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Kevin James LawsView profile

Associate Professor

• Metals and Alloy Materials
• Metallic Glasses
• Amorphous Materials
• +3 more

Associate Professor Kevin James Laws is an academic in the School of Materials Science and Engineering at the University of New South Wales. He holds roles including Project Manager at the ARC Centre of Excellence for Design in Light Metals and previously held a Postdoctoral Fellowship at UNSW. His expertise centers on alloy design, particularly metallic glasses and their processing techniques such as die-casting and thermomechanical treatments. Laws has contributed to the development of amorphous alloys for structural and biomedical applications, including magnesium-based composites with enhanced thermal stability. His research focuses on material properties such as corrosion resistance, mechanical behavior, and phase stability, supported by over $100k in research funding since 2008. He has co-supervised 10 honours and 6 PhD students, reflecting his commitment to training the next generation of materials scientists. Awards include the ARC Postdoctoral Fellowship and invited research positions at ETH Zurich and the US Air Force Research Laboratories. Research Highlights : Design of bulk metallic glasses, amorphous alloy matrix composites, and bioresorbable materials. Teaching : Coordinates Welding and Joining Processes, guest lectures in polymer engineering, and supervises honours/PhD theses. Laws' work bridges fundamental materials science with industrial applications, emphasizing high-throughput methods and computational modeling to accelerate alloy discovery. His publications span over 60 journal articles, book chapters, and conference contributions, addressing topics from atomic-scale structure analysis to macro-scale material performance.

• materials microstructure
• mechanical strength
• ceramic-metal composites
• +8 more

Marcin Wachowski is a Professor at the Military University of Technology, specializing in mechanical engineering with a focus on materials science and composite materials. His research emphasizes ceramic-metal composites, welding technologies, and sustainable manufacturing processes. He has published extensively, with over 115 peer-reviewed articles, and holds an h-index of 14 (Scopus) and 16 (Web of Science). Key research areas include the development of eco-friendly materials, optimization of composites via centrifugal slip casting and magnetic field applications, and analysis of microstructure-property relationships. His work spans aerospace, automotive, and defense applications, addressing challenges in material durability and environmental impact. Recent studies highlight advancements in ceramic molding binders, friction stir welding of titanium alloys, and characterization of gradient composites. Collaborative projects involve international partners, focusing on sustainable manufacturing and lifecycle assessment (LCA) for materials.

• Materials Science
• Lightweight Materials
• Aluminum Alloy Design
• +5 more

LU Hongxing is a Research Associate Professor in the Department of Mechanical and Energy Engineering at Southern University of Science and Technology (SUSTech). He joined SUSTech in 2017 after completing his PhD and has progressed from Research Assistant Professor to his current position. He also serves as General Manager of Shenzhen Nanke-qiangzheng Light Alloy Technology Co., Ltd. and Deputy Secretary General of the Semi-solid Working Committee of the China Foundry Association. His educational background includes: PhD in Materials Science and Engineering (2017), General Research Institute for Non-ferrous Metals, Beijing Bachelor's degree in Materials Science and Engineering (2012), Beihang University (Beijing University of Aeronautics and Astronautics) Dr. Lu's research focuses on lightweight materials and manufacturing technologies for vehicles and communication equipment. His work spans multiple areas including new alloy design, semi-solid processing theory and technology, and lightweight component design and manufacturing. He has particular expertise in aluminum alloy semi-solid forming, die-casting technologies, and intelligent manufacturing systems. His research combines fundamental materials science with practical engineering applications to solve industry challenges in lightweighting. His publication record shows a strong focus on semi-solid processing of aluminum alloys, with recent work expanding into additive manufacturing techniques like selective laser melting. The research demonstrates progression from fundamental studies of microstructure and material behavior to applied research addressing specific industrial challenges in casting and forming processes. Dr. Lu has received numerous professional recognitions: First Prize of the Shenzhen Science and Technology Progress Award Outstanding Communist Party Member, SUSTech Committee (2020) Outstanding Tutor, School of Innovation and Entrepreneurship, SUSTech (2020) Outstanding Party Worker, SUSTech Committee (2019) Best Paper of GRINM 2015 Annual Academic Conference Excellent undergraduate thesis award from Beihang University As a research leader, Dr. Lu has participated in over 10 major scientific research projects from national and municipal funding agencies, and has presided over research projects from industrial partners including STAS and Guangzhou Hede. He has supervised seven master's students, with several receiving university-level honors. His research group focuses on advanced forming technologies and collaborates closely with industry partners to translate research into practical applications. Dr. Lu leads research activities within the Department of Mechanical and Energy Engineering at SUSTech, which houses specialized laboratories for additive manufacturing, precision machining, and materials testing. His work is closely tied to the Shenzhen Key Laboratory of Additive Manufacturing of High-Performance Materials and contributes to SUSTech's broader research initiatives in intelligent manufacturing.

