Dr. Miaoqiang Lyu is a Research Fellow at the School of Chemical Engineering , The University of Queensland . His work focuses on lead-free perovskites , flexible energy storage , and optoelectronic devices . Research Interests : Designing low-toxicity and stable semiconducting lead-free perovskites for solar energy conversion Developing flexible energy storage devices for Internet-of-Things (IoT) sensors Advancing zinc batteries and aqueous electrolyte systems Photocatalytic hydrogen production and CO2 reduction Recent Article Trends : Focus on 2D/3D heterostructures, interstitial metal doping, and solvent-engineered interfaces Applications in indoor photovoltaics, artificial synaptic functions, and wearable electronics Lead-free perovskites for resistive memory and energy storage Scientific Awards : ARC DECRA Fellow Advance Queensland Industry Research Fellow CRC for Polymers grant Supervision & Funding : Principal advisor for two PhD projects on lead-free perovskites and flexible batteries Current grants: Enabling low-toxicity perovskites for indoor photovoltaics (2026-2030), Printable zinc ion batteries (2025-2026) Labs & Collaborations : Affiliated with the Nanomaterials Centre at UQ Collaborations with Professor Lianzhou Wang , Professor Ian Gentle , and Associate Professor Ruth Knibbe
Boxin Zhao is a Professor and University of Waterloo Endowed Chair in Nanotechnology in the Department of Chemical Engineering at the University of Waterloo. His research spans surface science, bionanomaterials, and biomimetic adhesion, with a focus on advanced polymers, hydrogels, and smart materials for biomedical and industrial applications. He leads the Surface Science and Bio-nanomaterials Laboratory Group, which develops innovative materials such as self-cleaning surfaces and antimicrobial coatings. Education: Doctorate in Chemical Engineering, McMaster University (2004); Master's from Chinese Academy of Sciences (1999); Bachelor's in Mineral Engineering from Central South University (1996). He has held prestigious fellowships, including the NSERC Postdoctoral Fellowship and IMMS Research Fellow at UC Santa Barbara and Los Alamos Lab. Research Interests: Biomimetic adhesion, soft robotics, polymer composites, and advanced manufacturing. Notable contributions include gecko-inspired adhesives, self-healing hydrogels, and conductive polymers for electronics. Recent work focuses on 3D-printed medical hydrogels, soft robotic devices, and microplastic degradation. His lab collaborates with industries like Proctor & Gamble and 3M, addressing real-world challenges in materials science and biomedical engineering. Awards: 1996 IET Scholarship, 2005 NSERC Postdoctoral Fellowship, 2007 IMMS Research Fellow. Teaching: CHE 313 (Heat/Mass Transfer), CHE 612 (Interfacial Phenomena). Lab Facilities: Advanced equipment for nanomaterial synthesis, surface characterization, and soft robotics prototyping.
Mark W Grinstaff is a Professor at Boston University, leading the Grinstaff Group, which focuses on interdisciplinary biomaterials and biomedical engineering research. His work addresses healthcare challenges through innovations in diagnostics, devices, and therapeutics. He holds a B.A. from Occidental College (1987) and a Ph.D. from the University of Illinois at Urbana-Champaign (1992). Research interests include designing biodendrimers for tissue engineering, interfacial biomaterials, and conducting polymer-based sensors. Key areas span cartilage repair, drug delivery systems (e.g., anticancer, DNA), and biodegradable scaffolds. He explores nanoparticle-based imaging agents for osteoarthritis diagnosis and biomechanical assessments using computed tomography. Recent publications highlight advancements in machine learning-driven osteoarthritis classification, dual-contrast agents for cartilage imaging, and synthetic biolubricants for equine models. His group emphasizes translational research, with a focus on nanotechnology, regenerative medicine, and therapeutic delivery platforms. Grinstaff’s work is supported by grants and collaborations, though specific grants are not detailed in the text. He advises students through the Grinstaff Group, though no student names are listed here. His lab develops novel materials and devices, including polymeric adhesives and biosensors, with applications in orthopedics, oncology, and infectious diseases.
