Find Academic Supervisors

• Compaction of Powder Systems
• Controlled Drug Delivery
• Formulation and Process Optimization

Bhagwan Rohera, Ph.D., is a Professor in the Department of Pharmaceutical Sciences at St. John's University's College of Pharmacy and Health Sciences. His research focuses on compaction of powder systems, controlled drug delivery, and formulation optimization. He teaches courses such as IPP 235L Product Formulation II, PHS 3601 Pharmaceutics I for PharmD, and others related to pharmaceutical sciences. His work spans decades, with contributions to tablet formulation mechanics, QbD methodologies, and material characterization. Contact him at St. Albert Hall Queens Room B13 or via phone at 718-990-1676. Education: Not explicitly listed in provided texts. Courses Taught: Includes advanced pharmaceutics, product formulation, and drug stability systems. His research interests emphasize optimizing drug delivery systems through advanced methodologies like SeDeM diagrams, thermodynamic phase analysis, and risk-based design. Notable areas include hydrophilic polymer behavior, hot-melt extrusion optimization, and gastro-retentive formulations. Dr. Rohera's publications highlight innovations in controlled release matrices, excipient selection, and tablet compression mechanics. His work bridges fundamental powder science with practical pharmaceutical applications, informed by decades of experimental and theoretical contributions. Labs/Teams: No specific labs or teams mentioned in the provided information.

• Pharmaceutical Technology
• Pharmaceutical Sciences
• Drug Synthesis
• +9 more

Krzysztof J. Paluch serves as an Associate Professor in Medicines Development and Pharmaceutical Sciences at the University of Bradford's Faculty of Life Sciences. In addition to his academic role, he holds significant administrative positions as Director of Postgraduate Studies and Deputy Associate Dean of Research and Innovation within the Faculty. His institutional affiliation spans the School of Pharmacy & Medical Sciences where he leads research and teaching initiatives. Dr. Paluch earned his PhD from Trinity College Dublin in 2011, with additional professional qualifications including Associate Project Manager certification. His academic journey has positioned him at the intersection of pharmaceutical sciences and practical drug development. His research program focuses on the synthesis and comprehensive characterization of pharmaceutical compounds, particularly pro-antibiotics and pro-antioxidants. Paluch's laboratory specializes in advanced pharmaceutical processing techniques including nanoparticle production, spray drying, freeze-drying, and hot-melt extrusion. His work addresses critical challenges in drug delivery, particularly around improving solubility, permeability, and stability of complex therapeutic agents. The research has significant implications for developing more effective antibiotic therapies and antioxidant delivery systems. Analysis of his publication record reveals a consistent focus on pharmaceutical formulation challenges, with particular emphasis on solid-state modification techniques to enhance drug properties. His recent work demonstrates increasing sophistication in creating complex delivery systems, moving from binary to ternary formulations and exploring multiple processing technologies to address drug delivery limitations. As an academic leader, Paluch has supervised eight PhD students throughout his career and currently mentors four research students. His teaching portfolio includes undergraduate and postgraduate programs in Pharmacy, Clinical Sciences, and Pharmaceutical Technology. He also serves as Programme Lead for the Social Sciences Research for Healthcare Programme affiliated with the White Rose Social Sciences Research Doctoral Training Partnership. His leadership extends to overseeing PhD student progression across multiple schools within the Faculty of Life Sciences and contributing to the Faculty's Research and Innovation strategy, with particular emphasis on interdisciplinary themes including the Interface of Chemistry, Biology and Materials, and Computational and Data-driven Science.