• Engineering Graphics
• Descriptive Geometry
• Computer Graphics
• +4 more

Evelina Anatoliivna Bazhmina is an Associate Professor at Zaporizhzhia Polytechnic University, specializing in engineering education with a focus on descriptive geometry, engineering graphics, and computer graphics. She has been affiliated with the university since 1993 and holds a PhD in Professional Education, which she defended in 2023 with her dissertation on forming a culture of independent work among mechanical engineering students using BYOD technology. Her educational background includes: Specialist diploma in 'Materials Science in Mechanical Engineering' from ZNTU (1998) Bachelor's degree with honors in 'Jurisprudence' from ZNTU (2012) Specialist diploma with honors in 'Jurisprudence' from ZNTU (2013) Dr. Bazhmina's research focuses on innovative teaching methods for engineering graphics, blended learning approaches, and the application of BYOD technology in technical education. She also has expertise in civil and family law, contributing to interdisciplinary educational approaches. Her work emphasizes student-centered learning and the development of independent work skills among technical students. Her extensive publication record demonstrates a strong commitment to improving engineering education through technology integration, with particular emphasis on formative assessment, personalized learning approaches, and the development of students' self-directed learning capabilities in technical disciplines. Scientific awards and recognitions include: Honorary badge 'For Impeccable Work' III degree (2024) Honorary certificate of the Executive Committee of the Zaporizhzhia City Council (2016) Gratitude of the Board of Education and Science of Zaporizhzhia Regional State Administration (2011) Honorary certificate of the Trade Union of Education and Science Workers of Ukraine (2011) Honorary certificate of the Department of Education and Science of Zaporizhzhia Regional State Administration (2002) Dr. Bazhmina has authored multiple textbooks and teaching materials, including 'Diagnostics of the formation of a culture of independent work of students of the mechanical engineering industry' and 'Fundamentals of engineering graphics,' contributing significantly to educational resources in her field. She teaches Descriptive Geometry, Engineering Graphics, and Computer Graphics courses at the university.

• Structure engineering
• Earthquake engineering
• Concrete material engineering
• +4 more

Sopokhem Lim is a Researcher at the Faculty of Science and Engineering, Waseda University , specializing in structural engineering, concrete material science, and corrosion effects on infrastructure. His work integrates X-ray imaging , finite element (FE) modeling , and probabilistic analysis to study steel corrosion variability, fiber-reinforced concrete performance, and structural reliability in marine environments. Research Interests: Steel fiber-reinforced concrete (SFRC), corrosion-induced cracks, FE modeling, X-ray technology, spatial corrosion distribution, and life-cycle cost analysis. Key Projects: Development of centrifugal-forming SFRC piles for shear reinforcement replacement, chloride corrosion mitigation using stainless steel rebars in coastal bridges, and Gumbel distribution-based reliability modeling for aging RC structures. His recent publications focus on carbon-neutral concrete technologies , fiber orientation control , and non-uniform corrosion effects on prestressed concrete beams. While no explicit awards or student advisement details are provided, his work emphasizes experimental validation of corrosion models and data-driven structural assessments using X-ray photogrammetry and digital image processing.

Alexander RokossView profile

Researcher

• Production Engineering
• Electrical Engineering
• Digital Transformation
• +5 more

Dr. Alexander Rokoss is a Research Associate at the Institute of Production Engineering and Systems (IPTS) at Leuphana University of Lüneburg. Since 2018, he has focused on projects related to digital transformation in engineering education, Industry 4.0 applications, and advanced production technologies. BMBF-Projekt PROMINT_40: Hybrid STEM study orientation program for women Remote Labs in Electrical Engineering for digital skills development Model-based property design along process chains (continuous casting, extrusion, bending) Development of data-driven models for process robustness optimization Application of 5G technology in small and medium enterprises (EVOLVE5G project) His research spans manufacturing technology, materials mechanics, and engineering didactics, with notable work on magnesium-based nanocomposites, fiber-metal laminates, and additively manufactured extrusion dies. He also contributes to teaching activities and student support programs at the university.

