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Ketki LichadeView profile

Assistant Professor

• Advanced Manufacturing
• Process-Structure-Property Relationship
• Additive Manufacturing
• +5 more

Ketki Lichade serves as an Assistant Professor in the Department of Mechanical and Aerospace Engineering at the University at Buffalo's School of Engineering and Applied Sciences, where she drives innovation in advanced manufacturing methodologies with applications spanning biomedical engineering and sustainable materials development. Educational background: PhD in Mechanical and Industrial Engineering, University of Illinois at Chicago (2023) BE in Mechanical Engineering, Savitribai Phule Pune University (2016) Her research program centers on Advanced Manufacturing and Additive Manufacturing with specialized focus on process-structure-property relationships and bio-inspired design . She pioneers acoustic-assisted photopolymerization, direct ink writing, and multiscale manufacturing techniques to engineer functional materials with programmable adhesion and hierarchical structures. This work enables breakthroughs in conductive hydrogels for flexible electronics, bone-mimetic scaffolds for tissue engineering, and atmospheric water harvesting systems, fundamentally advancing the integration of materials science with precision manufacturing. Analysis of her 15 most recent publications (2021-2025) reveals dominant innovation in acoustic assembly photopolymerization for bioinspired multifunctional materials. Key trends include rapid single-layer fabrication processes, multimaterial 3D printing with spatially controlled properties, and hierarchical porous structures that replicate natural systems. These contributions bridge mechanical engineering, fluid dynamics, and biomimetics to solve critical challenges in manufacturing speed, material functionality, and sustainability. As principal investigator of the Advanced Manufacturing Lab, Dr. Lichade secures external funding for cutting-edge research in sustainable production methods and multifunctional material systems. She actively mentors graduate researchers while collaborating with industry partners to translate academic discoveries into industrial manufacturing solutions, particularly in medical device fabrication and environmental technology sectors. The Advanced Manufacturing Lab team specializes in acoustic streaming, two-photon polymerization, and electrohydrodynamic printing techniques. Current initiatives focus on developing programmable adhesion surfaces for biomedical implants, scalable water vapor harvesting systems using biomimetic composites, and AI-driven process optimization for multimaterial additive manufacturing, positioning the lab at the forefront of next-generation sustainable manufacturing research.

Albert SchenningView profile

Professor

• Stimuli-responsive materials
• Functional materials and devices
• Sustainable energy
• +7 more

Albert Schenning is a Full Professor at Eindhoven University of Technology (TU/e), leading the Stimuli-responsive Functional Materials and Devices (SFD) research group. His work focuses on developing polymer-based smart materials and devices to address challenges in sustainable energy, healthcare, and environmental management. He holds a PhD from Radboud University Nijmegen and has held academic positions at TU/e since 2003, progressing from Assistant to Full Professor. His research spans molecular design, material synthesis, and device prototyping, emphasizing stimuli-responsive systems like liquid crystal elastomers and supramolecular polymers. Education: MSc Chemistry, Radboud University (1992) PhD in Chemistry (1996), Radboud University Postdoctoral fellowships at TU/e (1996) and ETH Zurich (1997) Research Interests: Schenning’s lab explores stimuli-responsive materials , including light- and temperature-sensitive polymers, self-healing systems, and recyclable materials. Key themes include: - Design of hierarchically structured materials - Integration of functional polymers into devices (e.g., actuators, smart windows) - Nanostructured membranes for gas separation and biomedical applications. Key Contributions: His work bridges molecular synthesis and applied systems, with notable advances in: - Photothermal actuators for robotics and biomedical tools - Mechanochromic sensors for time-temperature tracking - Cholesteric liquid crystal smart windows for energy efficiency. Awards: Alfred Saupe Prize (2024) for contributions to polymer science Grants & Teams: Active in interdisciplinary collaborations within TU/e’s Institute for Complex Molecular Systems (ICMS) and EIRES Research . Supervises graduate students and postdocs in material design and device engineering. Labs & Facilities: Hosts advanced labs for polymer synthesis, characterization (e.g., SEM, DSC), and prototyping of functional devices. Innovates in 4D printing and direct ink writing of responsive materials.

