Find Academic Supervisors

• Carbon materials synthesis and functionalization
• Electrocatalytic water splitting
• Environmental remediation using bio-based carbons
• +3 more

Piotr Rutkowski is an Associate Professor at Wroclaw University of Science and Technology, specializing in chemical engineering and polymer/carbon materials technology. His research focuses on electrocatalytic water splitting, porous bio-based carbon applications for pollutant removal, biomass valorisation through torrefaction/pyrolysis, and hydro/solvothermal synthesis of advanced carbon materials. Received DSc and PhD in chemical sciences (chemical technology) ORCID: 0000-0002-9214-7901 Researcher ID: C-9652-2018 Office: Building F3, room 126 (Gdanska campus) His work addresses critical energy and environmental challenges through innovative material science approaches.

Lars LongwitzView profile

Professor

• Catalysis
• Organic Chemistry
• Bioorganic Chemistry
• +6 more

Dr. Lars Longwitz leads the AG Longwitz research group at the Institute of Organic Chemistry , University of Hamburg , focusing on the development of hybrid catalysts that merge biochemical and chemical approaches. His work emphasizes sustainability, activity, and selectivity improvements through evolution-inspired design. University: University of Hamburg School: School of Natural Sciences Department: Department of Chemistry Academic Rank: Professor His research explores the intersection of enzymatic and synthetic catalysis, leveraging evolutionary principles to enhance catalyst performance. Key areas include phosphorus redox systems, CO2 valorization, and environmentally benign processes. Recent publications highlight his group's contributions to boron-enzyme hybrids (2024), room-temperature Wittig reactions (2019), and plasma-assisted catalyst immobilization (2020). These works span redox chemistry, sustainable synthesis, and biocatalytic engineering. Longwitz also contributes to teaching in organic chemistry and integrated synthesis labs. The group actively engages in circular economy research, plastic recycling, and green chemistry principles.

Mustafa TuncerView profile

Professor

• Supercritical Fluid Technology in Ceramic Processes
• Gas antisolvent method (GAS)
• High-Tech Ceramic Powder Production
• +14 more

Mustafa Tuncer is a Professor in the Department of Metallurgical and Materials Engineering at Kütahya Dumlupınar University's Faculty of Engineering. He currently serves as Head of the Materials Department and Manager of the University's Advanced Technologies Design Research Development and Application Center (İLTEM). His academic career spans over two decades, progressing from Research Assistant to his current professorship since 2020. Bachelor's Degree in Ceramic Engineering (1996-2000), Kütahya Dumlupınar University Master's Degree in Ceramic Engineering (2000-2003), Kütahya Dumlupınar University PhD in Ceramic Engineering (2006-2011), Dumlupınar University Professor Tuncer's research focuses on advanced ceramic materials, particularly metal diboride ceramics (ZrB2, TiB2), with expertise in supercritical fluid technology applications for ceramic processing. His work spans oxide and non-oxide ceramics, calcium phosphate-based biomaterials, and peroxide-based solar cells. He has developed significant expertise in gas antisolvent methods, nanostructured ceramic powder production, and characterization techniques. His research bridges fundamental materials science with practical applications in energy storage, biomedical engineering, and high-temperature materials. An analysis of his recent publications reveals a strong focus on ultra-high temperature ceramics, particularly boron carbide and zirconium diboride systems. His work demonstrates expertise in spark plasma sintering techniques, ceramic composite development, and bio-inspired materials for energy storage applications. The research spans traditional ceramic processing methods while incorporating cutting-edge additive manufacturing and nanotechnology approaches. Professor Tuncer has led numerous research projects funded by various institutions including TUBITAK, BOREN, and the State Planning Organization. His work portfolio includes significant contributions to ceramic armor materials, supercapacitor development using bioceramics, and advanced solar cell technologies. He has served as Principal Investigator on projects ranging from fundamental ceramic synthesis to applied industrial solutions for the ceramic tile industry. He directs the Advanced Technologies Design Research Development and Application Center (İLTEM) at Kütahya Dumlupınar University, which serves as a hub for interdisciplinary materials research and development. His leadership extends to the Scientific Research Projects Commission, where he helps shape the university's research direction and priorities.