• Machining Simulation
• Manufacturing Processes
• Metal Forming
• +1 more

Milan Rakita is an Associate Professor of Practice in the School of Engineering Technology at Purdue University. His office hours are held in Knoy 140 on Mondays (10:30–12:30), Tuesdays (10:30–12:30), Wednesdays (10:30–12:30), and Thursdays (1:30–3:30), with additional availability by appointment. He joined Purdue in 2014 and has held roles as Clinical Assistant Professor and Visiting Instructor. Prior to Purdue, he was a researcher at the Vinca Institute of Nuclear Sciences in Serbia and held tenure-track positions at the University of Novi Sad. Education PhD , Mechanical Engineering Technology, Purdue University (2013) MSc , Mechanical Engineering, University of Novi Sad, Serbia (2005) MEng , Mechanical Engineering, University of Novi Sad, Serbia (2000) Research Focus Rakita's work centers on optimizing industrial manufacturing processes, with emphasis on: Machining simulation and troubleshooting Metal forming techniques Solidification processing Ultrasonic-assisted manufacturing (e.g., shot peening, extraction) Die-casting efficiency (lubrication, cooling) His research bridges computational modeling, experimental validation, and industrial implementation to enhance sustainability and efficiency. Publications & Recognition Rakita has co-authored over 30+ publications spanning materials science, manufacturing, and engineering education. Key trends include ultrasonic processing (40% of recent works), die-casting optimization (30%), and educational pedagogy (15%). He received the Best Paper Award from the American Foundry Society (2013) for work on magnesium alloy solidification. Industry & Consulting He has led projects with major automotive firms including: Stellantis : Cryogenic machining for aluminum/steel tool life (2020–2021) Fiat Chrysler : Ultrasound-assisted die casting, pulsed lube systems (2015–2017) 30+ projects via Purdue Technical Assistance Program (2007–2010) covering stress analysis, tool design, and process optimization. Professional Affiliations American Foundry Society American Welding Society

• Sorbent Synthesis
• Salt Waste Processing
• Metallic Glasses
• +3 more

Krista Carlson serves as an Associate Professor at the University of Nevada, Reno, specializing in advanced materials development for nuclear and environmental applications. Her research bridges fundamental materials science with practical engineering solutions for radioactive waste management and water treatment systems. Education: Ph.D. in Glass Science, New York State College of Ceramics at Alfred University (2008) B.S. in Glass Engineering Science, New York State College of Ceramics at Alfred University (2004) Her research program focuses on sorbent synthesis for radionuclide capture , particularly for iodine and other hazardous species in complex gas streams. She develops high-temperature metallic glasses based on tungsten and tantalum for extreme environments, and designs electrochemical systems for water treatment using nanostructured electrodes. Her salt waste processing work addresses critical challenges in electrochemical reprocessing of used nuclear fuel, creating sustainable waste management solutions through phosphate-based dechlorination and zeolite occlusion techniques. These efforts combine sol-gel chemistry, nanomaterials engineering, and electrochemical analysis to tackle nuclear waste remediation. Analysis of her publication record reveals strong emphasis on nuclear materials (65% of recent work), electrocatalysis (20%), and biomedical materials (15%). Key technical threads include metallic glass corrosion resistance, iodine sorbent regeneration cycles, and titanium dioxide nanotube applications for water disinfection. Her methodology integrates computational modeling with experimental validation across multiple length scales. While no specific scientific awards are documented in the source material, her research demonstrates sustained funding through nuclear energy programs and materials science initiatives. Her advising activities focus on graduate students in materials engineering, with emphasis on experimental techniques for nuclear applications. Her laboratory operations center on materials synthesis facilities for sol-gel processing, metallic glass production via gas atomization, and electrochemical testing rigs for waste treatment validation. Current efforts target scalable sorbent production and integration of metallic glasses into nuclear facility waste processing systems.