Monize Caiado DecarliView profile

Assistant Professor

• Bioprinting
• Tissue Engineering
• Hydrogel Development
• +5 more

Dr. Monize Caiado Decarli serves as Assistant Professor in Biomedical Engineering at the University of Groningen's Faculty of Medical Sciences, leading the Bioprinting and Biofabrication Group within the Department of Biomaterials and Biomedical Technology (BBT/UMCG). Her research bridges clinical applications at UMCG with cutting-edge tissue engineering through four integrated pillars: biomaterials development, anatomical design, advanced manufacturing, and biological response analysis. Her educational trajectory includes a 2021 PhD through a double-degree program between Maastricht University and the University of Campinas, followed by postdoctoral work at MERLN Institute and completion of the MIT Catalyst Program in 2024 for biomedical innovation leadership. Research interests span bioprinting , humanized hydrogels , and 3D disease modeling , with strong emphasis on clinical translation using blood-derived materials and extracellular vesicles. Recent publications demonstrate a cohesive focus on vascular and ligament regeneration using xanthan gum-iron systems, blood-based bioinks, and multimaterial bioprinting. Her work consistently addresses Mechanical reinforcement of hydrogels Embedded bioprinting techniques Clinically relevant tissue mimetics with applications in cardiovascular and musculoskeletal repair. Awarded the 2023 Best Oral Presentation Prize by the International Society for Regenerative Medicine, her scientific contributions are recognized through: 21 research outputs including patents and high-impact journal articles Active supervision of three PhD projects targeting osteochondral defects, cardiovascular engineering, and vascular grafts Leadership in the Netherlands Society for Biomaterials and Tissue Engineering Dr. Decarli directs bioprinting activities within UMCG's ML-II facility, utilizing cutting-edge technologies to encapsulate human cells and organoids. Her group collaborates internationally on projects advancing tissue regeneration, with strong alignment to UN Sustainable Development Goals through biomedical innovation.

• Bioprinting
• Tissue Engineering
• Hydrogel Engineering
• +5 more

Vasileios Trikalitis is a Researcher at the University of Twente's Advanced Manufacturing, Sustainable Products & Energy Systems department, specializing in cutting-edge bioprinting methodologies for tissue engineering and vascularization. His work bridges advanced manufacturing with regenerative medicine through innovative hydrogel and bioink development. Education: PhD in Tissue Bioprinting (University of Twente, 2024) MSc (institution unspecified) His research focuses on solving fundamental challenges in vascular network formation within engineered tissues, with particular expertise in embedded 3D printing techniques using granular baths and shear-thinning materials. He pioneers approaches like aptamer-based programmable bioinks and Magnetic Nozzle-Free Embedded 3D Printing to achieve precise microvascular morphogenesis. His work integrates principles from hydrogel engineering, growth factor delivery, and microfluidics to create biomimetic tissue constructs. Analysis of his 2023-2025 publications reveals a strategic progression from foundational embedded printing techniques toward increasingly sophisticated vascularization strategies. Key trends include the development of multi-material printing systems, dynamic bioink programming for 4D tissue evolution, and integration of biological cues like vascular endothelial growth factors. His research consistently targets clinical translation barriers in regenerative medicine through engineering-first solutions. Scientific Awards: No awards documented in provided materials While no formal advising relationships or grant awards are specified, his extensive collaborative network—evident in co-authorships with Rouwkema, Misra, and Schwach—demonstrates active participation in large-scale research initiatives. His conference presentations track methodological evolution from basic bioprinting (2018-2019) toward advanced vascularization techniques (2023-2025). Dr. Trikalitis operates within University of Twente's interdisciplinary biomanufacturing ecosystem, contributing to teams focused on sustainable advanced manufacturing applications in medical technology. His work particularly advances the intersection of granular mechanics, hydrogel science, and vascular tissue engineering through experimental innovation.

• Tissue Engineering
• Vascularization
• Bioprinting
• +7 more

Jeroen Rouwkema is an Associate Professor in Engineering Organ Support Technologies at the University of Twente, Faculty of Engineering Technology, Department of Biomedical Engineering. He is a leading researcher in tissue engineering, with a focus on vascularization and bioprinting. His work integrates advanced fabrication techniques with biological principles to engineer functional tissues with integrated vascular networks. His research interests center on tissue engineering , vascularization , bioprinting , and regenerative medicine . He investigates methods to create multiscale vascular networks in engineered tissues using programmable bioinks, aptamer-based growth factor delivery, and embedded 3D printing technologies. His lab explores how mechanical and biochemical cues influence cell behavior and tissue self-organization, particularly in cardiac and synovial models. Analysis of his recent publications reveals a strong trend toward 4D bioprinting , spatiotemporal control of growth factors , organ-on-a-chip systems , and magnetic-assisted fabrication . His work bridges engineering innovation with biological functionality, aiming to solve the critical challenge of vascularization in engineered organs. TERMIS EU Robert Brown Early Career Principal Investigator Award (2017) Rouwkema has supervised multiple PhD and research students, including D. Rana, V. R. Rangel, and P. Padmanaban, and has been involved in numerous research projects and patents. His work is supported by active collaborations across Europe and has resulted in over 140 research outputs. He is a member of the Netherlands Society for Biomaterials and Tissue Engineering, contributing to the broader academic community through invited talks and conference organization. His research is conducted within a multidisciplinary team focused on biofabrication and organ support technologies, utilizing state-of-the-art facilities for 3D printing, microfluidics, and cell culture. The lab emphasizes translational outcomes, aiming to develop clinically relevant solutions for tissue regeneration and organ support.