Carl WassgrenView profile

Professor

• Mechanical Engineering
• Fluid Mechanics
• Thermodynamics
• +5 more

Carl Wassgren is a Professor of Mechanical Engineering at Purdue University, with a courtesy appointment in Industrial and Physical Pharmacy. He serves as a faculty member in the School of Mechanical Engineering and holds office ME 3003J at the West Lafayette campus. His research focuses on fluid mechanics, thermodynamics, and particle technology, with applications in pharmaceutical manufacturing, granular flow, and computational modeling. Wassgren teaches courses such as Thermodynamics I, Fluid Mechanics, and Pharmaceutical Manufacturing Processes. He is actively involved in developing novel methodologies for material characterization, including discrete element method (DEM) simulations and continuum modeling of cohesive powders. Research interests span granulation processes, material flow analysis, and the mechanics of agricultural and pharmaceutical materials. His work integrates experimental techniques with computational tools to address challenges in industrial granulation, fluidized bed systems, and particle dynamics. Recent studies include optimizing fertilizer formulations, improving air purifier effectiveness, and advancing safety protocols for grain entrapment scenarios. Wassgren has contributed to over 50 peer-reviewed articles, with a focus on process optimization, material behavior under mechanical stress, and multi-scale modeling approaches. His research group collaborates on projects involving hopper flow analysis, flexible fiber fluidization, and tablet disintegration kinetics. Despite his extensive academic contributions, no specific awards or honors are explicitly listed in the provided materials.

Alastair FlorenceView profile

Professor

• Pharmaceutical Manufacturing
• Crystallization
• Materials Science
• +3 more

Alastair Florence is a Professor at the University of Strathclyde, leading the EPSRC Centre for Innovative Manufacturing in Continuous Manufacturing and Crystallisation (CMAC). He oversees the CMAC National Facility within the Technology and Innovation Centre (TIC), offering advanced processing and analytical capabilities to academic and industrial users. His expertise includes crystallization, pharmaceutical solids characterization, and continuous manufacturing. He holds leadership roles such as Chairman of the British Association of Crystal Growth and advisory positions at Imperial College and Leeds University. Research focuses on crystallization processes, pharmaceutical particle formation, and the application of advanced technologies like X-ray diffraction for phase analysis. He has supervised a multidisciplinary team and published over 120 peer-reviewed papers. His work contributes to UN Sustainable Development Goals through innovations in sustainable medicines manufacturing. Education: Not explicitly stated in text Grants/Projects: Leads EPSRC MediForge Hub, SHARPEN, and other initiatives totaling 80+ projects Labs/Teams: Heads CMAC and collaborates internationally Key awards include the Best Poster Award (2018) and Royal Pharmaceutical Society Fellowship (2024). His research spans 213 publications, 29 datasets, and equipment including advanced crystallizers and analytical tools.

• Biomass Energy
• Nanoparticles
• Chemical Processes
• +4 more

Nicolas Abatzoglou is a Professor at Université de Sherbrooke, specializing in Chemical Engineering. His research spans biomass energy, catalysis, nanotechnology, and pharmaceutical process analytical technologies (PAT). He has supervised numerous students and contributed extensively to academic publications. Doctorat in Chemical Engineering (1989), National Technical University of Athens Maîtrise in Chemical Engineering (1986), Université de Sherbrooke Baccalauréat in Chemical Engineering (1982), National Technical University of Athens His research focuses on biomass gasification , nanoparticle-based catalysis , and pharmaceutical powder dynamics . Key areas include Fischer-Tropsch synthesis, hydrogen sulfide adsorption, and real-time process monitoring using NIR spectroscopy. Recent articles highlight advancements in catalyst design for syngas production and pharmaceutical blending analysis. Scientific awards include the 2016 MÉLS Chantier II Fellowship, 2010 Prix Bazinet, and 2009 Innovations Pédagogiques distinction. He was elected Fellow of the Canadian Academy of Engineering. Abatzoglou actively collaborates internationally, co-supervises doctoral students, and contributes to conferences and book chapters. His work bridges chemical engineering fundamentals with industrial applications in energy and pharmaceuticals.

