Projects: TSB grants (2010, ongoing), Welsh Assembly grants, M-solv collaboration on CdTe interconnects Affiliations: Centre for Renewable Energy Systems Technology (CREST), Loughborough University PV Laboratory Labs/Teams: Involved in the development of the Holywell Park PV laboratory and thermal energy storage initiatives

• Fluid dynamics
• Rheology
• Transport phenomena
• +5 more

Michael D. Graham is a Professor of Chemical & Biological Engineering at the University of Wisconsin-Madison, with affiliations in the College of Engineering and Mechanical Engineering. He holds distinguished professorships including the Steenbock Professor of Engineering and Vilas Distinguished Achievement Professorship. Graham earned a PhD from Cornell University (1992) and a BS from the University of Dayton (1986). His research focuses on fluid dynamics, rheology, and transport phenomena across microscale and turbulent flows. Key areas include microorganism locomotion, blood flow dynamics, polymer/surfactant rheology, and turbulence control using machine learning. His work bridges theoretical, computational, and experimental methods to address both fundamental and applied challenges. Recent publications emphasize data-driven modeling of turbulent flows, elastic instabilities, and biological fluid mechanics. Over 30 awards highlight his contributions, including the 2024 Eugene C. Bingham Medal for rheology and the Vannevar Bush Faculty Fellowship (2018). He teaches graduate courses like CBE 620 (Intermediate Transport Phenomena) and supervises thesis research. Graham’s lab develops reduced-order models for turbulence control, leveraging nonlinear dynamics and neural ODEs. His work on sickle cell disease biomechanics and viscoelastic flow instabilities has advanced both engineering and medical applications.