Russell MailenView profile

Assistant Professor

• Polymers and Composites
• Additive Manufacturing
• Finite Element Analysis
• +7 more

Russell Mailen is an Assistant Professor in the Department of Aerospace Engineering at Auburn University's Samuel Ginn College of Engineering. His research integrates materials science, mechanical behavior, and computational modeling to advance polymer-based smart structures. His educational background includes a Ph.D. and MMSE in Mechanical and Materials Science Engineering from North Carolina State University, an M.S. in Mechanical Engineering from Baylor University, and a B.S. in Aerospace Engineering from the University of Kansas. Ph.D., Mechanical Engineering, North Carolina State University MMSE, Materials Science and Engineering, North Carolina State University M.S., Mechanical Engineering, Baylor University B.S., Aerospace Engineering, University of Kansas Dr. Mailen's research focuses on polymers and composites , particularly in additive manufacturing , finite element analysis , smart materials , and self-folding origami structures . His lab explores the time-dependent behavior of polymers and develops computational models for shape memory effects. The research has significant applications in aerospace systems and responsive materials. The recent publications highlight a strong trend in the design and modeling of self-folding polymer sheets, with emphasis on thermo-mechanical actuation, light responsiveness, and microwave-triggered folding using conductive inks. These works sit at the intersection of materials science, soft robotics, and computational mechanics, demonstrating a multidisciplinary approach to programmable matter. His scientific recognition includes: NASA EPSCoR Grant for microgravity self-folding research NASA NIAC Award ($125,000) for self-assembling space antennas NSF Innovations in Graduate Education Award Outstanding Graduate Mentor Award at Auburn University Dr. Mailen serves as principal investigator on multiple federally funded grants, including projects supported by NASA and NSF. He advises graduate students and leads the Polymer Mechanics Research Laboratory, which conducts both experimental and computational research. Collaborations span mechanical engineering, materials science, and chemical engineering departments, reflecting the interdisciplinary nature of his work. The Polymer Mechanics Research Lab is equipped for advanced polymer characterization using DSC, DMA, TGA, rheology, and VARTM composite manufacturing. The lab’s work supports future developments in deployable aerospace structures, smart sensors, and sustainable polymer technologies.

Beat SignerView profile

Professor

• Cross-Media Information Spaces and Architectures (CISA)
• Interactive Paper
• Dynamic Data Physicalisation
• +7 more

Beat Signer is Professor of Computer Science at Vrije Universiteit Brussel (VUB) and Director of the Web & Information System Engineering (WISE) laboratory. His research focuses on cross-media information spaces and architectures (CISA) spanning interactive paper, dynamic data physicalisation, and tangible holograms. His educational background includes a Computer Science degree from ETH Zurich, where he completed his PhD thesis on fundamental concepts for interactive paper and cross-media information spaces in 2005. Key research areas include: Cross-media document formats and resource-selector-link (RSL) hypermedia metamodel Context-sensitive adaptation and cross-media transclusion Multimodal interfaces (Mudra, iGesture) and tangible computing Internet of Things interoperability and semantic middleware Recent publications (2023-2025) reveal strong trends in dynamic data physicalisation hardware, FAIR positioning systems (OpenHPS), end-user IoT development (eSPACE), and next-generation human-information interaction paradigms. His work increasingly integrates Solid protocols for decentralized data and explores thermal dimensions in tangible holograms. As Principal Investigator, he leads multiple EU-funded projects including OpenHPS, TangHo, and eSPACE. His team has developed influential frameworks like MindXpres for cross-media presentations and CMT for context modeling. He supervises 13 doctoral researchers including Dr. Maxim Van de Wynckel and Dr. Audrey Sanctorum, focusing on cross-media applications in education, IoT, and data visualization. His WISE laboratory develops innovative solutions bridging digital and physical information spaces through projects like ArtVis for collaborative data exploration and TangHo for physically augmented virtual objects.