Kaisa HelttunenView profile

Assistant Professor

• Supramolecular Chemistry
• Organocatalysts
• Anion Receptors
• +3 more

Kaisa Helttunen is an Assistant Professor at the University of Jyväskylä , affiliated with the Faculty of Mathematics and Science and the Department of Chemistry . She leads the research group Organic Chemistry for Circular Economy and oversees the Master's Degree Programme in Chemistry and Analytics for Circular Economy . Her work integrates supramolecular chemistry with analytical techniques to develop molecular applications for bio and circular economy. Her research focuses on anion receptors for selective extraction and transport, foldamers for catalysis, micelles and solid lipid nanoparticles for drug delivery, and bioactive compounds from biomass. Publications highlight her expertise in calix[4]pyrroles, resorcinarenes, and their roles in anion binding, organocatalysis, and nanomaterials. Recent studies explore anion-responsive molecular switches and chloride transporters for potential medical applications like cystic fibrosis. Trends in her 15 most recent articles include: (1) Supramolecular design of anion receptors with multiple binding sites; (2) Development of organocatalysts modulated by anions; (3) Investigation of micelle-based extraction systems; (4) Computational analysis of molecular folding mechanisms; (5) Applications in metal recovery and bioactive compound delivery . The research group Organic Chemistry for Circular Economy collaborates with private sectors and computational groups to advance projects like MAREXT (Macrocyclic Receptors for Selective Anion Extraction) and COCOA (Control of Catalyst Operation with Anions). Techniques employed include organic synthesis , X-ray crystallography , NMR spectroscopy , and DFT calculations . No scientific awards or student advisement details are explicitly mentioned in the provided texts.

Samir MoradView profile

Senior Lecturer

• Medical Robotics
• Minimally Invasive Surgery
• Flexible Surgical Intervention
• +4 more

Dr. Samir Morad is a Senior Lecturer in the Department of Engineering & Construction at the University of East London's School of Architecture, Computing and Engineering. He holds a PhD in Medical Robotics from Imperial College London, along with an MSc in Biomedical Engineering and a BEng in Medical Engineering. Education: BEng (Hons) in Medical Engineering, Queen Mary College, University of London (2010) MSc in Biomedical Engineering, Imperial College London (2011) PhD in Medical Robotics, Imperial College London (2015) His research focuses on Medical Robotics for Minimally Invasive Surgeries, including Robotically Assisted Flexible Intervention Devices, 3D Computational Modelling, Finite Element Analysis of Human Tissues, Medical Device Design, and Bio-fluid Mechanics. Key projects involve patient-specific respiratory masks with physiological detectors, tactile feedback systems for spinal needle insertion, and upper limb prostheses for Sitting Volleyball athletes. Recent publications highlight advancements in wearable pressure ulcer monitoring pads, force feedback spinal needles, polymer-based femoral implants, and active constraint control systems for surgical robots. These works integrate biomedical engineering principles with innovative mechanical design. Professional Affiliations: Chartered Engineer (CEng) Member of the Institution of Mechanical Engineers (MIMechE) Fellow of the Higher Education Academy (FHEA)

Benjamin KeitzView profile

Associate Professor

• Chemical Engineering
• Biological Synthesis
• Functional Materials
• +5 more

Benjamin Keitz is an Associate Professor in the Department of Chemical Engineering at the University of Texas at Austin, holding the Frank A. Liddell, Jr. Centennial Fellowship. His research focuses on integrating synthetic chemistry and biology to design functional materials for catalysis, energy, environmental remediation, and medicine. Key areas include microbial extracellular electron transfer (EET) and engineering living materials through metabolic networks. He leads the Keitz Group, advancing tools in chemical kinetics, surface chemistry, and genetic networks. Education: Postdoctoral Researcher (UC Berkeley, 2012-2015), Ph.D. Chemistry (Caltech, 2012), B.S. Chemical Engineering (UT Austin, 2007). Research interests emphasize chemical/biological synthesis of functional materials, combining microbial EET with inorganic/organic substrates. Recent work explores organic electrochemical transistors, genome editing in bacteria, and high-throughput EET characterization. His lab develops biohybrid systems where living cells interface with synthetic materials, addressing challenges in sustainable materials and biomanufacturing. Awards include the NSF CAREER Award (2020), Air Force Young Investigator Award (2020), and NIH MIRA Award (2019). His work spans over 100 publications, with contributions in Nature Chemistry , ACS Synthetic Biology , and Nature Communications . Keitz has advised multiple postdocs and graduate students, focusing on troubleshooting skills and interdisciplinary training. His research group collaborates on projects funded by NSF, NIH, and DoD, emphasizing translational applications of living materials.