Muhammad Muddasar is a Researcher at the University of Limerick's School of Engineering, affiliated with the Bernal Institute. His primary research focuses on developing sustainable materials derived from lignin for energy harvesting and storage applications. Under the supervision of Professor Maurice Collins, he investigates advanced materials such as hydrogels, ionic conducting membranes, and carbon nanomaterials to enhance renewable energy systems. His work emphasizes reducing environmental impact through innovative synthesis techniques and lifecycle analysis. Key research areas include thermoelectric materials, bioenergy production, microbial electrolysis cells, and lignin valorization. Collaborations span topics like low-grade thermal energy recovery, supercapacitor optimization, and carbon fiber production improvements. Despite no explicit awards listed, his contributions include over 17 peer-reviewed publications between 2021-2025, showcasing impactful work in Materials Today Sustainability, Advanced Functional Materials, and ACS Applied Polymer Materials. His articles highlight trends in lignin-derived materials for energy applications, sustainable manufacturing, and nanomaterial-driven bioenergy systems. Active in international networks, his research bridges material science and renewable energy engineering, addressing global sustainability challenges.
Prof. Robbert Jan Kok is a Professor of Drug Delivery Technology at Utrecht University's Utrecht Institute for Pharmaceutical Sciences (UIPS) and Programme Director for the Bachelor of Pharmacy. He obtained his Pharmacy degree (1993) and PhD in renal drug targeting (1998) from the University of Groningen, followed by postdoctoral research on endothelial-targeted drug delivery. His work spans curriculum development for pharmacy programs and interdisciplinary research in drug innovation. Research Focus: Kok specializes in advanced drug delivery systems, including nanomedicines for kinase inhibitors, 3D-printed formulations, and stimuli-responsive carriers. Key areas include: Targeted delivery to tumors, kidneys, and inflamed tissues Polymeric micelles, liposomes, and microspheres for sustained release Biopharmaceutics and pharmacokinetic optimization Publication Trends: His recent work emphasizes nanotechnology-enabled therapies (e.g., curcumin nanodelivery, photodynamic micelles) and device-integrated drug release (3D-printed implants, macroencapsulation). Studies frequently combine material science with preclinical validation in cancer, renal diseases, and inflammatory disorders. Academic Leadership: Kok oversees student advising, laboratory operations, and international collaborations at UIPS. His team explores translational applications of drug delivery platforms, including partnerships for vascularized tissue engineering and combination therapies.
Jindal Shah is a Professor and holds the Anadarko Petroleum Chair in Chemical Engineering at Oklahoma State University, where he also serves as the Graduate Program Director. He is affiliated with the Department of Chemical Engineering within the College of Engineering at Oklahoma State University. Dr. Shah received his educational training from prestigious institutions worldwide. He earned his Ph.D. in Chemical Engineering from the University of Notre Dame in 2005, followed by an M.S. in Environmental Engineering from the University of Cincinnati in 1999, and completed his undergraduate education with a B.Tech. in Chemical Engineering from the Indian Institute of Technology (IIT) Bombay in 1996. Dr. Shah's research focuses on the application of molecular simulation methodologies to understand molecular-level interactions that give rise to macroscopic phenomena. His primary research interests include Monte Carlo and Molecular Dynamics Simulations, Phase Equilibria, Ionic liquids, and Dye-sensitized solar cells. A significant portion of his work centers on designing novel biodegradable ionic liquids with properties suitable for chemical processes, with applications in next-generation batteries and carbon capture. He also investigates molecular-level interactions responsible for device efficiency in dye-sensitized solar cells to rationally design novel dye molecules. Additionally, Dr. Shah employs data science and machine learning techniques to correlate properties of ionic liquids and generate new molecules with desired properties. An analysis of Dr. Shah's recent publications reveals a strong focus on ionic liquids and their applications in energy storage and carbon capture technologies. His work consistently bridges fundamental molecular-level understanding with practical applications, particularly in developing electrolytes for batteries and CO2 capture systems. A notable trend is the integration of machine learning techniques with traditional molecular simulation methods to accelerate materials discovery and optimization. His research demonstrates a progression from fundamental molecular simulations toward applied technologies with significant environmental impact, particularly in climate action (SDG 13) and affordable clean energy (SDG 7). Dr. Shah has secured substantial research funding from multiple prestigious sources including the National Science Foundation, U.S. Department of Energy, National Aeronautics and Space Administration, and industry partners. His funded projects include 'Collaborative Research: Cyber Training-Implementation, Medium, Establishing Sustainable Ecosystem for Computational Molecular Science Training & Education' (NSF), 'Ionic Liquids for Direct Air Capture of CO2 using Electric-Field-Mediated Moisture Gradient Process' (DOE), and 'CAREER: Computation-Enabled Rational Design of Cytochrome P450 for Ionic Liquid Biodegradation' (NSF). These grants support his research in computational molecular science, CO2 capture technologies, and the development of biodegradable ionic liquids. As an educator, Dr. Shah has been actively involved in teaching graduate courses including Principles of Chemical Engineering Thermodynamics, Doctoral Thesis supervision, and specialized courses such as Machine Learning for Chemical Processes and Introduction to Chemical Process Analytics. His teaching philosophy integrates cutting-edge research with educational practice, preparing students for the computational challenges of modern chemical engineering. He has also mentored numerous doctoral students through their dissertation research, contributing to the development of the next generation of chemical engineers and computational scientists.