Alexander ThierryView profile

Associate Professor

• Ceramic art
• 3D studies and related technology
• Art education
• +4 more

Alexander Thierry is an Associate Professor of Art and Art Education in the Visual & Performing Arts department at South Carolina State University. He focuses on 3D studies and related technology with an emphasis on ceramic art within the B.A. in studio art ceramics and sculpture concentration. He also advises and serves as the art education specialist, training and supervising art education candidates for the B.S. in art education. Additionally, he serves as president of Faculty Senate and previously held the position of Vice-President of Faculty Senate (2019-present). Thierry's educational background includes: B.A. in Art - Painting, Truman State University B.F.A. in Fine Art - Ceramics, Truman State University M.A.E. in Art Education, Truman State University M.F.A. in Studio - Ceramics, University of Kansas Thierry's artistic practice centers on the exploration of memory through ceramic materials. His philosophy states: 'A person is as alive as their memories and I truly believe that once a memory is lost, it is so hard to reclaim.' His work investigates how physical objects can represent and preserve memories, time, and events using diverse ceramic techniques including handbuilding, throwing, slip casting, and press molding combined with processes like slaking, growing plants, screen printing, laser etching, drawing, and 3D printing. His work ranges from temporary to permanent objects, exploring the variable nature of permanence in relation to memory. His recent exhibition history demonstrates a strong focus on contemporary ceramics, with particular attention to functional forms like cups and vessels that carry conceptual meaning related to memory and relationships. His work often incorporates mixed media elements and explores the intersection of traditional ceramic techniques with modern technology, as seen in series like 'Tea Landscapes,' 'Vessel Landscapes,' and 'Current Works.' Thierry has received numerous awards and recognitions for his work: Ceramic Centric - Honorable Mention (2019) 701 Center for Contemporary Art Prize - Finalist (2018) Almighty Cup Show – Honorable Mention (2018) South Carolina State University Junior Faculty Travel Grant (2018) Fine Contemporary Craft Exhibition – First Place (2017) As an educator, Thierry has developed a distinctive teaching philosophy centered on community building and collaborative learning. He has taught at multiple educational levels from high school to university, believing the classroom should be 'a collaborative place for investigation' where students feel comfortable sharing ideas and pushing their creative boundaries. His teaching approach emphasizes developing creative problem-solving skills while maintaining an environment where 'making can flourish and be a collaboration between everyone present.'

Jen BlazinaView profile

Professor

• Glass Art
• Printmaking
• Sculpture
• +5 more

Jen Blazina is a Professor and Screenprinting/Printmaking Area Coordinator at Drexel University's Westphal College of Media Arts and Design. She is a renowned sculptor and printmaker who primarily works with glass as her medium, specializing in cast glass and screenprinting techniques. Blazina's artistic practice explores themes of memory, heirlooms, and the transformation of commonplace possessions into meaningful artworks. Her work often re-creates and casts momentos in glass and metal, transforming their history through her artistic voice. She has developed specialized techniques in alternative printmaking on glass that have been featured in workshops worldwide. Her work is included in prestigious collections such as the Corning Museum of Glass, Neuberger Museum of Art, Imagine Museum, and Cranbrook Museum of Art. Blazina has received numerous prestigious residencies including at the Corning Museum of Glass, Toledo Museum of Art, Bezalel Academy of Arts and Design, and the Creative Glass Center of America. She is represented by several prominent galleries including Habatat Galleries in Royal Oak, MI; Blue Spiral 1 in Asheville, NC; Koelsch Gallery in Houston, TX; and the Corning GlasMarket in Corning, NY. Her recent work demonstrates continued innovation in glass casting and printmaking techniques with a focus on memory narratives and material transformation. Bessie and Louis Stein Fellowship Independence Foundation Artist Fellowship Grant National Endowment for the Arts Fellowship Grant Multiple Westphal Faculty Development Grants Urban Glass Scholarships Corning Museum of Glass Scholarships 1st Place Award National Print Exhibition Blazina maintains an active studio practice while teaching at Drexel University. She has presented lectures and conducted workshops internationally, sharing her expertise in glass printmaking techniques. Her educational outreach includes master classes at major glass art institutions worldwide, contributing significantly to the contemporary glass art community. She holds an M.F.A. in printmaking from Cranbrook Academy of Art, a B.F.A. cum laude from SUNY Purchase College, and a B.A. in Art History and Fine Arts from Sarah Lawrence College. Her international residencies and exhibitions demonstrate her significant contribution to the global glass art community.

• Mechanical Engineering
• Materials Science
• Fracture Mechanics
• +4 more

Robert Kosturek is an Adjunct Professor at the Military University of Technology, specializing in materials science and advanced manufacturing processes. His research focuses on welding technologies, composite materials, and mechanical properties of alloys including aluminum, titanium, and bimetallic systems. He has contributed extensively to studies on friction stir welding (FSW), explosive hardening, and additive manufacturing processes like L-PBF. His work emphasizes improving material performance through process optimization, such as post-weld treatments and thermal cycling effects. Dr. Kosturek holds a PhD from 2021 and has published over 50 peer-reviewed articles, with a strong focus on fracture mechanics, fatigue analysis, and microstructural characterization. His research spans applications in aerospace, biomedical, and military engineering, addressing challenges like enhanced ballistic properties and electromagnetic interference shielding in multi-layer materials. He has led projects exploring the mechanical behavior of Sc-modified AA2519 alloys and the interface properties of dissimilar metal joints formed via explosive welding. Key areas of investigation include: Friction Stir Welding of high-strength aluminum alloys (AA2519, AA7075) Explosive hardening of titanium and magnesium alloys Laser powder bed fusion of titanium and aluminum alloys Microstructural analysis of bimetallic joints (Mg/Al, Ti/steel) Low-cycle fatigue behavior of welded and treated materials His work bridges fundamental materials science with practical engineering applications, particularly in defense and aerospace sectors.

