Chris Harrison is an Associate Professor at Carnegie Mellon University's School of Computer Science, directing the Future Interfaces Group . His research focuses on novel human-computer interaction technologies, including haptics, AR/VR/XR, and ubiquitous computing. Research Interests: Ubiquitous Computing, Human-Centered AI, Physical Interfaces (Sensing, Haptics, Fabrication), AR/VR/XR, Social Computing Advisees: Daehwa Kim, Nathan DeVrio, Vimal Mollyn, Vivian Shen Scientific Recognition: Forbes 30 Under 30 (Science), MIT Technology Review 35 Innovators Under 35, Smithsonian Innovator (2013), Google/Microsoft/Qualcomm Fellows Contact: chris.harrison@cs.cmu.edu His recent publications explore advanced haptic systems (Reel Feel, Fluid Reality), body-centric sensing (SkinTrack), and environment-embedded interfaces (Wall++). Current work integrates UWB/IMU fusion for pose estimation and synthetic jet haptics.
Inigo Flores Ituarte is a Research Professor at Tampere University's Faculty of Engineering and Natural Sciences, affiliated with the Automation Technology and Mechanical Engineering department. He leads the Digital Design and Manufacturing (D2M) research lab, focusing on sustainable manufacturing and twin-transition strategies integrating digital and green technologies. His work emphasizes optimization-driven design, additive manufacturing innovations, and AI-driven expert systems to enhance energy efficiency and reduce environmental impacts. Key research pillars include: Pillar 1: Twin-transition in Engineering Design and Manufacturing Processes, addressing sustainable manufacturing and intelligent systems Pillar 2: Development of open D2M systems and Process-Structure-Property-Performance (PSPP) linkages in advanced materials His research explores multi-disciplinary optimization combining model-based simulations and data-driven techniques. Notable contributions include generative AI integration in CAD systems, cognitive manufacturing systems, and cost-effective process monitoring using CNN-based methods. Inigo's work emphasizes environmental sustainability, with a focus on reducing manufacturing's energy consumption (54% of global use) and CO2 emissions. He advocates for interconnected material systems, smart manufacturing processes, and AI-assisted decision-making to achieve cognitive intelligence in industrial operations. His D2M lab's overarching goal is to maximize product/process performance while improving cost-effectiveness and minimizing environmental footprints. Recent projects include railway bogie demonstrators via multi-material deposition and sensor systems leveraging IoT and ChatGPT integration.
Prof. Wim Desmet is a full professor at the Faculty of Engineering Science and head of the Department of Mechanical Engineering at KU Leuven . His research focuses on advanced modeling techniques for mechanical systems, including: noise and vibration control in automotive and industrial systems computational acoustics and interval field uncertainty modeling metamaterials for broadband vibroacoustic performance AI-driven diagnostic systems in renewable energy and manufacturing Current research projects address challenges in electric vehicle drivetrains, wind turbine monitoring, and multi-physical digital twin development. He actively contributes to academic governance as: Managing Director of KU Leuven Head of Subdivision HIST Chair of multiple executive committees Member of 15+ academic and administrative councils
Prof. Dr.-Ing. Jörg Müssig serves as a Professor at Bremen University of Applied Sciences within Faculty 5 (Department 2), focusing on sustainable composite materials development. His research bridges engineering and environmental science through innovation in natural fiber applications for industrial use. His primary research domains encompass natural fiber composites, biobased materials, and sustainable material systems, with specialized expertise in flax, hemp, and nettle fiber reinforcement. He investigates mechanical properties, interfacial adhesion mechanisms, flame retardancy solutions, and processing techniques like injection molding and filament winding, emphasizing sustainability metrics and biomimetic design principles. Analysis of his 2024-2025 publications reveals dominant themes in natural fiber composite optimization, particularly regenerated cellulose systems and coupling agent-free interfaces. Emerging trends include consumer perception studies of biobased materials and integration of ecological parameters into industrial design processes, reflecting expanding interdisciplinary approaches. Prof. Müssig leads extensive grant-funded projects including edible mushroom mycelium composites (2024-2026), sulfur-based flame retardants (2024-2026), natural fiber sector market analysis across Europe (2024-2025), and marine durability studies (2024-2025), demonstrating sustained research leadership with significant industry and cross-institutional collaborations. His work operates within a robust research ecosystem at Bremen University of Applied Sciences, where his project portfolio indicates leadership of a specialized team focused on sustainable material innovation, though specific lab infrastructure details remain unmentioned in source materials.