Daria Camilla Boffito is a Full Professor in the Department of Chemical Engineering at Polytechnique Montréal , holding the Tier-2 Canada Research Chair in Intensified Mechano-chemical Processes for Sustainable Biomass Conversion. Her research spans process intensification , catalysis , sonochemistry , photocatalysis , and metal extraction , with a focus on sustainability. Education: B.Sc. and Ph.D. in Industrial Chemistry from the University of Milan, M.Sc. in Industrial Chemistry and Management Current Research: Developing ultrasound-assisted extraction , CO2 conversion , and floating photocatalysts for wastewater treatment Collaborations: Works with Canadian and international companies on sustainable chemical processes Scientific Awards include the Canada Research Chair Tier-2 (2016-2021), NSERC Banting Postdoctoral Fellowship (2013-2016), and FRQNT PBEEE Postdoctoral Fellowship (2013-2016). Advising has seen 5 Ph.D. and 9 Master's students graduate. She leads the Engineering Process Intensification and Catalysis (EPIC) Laboratory and is a member of the Institut de génie biomédical .
Sam Emaminejad is an Associate Professor in the Department of Electrical and Computer Engineering at the Henry Samueli School of Engineering and Applied Science, University of California Los Angeles (UCLA). His research focuses on developing advanced wearable bioelectronic systems for continuous, noninvasive health monitoring and personalized therapeutics. Key Research Areas: Biomarker detection via flexible sensors Microfluidic and ferrobotic systems Stress and drug level monitoring Biodegradable and breathable wearable materials Recent Trends: Analysis of sweat and interstitial fluids using microneedles, aerogel skins, and programmable microfluidics. Machine learning integration for physiological evaluation is prominent. Awards & Collaborations: While specific awards aren't listed, he collaborates with major UCLA Health and Engineering faculty, including Ali Khademhosseini and Dino Di Carlo, on projects funded by NIH T32 grants and institutional fellowship programs. Grants & Labs: Leads projects in NIH-funded wearable sensor research, including the development of autonomous systems for cystic fibrosis and glucose monitoring. His lab explores ferrobotic swarms and hydrogel-based interfaces for clinical and consumer applications.
Ken Oakes is an Associate Professor in the Biology Department at Cape Breton University (CBU) and holds the Industrial Research Chair in Environmental Remediation. He specializes in environmental toxicology, nanotechnology, and aquatic ecosystems. With a Ph.D. from the University of Guelph and postdoctoral training at the University of Waterloo, his research focuses on reactive oxygen species, water treatment, and pollution mitigation. He has over 60 peer-reviewed publications and supervised numerous graduate/undergraduate theses. Key research areas include photocatalytic water treatment using TiO₂ composites, surface-enhanced Raman spectroscopy (SERS) for contaminant detection, and transdermal drug delivery via polymeric microneedles. His work addresses industrial effluent impacts on marine ecosystems and sustainable antifouling technologies. Recent studies investigate nanomaterials for environmental remediation and biomedical applications. Dr. Oakes has contributed to projects assessing pulp mill effluent effects on coastal ecosystems, copper-based Fenton chemistry for biofilm removal, and uranium extraction from water. His lab develops innovative solutions for environmental challenges, combining engineering, chemistry, and biology disciplines. Funding sources include industrial partnerships and academic grants focused on clean technologies.