ROSSI AlessandraView profile

Associate Professor

• Drug Polymorphism
• Pharmaceutical Excipients
• Controlled Drug Release
• +3 more

Alessandra Rossi is an Associate Professor at the Department of Food and Pharmaceutical Sciences, University of Parma. She coordinates the department's International Mobility Commission and contributes to the university's Internationalization Working Group. Her academic journey includes a PhD at the University of Strathclyde and postdoctoral work at Heriot-Watt University. PhD in Pure and Applied Chemistry (1998, University of Strathclyde) Graduated in Chemistry (1993, University of Pavia) Her research focuses on pharmaceutical technologies for controlled drug release, including hydrophilic matrices, nasal/pulmonary powders, and nano-microparticulate systems. She leads the COST Action SimInhale's Working Group 1 on particle engineering for inhaled medicines. Key trends in her publications include 3D-printed drug forms , phytoextract microencapsulation , nano-inhalation systems , and biopharmaceutical modeling . Her work bridges formulation science with clinical applications. Erasmus Scholarship (1993) Novartis Postdoctoral Fellowship (1998) She mentors students through teaching roles in Pharmaceutical Legislation, Galenic Preparations, and bibliographic research, with ongoing involvement in multidisciplinary pharmaceutical projects.

Daniel MarklView profile

Lecturer

• Pharmaceutical Engineering
• Process Analytical Technology
• Drug Product Manufacturing
• +5 more

Daniel Markl is a Lecturer and Chancellor's Fellow at the University of Strathclyde's Strathclyde Institute of Pharmacy and Biomedical Sciences (SIPBS), serving as Associate Director of the Centre for Continuous Manufacturing and Advanced Crystallisation (CMAC). His research integrates advanced measurement techniques with digital process design to revolutionize pharmaceutical manufacturing. His academic journey includes: BSc in Telematics (2010), Graz University of Technology MSc in Telematics with neural networks focus (2012), Graz University of Technology (including Erasmus Mundus study at Lund University) PhD in Chemical Engineering (2015), Graz University of Technology Markl's research centers on continuous manufacturing of solid oral dosage forms, innovative process analyzers (particularly terahertz imaging/spectroscopy), and digitally designed drug products. His lab employs optical coherence tomography, X-ray computed tomography, and machine learning to characterize material properties and model tablet disintegration/swelling processes. Key focus areas include real-time release testing, material attribute-process parameter linkages, and rapid formulation design for targeted drug release. Recent publications demonstrate advancements in spatially-resolved tablet dissolution analysis and real-time polymorphic monitoring during tabletting, reflecting strong trends toward in-line process analytical technologies and fundamental understanding of solid dosage form physics. His scientific recognition includes: AAPS Pharmaceutical Research Meritorious Manuscript Award (2019) Best Poster Award (2016) Markl actively supervises students (5 supervised works documented) and leads major research initiatives including the CERSI for Digital Transformation (Principal Investigator) and EPSRC MediForge Hub (Co-investigator), securing substantial funding for cyberphysical manufacturing platforms. His work directly supports UN Sustainable Development Goals related to health innovation. He directs TheMarklLab and contributes to CMAC's industry-academic collaborations, focusing on mechanistic modeling of disintegration processes and developing cutting-edge process monitoring solutions for next-generation pharmaceutical manufacturing.

• Terahertz Technology
• Semiconductor Device Physics
• Biomedical Applications
• +3 more

Helena Rodilla is an Associate Professor at the Department of Electrical Engineering (E2) at Chalmers University of Technology, specializing in Terahertz and Millimeter Wave Technology. She holds a B.S. and Ph.D. in Physics from the University of Salamanca, completed in 2006 and 2010, respectively. Her research focuses on advancing terahertz technology for life science applications, semiconductor device physics, and pharmaceutical manufacturing. She has contributed significantly to the development of THz sensing techniques for non-destructive material analysis, powder dynamics monitoring, and pharmaceutical quality control. Her work also includes studies on cryogenic low-noise InP HEMTs and Monte Carlo simulations for semiconductor device behavior. Dr. Rodilla leads projects funded by organizations like the Swedish Research Council (VR) and the European Commission, emphasizing interdisciplinary collaborations in bioengineering and electronics. Education: B.S. in Physics, University of Salamanca, 2006 Ph.D. in Physics, University of Salamanca, 2010 Research Interests: Terahertz imaging and spectroscopy Biomedical applications of THz technology Semiconductor device modeling and fabrication Cryogenic electronics Grants and Projects: "Terahertz-tekologi för tillverkning av moderna läkemedel" (Swedish Foundation for Strategic Research) "Move2THz" (EU Horizon 2020)

Tong DengView profile

Senior Lecturer

• Particulate Flow Characterization
• Electrostatic Properties
• Nano-Composite Materials
• +3 more