Mohammad Amjadi Kashani is an Assistant Professor of Mechanical Engineering at Arkansas Tech University's College of STEM Engineering & Computer Sciences. His research focuses on fatigue and fracture mechanics of polymers and composite materials, with expertise in multiaxial fatigue, damage mechanics, and machine learning applications in fatigue analysis. Education: MS (Sharif University of Technology), PhD (University of Memphis) His work addresses fatigue life prediction of injection-molded composites, thermoplastic fatigue behavior under various stresses, and mechanical modeling of HDPE polymers. Recent studies incorporate notch effects, creep-fatigue interactions, and additive manufacturing techniques. Amjadi teaches courses in mechanical design, machine dynamics, finite element analysis, and advanced fatigue topics. He emphasizes hands-on learning and adaptive teaching strategies to accommodate diverse student needs.
Prof. Maurizio Musso is a Professor of Experimental Physics at the University of Salzburg , leading the Musso Group within the Faculty of Natural and Life Sciences . His research focuses on condensed matter physics, materials science, and Raman spectroscopy applications. The group specializes in the characterization of novel materials, including biofoams, nanomaterials, and sustainable biomaterials, leveraging advanced spectroscopic techniques such as Raman scattering and FTIR. Prof. Musso is also actively involved in teaching, contributing to courses in the Joint-Degree Bachelor’s Program in Engineering (PLUS-TUM), the Master’s program in Chemistry and Physics of Materials, and the Bachelor’s degree in Physics. Research activities emphasize multi-technique analysis of materials like tannin-furanic foams and nanostructured silicon, with applications in energy storage, environmental sensing, and industrial manufacturing. The Musso Group collaborates on projects related to sustainable materials development, plasmonic device fabrication, and electrochemical systems. Their work bridges fundamental research with practical applications, such as wastewater filtration and renewable energy solutions. Prof. Musso’s team includes researchers like Dr. Sonja Gamsjäger (visiting scientist), Gebhard Sabathi (MSc/Ing.), and Dr. Paolo Sereni (Senior Lecturer). They utilize state-of-the-art facilities for material synthesis, characterization, and nanofabrication. Current studies explore machine learning-driven data validation in Raman spectroscopy and the structural dynamics of polymers under varying conditions. Notable projects include the IN-CIMa initiative for smart material characterization and the PLUS Research programs on eco-sustainable materials. Prof. Musso’s contributions to Raman spectroscopy and material science have positioned him as a leader in experimental physics and sustainable technology innovation.
María Belén Montero Rodríguez is a Professor in the Department of Physics and Earth Sciences at the Faculty of Sciences, University of A Coruña (UDC), Spain. Her work integrates applied physics with advanced polymer materials, focusing on sustainability, recycling, and functional applications in food packaging and engineering. She teaches across diverse programs including Nanoscience, Textile Technology, Industrial Design, and Environmental Management. Her research interests center on sustainable polymer systems , including biopolymers, mechanical recycling, waste valorization, rheology, nanocomposites, hybrid polymers (especially epoxy and POSS), fracture mechanics, and active packaging for food preservation. She is a key member of the Grupo de Polímeros , contributing to both fundamental and applied research. The recent publications reflect a strong trend in green materials science , with emphasis on biodegradable composites, microencapsulation of bioactive compounds, recycling of polymers, and development of hybrid nanomaterials. Her work bridges polymer chemistry, materials engineering, and environmental sustainability, often targeting industrial applications in packaging, electronics, and construction. Scientific Awards: No awards explicitly mentioned in the provided text. She actively supervises final-year and master's students, with thesis topics focusing on biopolymers, active packaging, and nanocomposite development. She participates in multiple funded research projects from national (AEI), regional (Xunta de Galicia), and European (European Commission) agencies, indicating sustained grant support. Her collaborations span institutions in Spain and internationally, often with researchers such as Luis Barral, Maite Rico, and Rebeca Bouza. She is involved in various research groups and conferences, contributing to the broader polymer science community. Laboratories and Research Teams: She is a core member of the Grupo de Polímeros at UDC, Ferrol campus, where experimental work on polymer synthesis, processing, and characterization is conducted. The group focuses on applied polymer research with industrial and environmental relevance.