Adam Feinberg is a Professor in the Departments of Biomedical Engineering and Materials Science and Engineering at Carnegie Mellon University (CMU). He leads the Regenerative Biomaterials & Therapeutics Group, focusing on cell-material interactions, 3D bioprinting, and bioengineered tissues. His work integrates nanofabrication, molecular biology, and 3D imaging to address challenges in muscle repair, corneal regeneration, and cancer. Key innovations include the FRESH bioprinting platform, enabling soft ECM gel-based constructs, and ECM shrink-wrapping techniques for cell encapsulation. Feinberg holds a Ph.D. and MS in Biomedical Engineering from the University of Florida (2004, 2002) and a BS in Materials Science and Engineering from Cornell University (1999). He has secured major grants, including ARPA-H funding for diabetes treatments and Canada’s New Frontiers Fund for heart disease therapies. His research has led to over 45 peer-reviewed articles and 20 patents. His scientific awards include the NIH Director’s New Innovator Award and NSF CAREER Award. Media highlights include breakthroughs in vascularized tissue models and biodegradable actuators. Feinberg collaborates widely, advancing clinical translation of bioprinted tissues and sustainable bio-bots.
Jouko Peltonen is a Professor in Chemistry at Åbo Akademi University's Faculty of Natural Sciences and Engineering. He leads the Laboratory of Molecular Science and Technology, focusing on sustainable material development and biomedical applications. His work aligns with UN Sustainable Development Goals through green chemistry innovations. Ph.D. in Chemistry (Åbo Akademi, 1994) Licentiate in Chemistry (Åbo Akademi, 1992) Master's in Chemistry (University of Helsinki, 1988) Peltonen's research spans materials science , polymer chemistry , and sustainable technology , with emphasis on nanocellulose composites , antibacterial materials , and bio-based packaging . Recent projects explore biofilm modeling and lignin valorization. His publications (216 total) demonstrate interdisciplinary impact across biomedical engineering , environmental science , and chemical manufacturing . Key collaborations include NordForsk-funded initiatives and EU projects like PACKER 2020. Research grants include: Printed Intelligence Infrastructure (Academy of Finland, 2024-2028) Nordic POP (NordForsk, 2018-2025) ABC-Health (Jane och Aatos Erkkos Foundation, 2021-2024)
Dr. Patrick Kung serves as Associate Professor and Associate Department Head for Undergraduate Programs in the Department of Electrical and Computer Engineering at the University of Alabama's College of Engineering. His research spans nanotechnology, quantum computing, and terahertz photonics with significant contributions to metamaterials and optical systems. Research Focus: Dr. Kung specializes in terahertz spectroscopy, polarization-sensitive imaging, and nanoscale material engineering. His work integrates machine learning with optical systems for applications in underwater imaging, quantum networking, and biodegradable polymers. Recent projects include $1 million Department of Energy funding for quantum networking research (2024) and development of materials for slowing light propagation. Publication Trends: His recent publications (2022-2025) demonstrate a clear trajectory toward multimodal sensing systems combining terahertz technology, polarization control, and AI-driven image processing. Key themes include underwater object recognition using single-photon LiDAR, compact drone-compatible imaging platforms, and cryogenic photonic components for quantum applications. The work consistently bridges fundamental nanophotonics with practical engineering solutions. Department of Energy Funding ($1 Million for Quantum Networking Research, 2024) Dr. Kung actively mentors students in EPA-funded water disinfection projects using UV-LED technology and collaborates with industry partners through the Southeast Executives-on-Roster program. His laboratory work focuses on nanowire-based thin films and metamaterial absorbers, with applications in environmental monitoring and quantum communication hardware.