Mitra HartmannView profile

Professor

• Sensorimotor Integration
• Biomechanics
• Robotics
• +4 more

Mitra Hartmann is a **Professor of Biomedical Engineering**, **Mechanical Engineering**, and holds a **courtesy appointment in Computer Science** at Northwestern University's McCormick School of Engineering. She leads the **Hartmann Lab** and the **Center for Robotics and Biosystems**, focusing on sensorimotor integration, robotics, and neuroethology. Her research bridges biomechanics, neuroscience, and robotics, with applications in tactile sensing and neuroprosthetics. **Education**: PhD in Integrative Neuroscience (Caltech, 1996–2000), BS in Applied and Engineering Physics (Cornell, 1990–1994). Postdoctoral training at Caltech (Computational Neurobiology) and JPL (Bio-Computing). **Research**: Her lab studies how animals (e.g., rats) use whiskers to actively sense their environment. Key areas include vibrissal mechanics, neural coding of tactile stimuli, and developing whisker-inspired robots for harsh environments. She emphasizes interdisciplinary approaches, combining experiments, modeling, and robotics. **Awards**: Multiple McCormick Teaching Awards (2009–2011), NSF CAREER (2008), NAE Frontiers of Engineering (2008), and Searle Junior Fellowship (2006–2007). **Teaching**: Undergraduate courses in fluid mechanics (ME 241/BME 270) and a graduate course on neural engineering and sensory acquisition (BME 462). Known for integrating hands-on robotics projects. **Lab Activities**: The lab collaborates on open-source tool development for neuroscience and robotics. Current projects include tactile scene reconstruction, whisker-based flow sensing, and prosthetic devices inspired by biological systems.

• Additive Manufacturing
• Laser Powder Bed Fusion (LPBF)
• Materials Processing
• +3 more

Dr. Ann Witvrouw is a senior researcher at KU Leuven's Department of Mechanical Engineering (division MaPS), specializing in additive manufacturing (AM) and advanced materials processing. Her work focuses on laser powder bed fusion (LPBF), surface quality optimization, and hybrid manufacturing systems. She leads research into AM applications for aerospace, medical implants, and industrial tooling, emphasizing process monitoring, defect characterization, and material-property enhancements. Her research integrates advanced imaging techniques (e.g., X-ray computed tomography) with real-time in-process monitoring to improve part precision and reliability. Key areas include pore detection in LPBF, powder-characterization strategies for surface finishing, and topology-optimized tooling designs. As a core member of Flanders Make, she collaborates widely on interdisciplinary AM projects, bridging academic and industrial innovation. Research Themes: Metal AM process optimization, LPBF defect mitigation, hybrid manufacturing, and bio-based composite printing. Key Technologies: Coaxial/Off-axis melt pool monitoring, machine learning for defect classification, and topology optimization for AM. Dr. Witvrouw's publications highlight advancements in AM surface functionalization, hybrid die-casting-SLM systems, and high-speed LPBF methodologies. She actively supervises PhD students in areas like LPBF powder selection and in-process monitoring, contributing to next-generation AM technologies. Her work addresses critical challenges in AM adoption, such as post-processing reduction, first-time-right manufacturing, and scalability for industrial applications. She also explores innovative AM applications in medical and aerospace sectors, emphasizing precision and cost-effectiveness.

• Composite Materials
• Nanocomposites
• Additive Manufacturing
• +8 more

Associate Professor Roger Dong holds a position at Curtin University's School of Civil and Mechanical Engineering within the Department of Mechanical Engineering. His academic career spans over 15 years, including roles as Senior Lecturer (2012–2022) and Postgraduate Coordinator (2012–2013). He holds a BE from Wuhan University of Science and Technology (China), ME (First Class Honours) and PhD from the University of Auckland (New Zealand), and a Higher Education Teaching Certification from Harvard University. Research Focus: Polymer nanocomposites, shape memory materials, additive manufacturing, and sustainable materials Leadership Roles: Conference Chair (FPCM-18, 2028), Associate Editor of Frontiers in Materials and Applied Nanoscience Affiliations: Fellow of IOM3 (UK), FHEA (UK), and editorial board member of 15+ journals His research emphasizes eco-friendly materials and advanced manufacturing, with over 100 SCI-indexed articles and 10 technical books. Notable achievements include the 2023 James S Walker Award for bionanocomposite films and finalist status in WA Infinity Awards 2020. Teaching responsibilities include units like MCEN4002 Materials Engineering and international collaborations through visiting positions at Waseda University and the University of Bayreuth. He actively mentors students, with several award-winning PhD graduates. Grants include ARC competitive grants and a 2023 Short Term Grant from the University of Bayreuth. His lab focuses on nanocomposite fabrication, tribology, and AI-driven materials discovery.