Professor Stuart Reid FRSE serves as Head of Department and Royal Society Industry Fellow in Biomedical Engineering at the University of Strathclyde. He leads a multidisciplinary research team working at the intersection of medical science and advanced physics, with significant contributions to both regenerative medicine and gravitational wave detection technologies. His research encompasses two major thrusts: Nanokicking Technology: As co-inventor of 'nanokicking,' he developed a method using precisely controlled nanoscale vibrations to stimulate stem cells to differentiate into bone tissue. This groundbreaking work, published in ACS Nano (2013) and Nature Biomedical Engineering (2017), is now being translated to clinical applications through nanokick.com, with support from Find A Better Way charity for land mine injury treatment. Advanced Optical Coatings: His laboratory has pioneered the world's first high-energy ECR ion beam deposition facility, producing the lowest absorption sputtered amorphous silicon coatings (PRL 2018) for next-generation gravitational wave detectors. This work enables detectors to approach quantum noise limitations. Professor Reid's publications reveal a consistent trajectory from fundamental science to clinical and industrial applications, demonstrating exceptional translational impact across disciplines. His recent work increasingly focuses on commercialization and clinical translation of both nanokicking technology and advanced optical coatings. His scientific recognition includes: Appointment to the RSE Young Academy of Scotland (2014) Membership on the Royal Society's Research Grants Board (2020) 12 total prizes as documented in his academic profile Currently overseeing 49 research projects (16 active, 33 completed), Professor Reid directs significant research funding including the BIOME project (2025-2026) and EPSRC DTP research on extracellular vesicles. He established the Extreme Performance Optical Coatings testbed (www.epoc.scot) within the National Manufacturing Institute Scotland, creating a national resource for advanced optical coating development and testing.
Dr. rer. nat. Abdullah Riaz is a Researcher and Working Group Leader in sintering technology at the Chair of Microfluidics, University of Rostock. He leads research on Field-Active Sintering/Spark Plasma Sintering and is involved in the development of rapid tooling for metal injection molding using additive manufacturing. He is also an associated scientist in the DFG Collaborative Research Center ELAINE, focusing on electrically active implants. Research Interests: Sintering Technology (FAST/SPS) Nanostructured Ceramics and Piezoelectric Materials Additive Manufacturing and Rapid Tooling Electrically Active and Orthopedic Implants Microfluidics and Materials for Biomedical Applications His work bridges advanced materials processing with biomedical engineering, particularly in developing implantable devices with improved integration into biological systems. The piezoelectric properties of nanostructured calcium titanate, which resemble natural bone, are a key focus. His current projects involve integrating additive manufacturing with sintering technologies for functional tooling and implant development. Dr. Riaz is actively contributing to collaborative research within SFB ELAINE, a major DFG-funded initiative. He is responsible for developing novel sintering processes and tools, indicating leadership in applied research and engineering development. Labs and Teams: Working Group: Field-Active Sintering / Spark Plasma Sintering Chair of Microfluidics, University of Rostock Associated Scientist, SFB ELAINE – Electrically Active Implants (DFG Collaborative Research Centre)
Leonardo Orazi is a Full Professor at the University of Modena and Reggio Emilia's Department of Engineering Sciences and Methods. He specializes in advanced manufacturing technologies, particularly laser processing, polymer engineering, and biomedical surface functionalization. His teaching roles include courses on Smart Manufacturing, Injection Molding, and Additive Manufacturing in Digital Automation and Mechatronic Engineering programs. Research focuses on laser-induced periodic surface structures (LIPSS), material characterization, and micro/nanostructuring for biomedical and industrial applications. Develops innovative manufacturing processes for antibacterial surfaces, microfluidic devices, and enhanced material properties. Research Interests: Laser texturing, polymer processing, surface engineering, additive manufacturing, and simulation-driven design. Labs/Teams: Active in laser-matter interaction research and collaborative projects on biomaterial functionalization. His work bridges computational modeling (e.g., Moldflow simulations) with experimental validation. Publications: Over 40 peer-reviewed articles since 2010, emphasizing laser-based manufacturing advancements, polymer molding optimization, and biomedical material surface treatments. Recent work includes antibiofouling polymer functionalization via ultrafast lasers and fiber orientation modeling in composites.
Nikhilesh Bappoo is an Adjunct Research Fellow at the UWA Medical School, affiliated with the UWA Centre for Medical Research and the Harry Perkins Institute of Medical Research. He holds a Doctor of Philosophy (PhD) student status alongside a Master of Professional Engineering (2018) and a Bachelor of Philosophy (Hons) (2017), both from the University of Western Australia. His research focuses on placental vascular structure and hemodynamics, fetal growth restriction, and computational modeling of vascular diseases such as abdominal aortic aneurysms. Key areas include understanding how hemodynamic factors like shear stress influence placental function and aneurysm progression. He employs multidisciplinary approaches blending biomechanics, medical imaging, and computational simulations. Notable awards include the Materialise Mimics Innovation Award (2017), ASME Best Student Paper (2018), and a Convocation Postgraduate Research Travel Award (2019). His work contributes to UN Sustainable Development Goals related to good health and well-being. Research outputs span vascular network modeling, aneurysm biomechanics, and placental oxygen diffusion. Collaborations involve institutions globally, with recent studies exploring rare vascular conditions like pancreaticoduodenal artery aneurysms.