Dr. Hongli (Julie) Zhu is an Associate Professor in the Department of Mechanical and Industrial Engineering at Northeastern University's College of Engineering. Her research focuses on sustainable energy storage, multifunctional materials, and advanced manufacturing, with emphasis on developing environmentally friendly biomass-derived materials, all solid-state batteries, and flow batteries. She leads the ZHU Lab at Northeastern University, which is dedicated to creating safer, cheaper, and higher performance energy storage solutions while exploring multifunctional materials derived from nature. Dr. Zhu received her PhD from South China University of Technology and Western Michigan University (2004-2009). She conducted postdoctoral research at KTH Royal Institute of Technology in Sweden (2009-2011), focusing on biodegradable and renewable biomaterials from natural wood, followed by additional postdoctoral work at the University of Maryland (2012-2015), where she researched nanocellulose and energy storage. Dr. Zhu's research spans multiple disciplines at the intersection of materials science, energy storage, and sustainable manufacturing. Her work addresses critical challenges in energy storage technology, including developing all solid-state batteries, flow batteries, and high energy density battery systems. She has pioneered research in sustainable biomass-derived materials, particularly investigating cellulose, hemicellulose, and lignin for applications in bendable, implantable, and biocompatible electronics. Her lab also focuses on advanced manufacturing techniques, including high-speed roll-to-roll processing for emerging advanced materials and devices. Analysis of Dr. Zhu's publication record reveals a strong focus on next-generation battery technologies, particularly solid-state systems. Her research demonstrates significant contributions to understanding and improving lithium dendrite suppression, electrode architecture optimization, and interface stabilization in solid-state batteries. She has also made substantial advances in sustainable materials derived from natural resources, developing applications for cellulose nanostructured fibers, paper, and aerogel/hydrogel systems. MRS Communications Early Career Distinguished Presenters and JMR Distinguished Invited Speakers (2024) Selected in Stanford University List of Top 2% Scientists Worldwide (2021-2024) College of Engineering Faculty Fellow (2023) Soren Buus Outstanding Research Award (2022) Women in Materials Science, Advanced Materials (2021 and 2022) Women Scientists at the Forefront of Energy Research, ACS Energy Letters (2020) Innovator of the Year 2013, Maryland Jakob Wallenberg Scholarship, Sweden Dr. Zhu has secured significant research funding from various sources, including the National Science Foundation and Department of Energy. Her current projects include "Uncovering the mechano-electro-chemo mechanism of fresh Li in sulfide based all solid-state batteries through operando studies" (NSF), "Enabling Advanced Electrode Architecture through Printing Technique" (DOE), and "Engineering the Metal Sulfide Interface in All Solid State Batteries through Operando Study" (NSF). She collaborates with industry partners including Rogers Corporation and has developed patented technologies related to sustainable materials and energy storage. Dr. Zhu serves as Codirector of Advanced & Intelligent Manufacturing, Editor of Progress in Materials Science, and on the Editorial Advisory Board of Chemical Society Reviews. The ZHU Lab at Northeastern University is a highly interdisciplinary research group that bridges scales from the nanoscopic to macroscopic and system level. The lab's work has led to numerous patents, including "Natural fiber composites as a low-cost plastic alternative" and "Fire-retardant Nanocellulose Aerogel, and Methods of Preparation and Uses Thereof." The group focuses on making energy storage safer, cheaper, and higher performing while exploring multifunctional materials derived from nature, with particular emphasis on applying high-speed roll-to-roll manufacturing to emerging advanced materials and devices.
Alex Chortos is an Assistant Professor of Mechanical Engineering at Purdue University's School of Mechanical Engineering. His research focuses on bio-inspired electronics, mechanically adaptive materials, and advanced manufacturing techniques. He leads the Chortos Lab, which explores innovations in soft actuators, wearable haptics, and polymer design. Chortos holds a B.A.Sc. from the University of Waterloo (2011), a Ph.D. from Stanford University (2017), and completed a postdoctoral fellowship at Harvard University (2020). His academic work bridges fundamental material science with practical applications in robotics, biomedical devices, and human-machine interfaces. Key research areas include: Multimaterial additive fabrication for soft robotics Stretchable sensors and transistors for e-skin applications Design of durable and adaptive polymer systems His publications emphasize advancements in 3D printing techniques, bioinspired sensor systems, and the development of mechanically robust electronic components. Recent work explores photodynamic polymers and machine learning-driven optimization of soft actuators.
Rahim Rahimi is an Assistant Professor of Materials Engineering at Purdue University, associated with the College of Engineering. His research focuses on advanced materials for biomedical applications, environmental sensing, and flexible electronics. Key interests include developing smart sensors for healthcare, antibacterial coatings for medical implants, and sustainable agricultural monitoring systems. Research emphasizes targeted drug delivery systems via smart capsules, environmental sensor networks for water quality and soil health, and nanotechnology applications in wearable devices. Notable projects include oxygen-generating surgical meshes for wound healing and low-cost wireless sensors for precision agriculture. His work bridges materials science with clinical and environmental challenges, leveraging plasma deposition techniques and nanomaterial functionalization. Recent efforts focus on self-calibrating sensors and integrating machine learning for manufacturing optimization. No scientific awards are explicitly listed in the provided information. His advisory role and grant activities are inferred through his research outputs in materials engineering and biomedical innovation. Rahimi collaborates across disciplines within Purdue's engineering ecosystem, contributing to labs focused on bio-inspired materials and flexible electronics. Future work aims to advance implantable medical devices and scalable sensor technologies for global health applications.