Tong Deng is Senior Lecturer at the University of Greenwich's School of Engineering, researching particulate material behavior and nano-composite development. His work bridges fundamental powder technology and industrial applications in material handling and additive manufacturing. Research focuses on electrostatic properties of cohesive powders, segregation mechanisms in industrial processes, and erosive wear of advanced composites. Current projects include developing novel sensing techniques for powder flow characterization and designing feedback control systems for pneumatic conveying. Recent publications demonstrate innovations in pharmaceutical powder processing, electrostatic signal analysis, and biomass material degradation. Applied research extends to food engineering, additive manufacturing, and renewable energy sectors. Laboratory capabilities include specialized instrumentation for powder flow characterization, tribological testing, and particle adhesion measurement under controlled environmental conditions.

James ElliottView profile

Professor

• Pharmaceutical Materials Science
• Materials Modelling
• Carbon Nanomaterials
• +5 more

James Elliott is a Professor of Macromolecular Materials Science at the Department of Materials Science & Metallurgy, University of Cambridge. His research spans computational materials science, focusing on pharmaceutical powders, polymer membranes, carbon nanomaterials, and composite systems. He employs multi-scale modelling techniques validated by advanced imaging, such as X-ray microtomography, to address industrial challenges in material design and processing. MA, University of Cambridge PhD, University of Bristol (Materials Modelling) Key research areas include: Pharmaceutical powder compaction using discrete and finite-element modelling Polymer electrolyte membranes for fuel cells Carbon nanotube composites Multi-scale simulation methodologies Recent publications emphasize computational approaches to powder dynamics, CO2 electroreduction catalysts, and nanotube fiber optimization. His work bridges molecular-scale simulations with macroscopic industrial applications. Laboratory: Macromolecular Materials Laboratory

Reza BaseriniaView profile

Lecturer

• Additive Manufacturing
• Powder Flow Characterisation
• Experimental Validation
• +3 more

Dr. Reza Baserinia is a Lecturer in Engineering Design and Deputy Director of Education at the University of Leicester's School of Engineering (since April 2024). He oversees accreditation strategy, curriculum planning, student progression, and educational initiatives. Previously, he served as Senior Lecturer and Programme Director for Mechanical Engineering at De Montfort University for seven years, leading curriculum development and teaching core modules like CAD/FEA and Machines & Mechanisms. His research focuses on additive manufacturing, powder flow characterization, and pharmaceutical processing, with notable contributions to understanding powder behavior in manufacturing and pharmaceutical contexts. He has supervised numerous students at undergraduate, postgraduate, and doctoral levels. Dr. Baserinia holds a PhD (2016) and MSc (2011) in Mechanical Engineering from the University of Leicester, and is a Fellow of the Higher Education Academy (FHEA). His work bridges experimental validation, numerical modeling, and industrial applications. Publications highlight trends in applying machine learning to additive manufacturing challenges, optimizing powder-based processes, and advancing pharmaceutical tablet design through additive techniques. His research intersects material science, biomedical engineering, and mechanical systems. Scientific Awards: Fellow of HEA, Postgraduate Certificate in Learning & Teaching. Grants/Supervision: Actively supervises students in additive manufacturing, powder technology, and pharmaceutical processing. Labs/Teams: Leads educational initiatives and collaborates on interdisciplinary projects in manufacturing innovation.

