Chemistry, Light Emitting Diodes, Materials Science, Physics, Solar Energy
Prof. Nazeeruddin's current research at EPFL focuses on Perovskite Solar Cells and Light-emitting diodes. He has published more than 627 peer-reviewed papers, ten book chapters, and is an inventor/co-inventor of over 75 patents, which are well cited 87鈥047 with an h-index of 137 having an average citation of over 141. Google Scholar h-index is 152, and total citations are 112鈥012. His group has developed layer-by-layer growth of 3-dimensional and 2-dimensional perovskites yielding solar to the power conversion efficiency of 23.5% certified at Newport calibration PV lab earlier this year. His group has earned worldwide recognition and leadership in perovskite solar cells as evidenced by Times of higher Education selection as 鈥渢he top 10 researchers in the world working on the high impact perovskite materials and devices鈥. This recognition is based on the accumulated results and impacts generated between 2014 and 2018. He is elected to the European Academy of Sciences (EURASC), and Fellow of The Royal Society of Chemistry. According to ISI listing, he is one of the most cited chemists in 2014, 2015, 2016, 2017 and 2018, and one of the 20 scientists identified by Thomson Reuters as The World Most Influential Scientific Minds 2015, 2017, and 2018 from all scientific domains.
Professor, Materials Science and Engineering and Director, Institute for Design and Manufacturing Innovation
University of California, IrvineAdvanced Manufacturing, Aerospace Engineering, Health, Materials Science, Metamaterials
Prof. Valdevit received his MS degree (Laurea) in Materials Engineering from the University of Trieste, Italy (in 2000) and his PhD degree in Mechanical and Aerospace Engineering from Princeton University (in 2005). He worked as an intern at the IBM T.J. Watson Research Center and as a post-doctoral scholar at the University of California, Santa Barbara. He joined the faculty in the Mechanical and Aerospace Engineering Department at the University of California, Irvine in 2007. In 2018, he moved his appointment to the newly established Department of Materials Science and Engineering, where is currently a professor. He is serving as the inaugural director of the Institute for Design and Manufacturing Innovation in the School of Engineering. Prof. Valdevit works in the general area of mechanics of materials, developing analytical, numerical and experimental techniques across multiple length scales. His primary research goal is the optimal design, modeling, fabrication and experimental characterization of metamaterials and structures with unprecedented combinations of properties. Some key research accomplishments have been the development and optimization of multifunctional sandwich panels for thermo-structural applications (including hypersonics), the mechanical characterization, numerical modeling and optimal design of ultralight hollow micro-lattices and 2D and 3D shape-reconfigurable materials, the development of novel topology optimization algorithms for the optimal design of architected materials with complex unit cell designs, and the advancement of novel additive manufacturing processes (in particular two-photon polymerization Direct Laser Writing, Direct Metal Laser Sintering and Cold Spray).
Atomic Force Microscopy, Chemistry, Mass Spectrometry, Materials Science, Physics, scanning electron microscopy, vibrational spectroscopy
- Postdoctoral Scholar, University of California, Irvine
- Visiting Scientist, California Institute of Technology
- PhD, University of Delaware
- BS, University of South Carolina
Biography
The Perrine research group focuses on understanding reactions and processes at surfaces and interfaces, from pure metals, oxides, minerals to heterogeneous materials. We use a surface chemistry and surface science approach to connect molecular-level reactions at the gas/solid and liquid/solid interface. We also design meso- and nano-architectured materials using surface functionalization methods for next-generation heterogeneous catalysts and materials. Our aim is to understand the fundamental physical and chemical processes at interfaces to unravel surface mechanisms and transformations of materials, addressing challenges in catalysis and environmental science.
A variety of surface analysis instruments are utilized to understand surface chemistry, including vibrational spectroscopy, electron spectroscopies, mass spectrometry, scanning electron microscopy, and atomic force microscopy. Our program is multidisciplinary encompassing the fields of chemistry, physics, materials science, and engineering.
Links of Interest
- Positions are open for undergraduate, masters, and PhD students.
Research Interests
- Surface chemistry and interfacial science
- Bridging reactions at the gas/solid and liquid/solid interfaces under model (ultra-high vacuum) and real (near ambient pressure) conditions
- Designing metal-oxide architectures and nanostructures on various substrates; Atomic Layer Deposition and tailored growth approaches
- Growth, properties, and reactions on heterogeneous structures for energy and environmental applications
Chemical Engineering, Condensed Matter Physics, Energy Policy, Materials Science
Peter Majewski joined UniSA in January 2003 as Professorial Fellow at the Ian Wark Research Institute before he moved on to the professor position on Nanotechnology and Nanomanufacturing in the School of Advanced Manufacturing and Mechanical Engineering in January 2008 and the Head of School position in 2011. In 2013, Peter Majewski was appointed Head of School of Engineering. Since June 2016, he is Research Professor Advanced Materials in the Future Industries Institute.