Yangju LinView profile

Assistant Professor

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

Dr. Yangju Lin is an Assistant Professor in the Department of Chemistry at the University of Waterloo, affiliated with the Faculty of Science. His research focuses on polymer chemistry, mechanochemistry, and materials science, with applications in sustainable materials and energy storage. He maintains cross-disciplinary collaborations with the Institute for Quantum Computing and the Waterloo Institute for Nanotechnology. Research interests span stimuli-responsive polymers, mechanochemical reactions, and sustainable material design. Key areas include: Development of force-sensitive polymers for controlled degradation Electrolyte engineering for safer lithium batteries Bio-based polymer networks with recyclable properties Nanoscale assembly of functional materials Publications demonstrate consistent focus on mechanochemistry and materials innovation, with recent work exploring solvent effects on mechanophores, battery electrolyte design, and dynamic covalent networks. Articles frequently intersect polymer physics, electrochemistry, and nanotechnology. Laboratory leadership includes the LinAB (PReSS) research group focused on polymer reactivity under stress.

• Sustainable Materials Science
• Polymer Chemistry
• Waste Upcycling
• +3 more

Rhett Smith is a Professor of Chemistry at Clemson University, affiliated with the College of Science. He serves as the Academic Access Advocate and leads research focused on sustainable materials science, particularly in developing composites from industrial and agricultural waste. His laboratory is located in Hunter Hall, and he maintains active collaborations across chemistry, environmental engineering, and materials science. Smith’s research emphasizes upcycling post-consumer plastics, plant oils, and fossil fuel byproducts into durable composites with enhanced mechanical and thermal properties. His work integrates green chemistry principles to address environmental challenges while advancing polymer design. Key themes include sulfur-based polymerization, lignin valorization, and cross-industry waste integration. His publications span 20+ years, with recent focus on high-strength composites, flame-retardant formulations, and waste-to-materials strategies. While specific grants or awards are not listed, his extensive publication record reflects sustained innovation in sustainable materials engineering. He collaborates with industry partners to translate academic findings into real-world applications. Labs and teams: Smith’s research group operates within the Hunter Hall Chemistry Laboratory, focusing on polymer synthesis, thermal analysis, and materials characterization. His team explores interdisciplinary solutions for environmental sustainability through advanced material science.

• Materials Science
• Polymer Chemistry
• Sustainable Chemistry
• +2 more

Perla Y. Sauceda Olono is a Lecturer and Director of General Chemistry Teaching Laboratories at the Department of Chemistry, College of Science, Clemson University . She earned her B.S. in Mechatronics Engineering (2015), M.S. in Nanotechnology (2017) from Universidad de Sonora, Mexico, and Ph.D. in Chemistry from Clemson University (2024). Educational Background : B.S. (Mechatronics Engineering), M.S. (Nanotechnology), Ph.D. (Chemistry) Her research focuses on materials science and sustainable chemistry , particularly in developing polymer composites using sulfur and industrial waste for upcycling applications. She has also explored nanotechnology for biomedical purposes, including theranostic agents and drug delivery systems . Recent publications highlight her work on sulfur-based composites , waste upcycling , and thermal/mechanical property optimization . Her research aligns with green chemistry and environmental sustainability . Scientific Awards : Outstanding Graduate Teaching Assistant Award in Chemistry (2023) 2022 Mandel Fellowship In her academic role, she teaches courses such as General Chemistry (CH1010), General Chemistry Laboratory (CH1011, CH1021), and Chemistry in Context I Laboratory (CH1051), while leading the General Chemistry Teaching Laboratories.

Omar AboelazayemView profile

Senior Lecturer

• Sustainable Chemical Processing
• Waste Valorisation
• Biofuels
• +5 more

Dr. Omar Aboelazayem is a Senior Lecturer in Chemical Engineering at Teesside University (SCEDT Engineering). He holds a PhD from London South Bank University (LSBU) and has held roles at the University of Nottingham, University of Leeds, and The British University in Egypt. His research focuses on sustainable processes, waste valorisation for biofuels/chemicals, and process optimization. Key projects include FermoChar (waste-to-char materials for NetZero) and CalyChar (CO₂-capturing hydrochars). He has led/ collaborated on projects involving bio-based polymers, asphalt bio-binders, and industrial waste recycling. Education: PhD in Chemical Process and Energy Engineering (LSBU), MSc/BSc in Chemical and Renewable Energy Engineering (The British University in Egypt). Research interests span integrated bioprocess development, thermochemical/biochemical conversion of biomass, process energy integration, and life cycle assessment. His work emphasizes reducing carbon/water footprints via waste utilization and process optimization. Recent publications address catalyst-free biodiesel production, lignin-derived bio-oils, and water hyacinth valorisation. He leads initiatives to commercialize sustainable technologies, including biopolymer production from insects and bio-based asphalt binders. Collaborations involve academia and industry for NetZero solutions.