• Structural Impact Engineering
• Blast Loading
• Ballistic Impact
• +5 more

Martin Kristoffersen is a Researcher at the Norwegian University of Science and Technology (NTNU), affiliated with the Centre for Advanced Structural Analysis (CASA) and the Structural Impact Laboratory (SIMLab). His work focuses on the critical intersection of physical testing and numerical simulations in structural impact engineering, with particular expertise in concrete structures, offshore pipelines, and ballistic impact phenomena. Dr. Kristoffersen earned his bachelor's degree as a civil engineer from Narvik University College in 2006, followed by specialized education in applied mathematics from the Arctic University of Norway in 2008. He completed his master's thesis titled "Fragmentation of metallic materials under impact" in 2010 and defended his PhD thesis "Impact against X65 offshore pipelines" in 2014 through CRI SIMLab. His research interests span structural impact engineering with specific focus on blast loading against concrete structures, ballistic impact against 3D printed metals, and the behavior of offshore pipelines under various loading conditions. Recent work demonstrates increasing emphasis on sustainable materials like low-carbon concrete for ballistic applications and additive manufacturing technologies, reflecting evolving priorities in structural engineering research. Analysis of his publication record reveals a clear progression from traditional structural testing to increasingly complex multi-threat scenarios, with growing integration of advanced manufacturing techniques. His work consistently bridges experimental validation with computational modeling, maintaining the dual approach that forms the core of his research philosophy. Dr. Kristoffersen maintains extensive collaborative relationships with colleagues at NTNU, particularly with Professor Tore Børvik, with whom he has co-authored numerous publications across multiple research domains including concrete structures, offshore engineering, and advanced materials. He is actively engaged with the Centre for Advanced Structural Analysis (CASA), which aims to establish knowledge on how numerical calculations can be effectively used in process and product development, and the Structural Impact Laboratory (SIMLab), recognized as a world leader in understanding material and structural behavior during impacts.

• 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.

Jane R BlackfordView profile

Senior Lecturer

• Ice and snow mechanics
• Winter sports engineering
• Material processing (casting/forming)
• +4 more

Dr. Jane R Blackford is a Senior Lecturer in the School of Engineering at the University of Edinburgh, specializing in mechanical engineering with a focus on ice mechanics and materials science. She holds a PhD from the University of Sheffield. Her research explores snow mechanics, winter sports engineering, and advanced material processing techniques such as HIPping and heat treatment. Key research interests include avalanche dynamics, frictional behavior in cold environments, and the development of novel composite materials. She has contributed to projects analyzing snow structure impacts on winter tyre performance and pioneered automated sensor systems for snow meltwater monitoring. Notable collaborations include work on cryo-imaging facilities and microstructural plasticity analysis. Her interdisciplinary approach bridges material science, environmental engineering, and aerospace applications. Over 38 publications and 12 funded projects reflect her extensive contributions to understanding cold-climate materials and mechanical systems.

• Net Shape Manufacturing
• Casting Process Simulation
• Powder Forming
• +7 more

Professor David Gethin is a faculty member in the Department of Mechanical Engineering at Swansea University. He holds a position within the Faculty of Science and Engineering and is affiliated with the Welsh Centre for Printing and Coating. His research focuses on net shape manufacturing, powder forming technologies, and printing/coating innovations. He is available for postgraduate supervision and maintains a basic proficiency in Welsh. Research Contributions: Professor Gethin has pioneered numerical/experimental techniques for casting process variants, including squeeze casting simulation and optimization. He contributed to early continuum-based powder compaction modeling and developed combined discrete/finite element methods for tabletting processes. His work bridges mechanical response characterization of powders with industrial validation. Recent efforts emphasize polymer electronics and biopolymer applications in biosensing devices, leveraging thin film hydrodynamics for scientific process development. Lab Affiliations: Core researcher at the Welsh Centre for Printing and Coating, where high-volume printing process fundamentals have been transformed from craft-based to scientifically validated methodologies over the past decade. Professional Links: Maintains an ORCID profile (https://orcid.org/0000-0002-7142-8253) documenting his technical contributions to manufacturing and materials science.