He is mineralogist by training and has focused his research work mainly on nanomaterials synthesis and processing as well as nanomanufacturing. Born in Germany, he studied geology at University of Hannover, Germany, and received Diploma (4-year course) in 1985. He immediately started his PhD work on cation diffusion in silicates at the University of Hannover. In 1988, he received PhD in Mineralogy at the University of Hannover. In 1989, he joined the Max-Planck-Institute for Metals Research (MPI-MF), Department of Materials Synthesis and Microstructure Design (Powdermetallurgical Laboratory) as post doctoral fellow. His main research work was part of a long-term initiative of the Max-Planck-Institute along with other university institutes and the companies Hoechst AG, Siemens AG, and Vacuumschmelze on the development of high temperature superconducting cables and devices.
In 1992, he received the Heinz Maier Leibnitz award of the Department of Education and Science of the Federal Government of Germany for his fundamental studies on the phase relations and synthesis of novel ceramic superconductors. After several renewals, the program, which was supported by the German government, ended in 2001. At that time, Peter already became senior scientist as well as deputy department head of the Department Materials Synthesis and Microstructure Design. In addition to that, he already has switched is focus to the Solid Oxide Fuel Cells. In 1998, he set up an interdisciplinary cooperation between the MPI-MF and the Research Centre Juelich, and the German Centre for Air and Space Travel Stuttgart (DLR) on the synthesis and characterization of novel electrode and electrolyte materials for solid oxide fuel cells, which was funded by the German government. In 2000, he received the International Research Exchange Scheme Award of the Australian Research Council. In the frame of this award, he joined the Faculty of Engineering of the University of Wollongong as an International Professor Fellow, for several months during the years 2001 and 2002.
At UniSA, Peter is setting up interdisciplinary research projects in the area of material science covering fundamental and applied studies on various materials in water treatment, biomaterials, and materials for renewable energy systems. More recently, Peter's research focuses product stewardship scheme developments and circular economy aspects for emerging technologies and renewable energy technologies. He was involved in major funding initiatives by the South Australian and Federal Government as well as industry. Peter has published more than 230 papers on various topics in materials science and engineering and energy policy. His current h-index is 38.
Arthropods, Beetles, Bioinspiration, bioinspired design, brochosomes, Cicada, Cicadas, Dragonflies, Entomology, Flies, Insects, integrative biology, Leafhopper, Materials Science, mechanical systems, Physiology
Marianne Alleyne is a researcher at the , an assistant professor of entomology at the , and is affiliated with the Illinois Department of Mechanical Science and Engineering. Her research group, the Alleyne Bioinspiration Collaborative, or ABCLab, uses a variety of insects as inspiration for the novel design of materials and mechanical systems.
Alleyne is a past president of the Entomological Society of America. She is also regularly featured on news outlets like and .
Research Interests:
Physiology
Bioinspiration
Bioinspired design
The ABC Lab is broadly interested in what structures and systems in nature (specifically those found in arthropods) can help us more efficiently design novel technologies. We rely on fundamental scientific data to inform the bioinspired design process. Our focus is on multi-functionality of insect wings (cicadas, flies, dragonflies, beetles) and insect associated structures (leafhopper brochosomes). We also study the clicking mechanism of click beetles.
Education
M.S., entomology, University of California, Riverside, 1995
Ph.D., entomology, University of Illinois at Urbana-Champaign, 2000
Other links
Agriculture, food system, Materials Science, plant-based, Polymer Chemistry
Priera (she/her) is passionate about leveraging science and technology to advance food security, improve environmental sustainability, and ensure equitable access and flourishing livelihoods for producers across food and agricultural value chains. Her role at the Good Food Institute focuses on accelerating the plant-based meat industry by analyzing the plant-based protein landscape, identifying emerging technological solutions and bottlenecks, and communicating with other scientists about advancing alternative protein research. She aims to take a “big tent” approach to food system transformation—strongly advocating for inclusive solutions that provide opportunities for farmers, processors, food manufacturers, and consumers alike. Priera has also applied her chemistry background to address issues of minimizing food waste, improving water use in agriculture, reducing agricultural chemical runoff, and, currently, optimizing the sustainability of our global protein supplies.
Priera has bachelor’s degrees in chemistry and math from the University of California, Santa Cruz as well as a master’s and a doctorate in organic chemistry from the University of California, Los Angeles. Prior to joining the Good Food Institute, Priera spent almost a decade focusing on polymer, formulation, and materials chemistry research. Particularly, she honed these skills for food security applications by creating novel sustainable agriculture materials and compounds.
Chemistry, Materials Science, physicochemical, plant-based, Protiens
Prior to joining GFI, Nikhita worked in food and biotech product development, most recently as an Innovation Scientist at Beyond Meat. While at Beyond, she led flagship product development projects from the fundamental research stage through formulation and scale-up. She holds a bachelor’s degree in physics from the University of Illinois at Urbana-Champaign and a Ph.D. in materials science and engineering from Northwestern University.