• Drug Delivery Systems
• Nanoparticle Engineering
• Cancer Therapy
• +6 more

William G. Pitt is a Professor in the Department of Chemical & Biological Engineering at Brigham Young University's College of Engineering. His research focuses on advanced drug delivery systems, biomedical nanotechnology, and cancer therapy innovations. Key areas include ultrasound-mediated drug release mechanisms, magnetic nanoparticle applications, and engineered biomaterials for medical diagnostics and treatment. He has pioneered work on targeted liposomal drug delivery, 3D-printed therapeutic scaffolds, and rapid bacterial separation techniques for sepsis diagnosis. Dr. Pitt’s work integrates microfluidics, nanomaterials, and tissue engineering to develop next-generation biomedical solutions. His recent research emphasizes nanocarrier systems for targeted cancer therapy, biodegradable magnesium alloys for implants, and lab-on-a-chip technologies for rapid medical analysis. His team has explored innovative approaches such as immunoliposome-triggered therapies and magnetic guidance of drug delivery systems. His articles highlight advancements in ultrasound-enhanced drug delivery, nanoparticle synthesis for biomedical applications, and scaffold-based 3D cell culture models. These studies contribute to overcoming challenges in drug targeting, antimicrobial resistance, and in vitro tumor modeling. Dr. Pitt’s interdisciplinary approach bridges chemical engineering principles with clinical medicine to address unmet needs in oncology and infectious disease treatment. Dr. Pitt’s lab develops cutting-edge tools for precision medicine, including magnetic nanoparticle-based bioseparation systems and multifunctional nanocarriers. His work has implications for improving treatment efficacy while reducing systemic side effects, particularly in cancer and chronic infection therapies. Current projects involve exploring quantum dots for cancer imaging and developing cost-effective diagnostic platforms for resource-limited settings.

Sanja Potgieter-VermaakView profile

Senior Lecturer

• Environmental Chemistry
• Air Quality
• Public Health
• +4 more

Dr Sanja Potgieter-Vermaak is a Senior Lecturer in Analytical Chemistry at Manchester Metropolitan University, specializing in environmental pollutants and their health impacts. She holds honorary positions at the University of the Witwatersrand (Honorary Associate Professor) and University of Antwerp (Extraordinary Academic Staff). Her research focuses on air quality, bioaccessibility of particles, and citizen science initiatives like Mapmyenvironment. She has authored 100+ peer-reviewed papers (H-index 31) and collaborates internationally, including at the Amazonian Tall Tower Observatory (ATTO). Dr. Potgieter-Vermaak teaches analytical chemistry, environmental health, and materials characterization, emphasizing hands-on learning. She leads the Environmental Change group at the Ecology and Environment Research Centre (EERC) and has supervised multiple postgraduate students. Her work bridges academic research with community engagement, such as the 'Let Schools Breathe' air pollution mitigation program. Her research interests span air pollution monitoring (indoor/outdoor), particulate matter characterization, and environmental health risks. She employs advanced techniques like micro-Raman spectroscopy, SEM/EDX, and in-vitro bioaccessibility assays. Recent projects include studying fog processing in the Amazon, urban air quality networks in Manchester, and plasticizer compatibility in PVC. Collaborations span Brazil, China, Nigeria, and South Africa. Dr. Potgieter-Vermaak serves on editorial boards (e.g., Journal of Environmental Geochemistry & Health) and professional associations (SEGH executive board, RSC Analytical Division). She has reviewed for journals like Atmospheric Environment and funded projects via the National Research Foundation (NRF) and Medical Research Council (UK-Kenya). Media engagements include BBC interviews on post-lockdown air quality trends. Her teaching emphasizes practical experience, integrating analytical techniques with real-world environmental challenges. She has developed curricula for MSc Advanced Materials and BSc Chemistry programs, focusing on particle analysis and health impact assessments. Current supervisions include PhD candidates investigating microplastics, air quality modeling, and plasticizer compatibility.