• Colloids
• Rheology
• Formulation Engineering
• +4 more

Dr. Richard Greenwood serves as the Engineering Doctorate Programme Manager and Industrial Tutor at the University of Birmingham's School of Chemical Engineering. With over two decades of academic service since joining in 1999, he maintains leadership roles as Chair of the IChemE Particle Technology Subject Group and Secretary of the RSC Formulated Product Engineering Subject Group. His institutional affiliation spans both teaching and research within formulation engineering. BSc in Chemistry, University of Bristol PhD in Chemical Engineering, Imperial College London Greenwood's research centers on colloidal systems and rheological characterization, with specialized expertise in particle technology for ceramic processing and formulation engineering. His work bridges fundamental suspension science with industrial applications in pharmaceuticals, mineral processing, and advanced ceramics. Key methodological contributions include electroacoustic techniques for zeta potential measurement in concentrated systems and novel approaches to particle stabilization. His publication record demonstrates sustained contributions to particle technology, with recurring themes in: Advanced characterization of colloidal suspensions Optimization of ceramic forming processes Innovations in powder processing for pharmaceuticals Microwave applications in mineral comminution Fellow of the Royal Society of Chemistry (FRSC) As Programme Manager for the Engineering Doctorate in Formulation Engineering, Greenwood supervises PhD, MRes, and EngD candidates while maintaining active industry collaborations. His research program integrates experimental work with computational modeling, particularly in particle segregation dynamics and roller compaction processes for pharmaceutical manufacturing. Current projects focus on smart mineral applications and advanced characterization techniques for industrial materials. Greenwood leads the Coniston research team specializing in particle technology, with equipment for rheological testing, electroacoustic characterization, and powder processing. The group maintains strong industry ties with ceramics manufacturers, pharmaceutical companies, and mineral processors.

• Pharmaceutical Technology
• Biomaterials
• Drug Delivery Systems
• +3 more

Prof.ssa Annalisa Bianchera is an Associate Professor at the Department of Food and Drug Sciences, University of Parma, Italy. She teaches courses in Pharmaceutical Technology , Biomaterials for Advanced Therapies , Digital Marketing in Pharmacy , and Drug Absorption Models at both full-cycle and second-cycle degree levels. Her research focuses on biomaterials , controlled drug delivery systems , and pharmaceutical formulation technologies , with particular emphasis on nasal administration , 3D-printed scaffolds , and green manufacturing methods . She has published extensively on polysaccharide-based delivery systems , dry powder inhalation , and biomaterials for wound healing . Recent articles highlight her work on 3D-printed ocular delivery models , hyaluronate nanoparticles , and CO2-green aerogel formulations .

• Powder Technology
• Molecular Dynamics Modeling
• Multiscale Modeling
• +5 more

Bodhisattwa Chaudhuri is a faculty member in the Department of Pharmaceutical Sciences at the University of Connecticut's School of Pharmacy. His research bridges computational modeling and pharmaceutical manufacturing, focusing on multiscale approaches to materials science, drug delivery, and process optimization. Education: B.E. in Chemical Engineering (Jadavpur University), M.S. in Chemical Engineering (Indian Institute of Science), Ph.D. in Mechanical Engineering (New Jersey Institute of Technology), Postdoctoral Training in Chemical and Biochemical Engineering (Rutgers University) His work integrates Molecular Dynamics (MD) and Discrete Element Method (DEM) simulations with Computational Fluid Dynamics (CFD) to address challenges in pharmaceutical systems. Key areas include: Aggregation behavior of viral vectors like AAV8 AI/ML applications for biopharmaceutical process prediction 3D printing of tablets and freeze-thaw stability of biologics Tribotechnical challenges in powder systems The 15 most recent publications highlight his focus on computational modeling (MD, CFD, DEM) for pharmaceutical processes, machine learning applications in stability prediction, and multiscale studies of drug delivery systems like lipid nanoparticles and polymeric micelles. His work spans both fundamental research and industrial translation. Contact: bodhi.chaudhuri@uconn.edu | Personal Website

François PuelView profile

Researcher

• Process Engineering
• Materials Science
• Chemical Engineering
• +3 more

Dr. François Puel is a researcher at the Laboratory of Process Engineering and Materials (LGPM) at CentraleSupélec, focusing on industrial processes, crystallization mechanisms, and material characterization. Affiliation: CentraleSupélec (LGPM) Research Highlights: Pharmaceutical crystallization, nuclear product handling, biomass torrefaction, emulsion processes His work addresses fundamental and applied challenges in chemical and process engineering, including nucleation kinetics, flowability of powders, and coupling population balance models to CFD simulations. Recent research trends include solution crystallization, Raman spectroscopy for phase transitions, and optimization of industrial-scale processes for nuclear and energy applications. Collaborations span pharmaceutical formulation, lignocellulosic biomass processing, and nuclear product testing.