Alexander Rind is a full-time Researcher at the University of Applied Sciences St. Poelten , affiliated with the School of Media and Digital Technologies and the Media Computing Research Group . He holds an MSc in Business Informatics from Vienna University of Technology, University of Vienna, and Lund University. Education : 1998-2004 MSc in Business Informatics His research interests span Visual Analytics , Information Visualization , and Human-Computer Interaction , with specialization in time-oriented data analysis , electronic health records visualization , and multimodal analytics . Recent projects focus on integrating sonification with visualization for enhanced data exploration. Key publication trends reveal expertise in temporal data modeling , multimodal analytics , and domain-knowledge integration for healthcare and social work applications. His work includes TimeBench (open-source time-oriented data library) and tools like easyBiograph / easyNWK for social diagnostics. He actively contributes to scientific communities as program committee member for IEEE VIS, EuroVis, and journals like TVCG, while developing visual analytics systems for clinical gait analysis, media transparency, and industrial manufacturing.
Dr. Kunal H. Kate is an Associate Professor in the Department of Mechanical Engineering at the University of Louisville. His research focuses on advancing manufacturing technologies such as 3D printing and powder injection molding (PIM), with a particular emphasis on high-performance materials like ceramics, metals, and polymer composites. He collaborates with NASA's FabLab on in-space manufacturing projects and works with the U.S. Department of Commerce's MBDA to support minority businesses through 3D printing innovation. Dr. Kate holds a B.E. in Chemical Engineering (2009, VIT), M.S. (2013), and Ph.D. (2015) in Materials Science from Oregon State University. Research Interests His work spans additive manufacturing processes (especially metal fused filament fabrication), material characterization, and sustainable composites. Key areas include optimizing material feedstocks for MF3, studying sintering dynamics of titanium alloys, and developing bioplastics from agricultural byproducts like soy hulls. His contributions bridge fundamental materials science with industrial applications in aerospace, medical, and transportation sectors. Grants & Collaborations Recipient of funding from NASA (FabLab initiative), US Department of Commerce, and United Soybean Board. His lab actively explores process-structure-property relationships in AM materials and contributes to advancing energy-efficient manufacturing techniques.
Thomas J. Santner is a Professor in the Department of Statistics at Ohio State University. His research focuses on experimental design, particularly in integrating computer simulations with physical experiments. He co-authored influential books including *The Design and Analysis of Computer Experiments* (Springer, 2019) and *The Design and Analysis of Experiments for Statistical Selection, Screening, and Multiple Comparisons* (Wiley, 1995). His work bridges statistics and engineering, addressing challenges in prosthesis design, biomedical systems, and industrial processes. Notably, he collaborates with the Hospital for Special Surgery on bone-implant systems and biomaterials research. Education: Ph.D., Purdue University, 1973. Research interests include: Computer experiments and hybrid simulation-physical experimentation Statistical selection and screening methodologies Applications in biomedical engineering and manufacturing optimization Uncertainty quantification in finite element models Recent work emphasizes optimizing complex systems through calibrated simulators, with applications in injection molding processes and joint replacement design. His articles demonstrate methodological contributions to design efficiency, sensitivity analysis, and multiobjective optimization. Prior roles include former Director of the Department of Statistics' Consulting Service and former Department Chair at Ohio State University.
Andrés Suárez García is an Assistant Professor at the University of Vigo's Department of Systems and Automation Engineering. His teaching includes courses on Systems and Control Engineering, Industrial Computing, Robotics, and Automation Fundamentals. He has consistently taught across multiple academic years from 2014/2015 to 2024/2025, covering disciplines like structural mechanics, fluid dynamics, and manufacturing quality control. His research focuses on interdisciplinary engineering applications, emphasizing automation, robotics, additive manufacturing, and energy systems. Notable projects include optimizing 3D printing parameters, analyzing lithium-ion battery health using machine learning, and developing IoT-based educational platforms. He also explores naval and military engineering challenges, such as energy storage for submarines and structural design for space exploration vehicles. Over 20+ supervised final-year projects highlight his mentorship in cutting-edge technologies like piezoelectric energy harvesting, supercapacitor integration in military vessels, and AI-driven anomaly detection in maritime routes. His work bridges theoretical engineering principles with practical applications in defense, environmental monitoring, and sustainable infrastructure.