Jonathan EnglandView profile

Professor

• Ion Implantation Technology
• Semiconductor Materials
• Quantum Computing
• +5 more

Professor Jonathan England is a faculty member at the University of Surrey's School of Computer Science and Electronic Engineering, holding the title of Professor of Ion Implantation Technology since 2017. With over 25 years in the semiconductor industry, he specializes in ion implantation technology, advanced materials science, and quantum computing. His research focuses on ion beam processing, semiconductor device fabrication, and isotopic layer enrichment for quantum computing. Education: Earned degrees in physics and nuclear physics from the University of Manchester. Early career involved ion beam applications in isotope mass spectrometry at Vacuum Generators and Columbia University. Research interests include modeling ion beam interactions with nanostructures, advanced metrology techniques, and applying these to diverse fields such as quantum materials and optoelectronics. Notable projects include developing isotopically pure silicon layers for quantum computers and investigating resistive random-access memory (ReRAM) devices. Publications (2024 highlights): Explored hydrogen's role in ReRAM operation, atomic dispersion in nanoparticle systems, and crystallization kinetics for quantum-grade silicon. Active in 3D materials characterization using ensemble RBS and TOF-ERD systems. Awards: No specific prizes mentioned, though his contributions to ion implantation and quantum materials research are recognized in the field. Grants and collaborations: Industrial mentor for EU SPIRIT Programme and projects at Surrey, Southampton, and Cambridge Universities. Active in semiconductor industry partnerships. Labs: Leads research at the UK National Ion Beam Centre, focusing on advanced ion beam applications and materials analysis.

Inke NyborgView profile

Researcher

• Regulation and Supervision
• Financial Stability and Systemic Risk
• History of Banking and Money
• +3 more

Inke Nyborg is an Academic Associate at the University of Zurich's Department of Finance, affiliated with the Faculty of Economics. She holds a PhD in Banking & Finance (University of Zurich, 2019), MA in London Studies (Birkbeck College, 2005), and BSc in Economics (Queen Mary University of London, 1994). Her roles include Managing Director of the Center of Competence for Sustainable Finance (since 2021), BHRICO Programme Director at the Centre for Human Rights Studies (2019), and Administrator at the URPP Financial Regulation (since 2016). Her research focuses on financial regulation, systemic risk, and the historical evolution of banking systems. Notable work includes studies on 19th-century Swiss monetary systems, liquidity creation mechanisms, and crisis management strategies for large financial institutions. Nyborg has contributed to policy discussions through her publications and presentations at international conferences such as the 38th Economics Conference in Vienna (2010). Her professional experience spans roles at the Bank of England (1994-2002), the Norwegian School of Economics (2007-2009), and the Swiss Banking Institute (since 2009). She currently leads initiatives in sustainable finance and financial regulation at the University of Zurich.

Stefan KarpitschkaView profile

Research Professor

• Complex Fluids
• Interfacial Phenomena
• Wetting Dynamics
• +4 more

Dr. Stefan Karpitschka serves as a Senior Researcher and Research Group Leader at the Max Planck Institute for Dynamics and Self-Organization (MPI-DS) in Göttingen, Germany, within the Dynamics of Complex Fluids department. His group investigates fluid behavior at solid-gas interfaces, with applications spanning everyday phenomena (ink on paper), biology (cyanobacteria motility), and semiconductor manufacturing. Affiliated with the Max Planck-University of Twente Center for Complex Fluid Dynamics, he also participates in the Priority Program SPP 2171 on dynamic wetting of adaptive surfaces. His research focuses on interfacial phenomena in complex fluids , particularly wetting dynamics, Marangoni effects, and fluid-structure interactions. Key discoveries include the 'boomerang effect' where droplets spread and self-contract without residue (enabling chip cleaning), phase separation's role in wetting dynamics (PNAS 2022), and the 'memory of folds' in soft materials where unfolding leaves scar-based nucleation points. His work bridges fundamental physics with practical applications in microfluidics, printing technology, and biological systems. Analysis of his 15 most recent publications reveals dominant themes in soft matter deformation (60%), active matter systems (25%), and biological fluid dynamics (15%). Key methodological approaches include high-precision force measurements, theoretical modeling of viscoelastic substrates, and experimental quantification of microbial locomotion forces. Scientific recognition includes: Robert-Wichard-Pohl-Medal for 'Physics of Sports' teaching (2022) Alexander von Humboldt Foundation research fellowship (2022) Dr. Karpitschka advises doctoral and master's students, with recent theses on wetting dynamics (Jeon H., 2022) and biofilm analysis (Schwirz T., 2018). His group collaborates extensively through the Max Planck-University of Twente Center and participates in the SPP 2171 coordination board. Current projects explore liquid-liquid phase separation effects, cyanobacteria gliding mechanics, and programmable folding in soft materials. The group maintains active laboratory facilities for microfluidics experimentation, force measurement, and biological interface studies, with recent public engagement including a Science Night exhibition on cyanobacteria at the MPI for Solar System Research.

Daniel NyströmView profile

Associate Professor

• Multispectral Imaging
• Spectral Reproduction
• Paper Optics
• +3 more

Daniel Nyström is an Associate Professor at Linköping University, affiliated with the Department of Science and Technology (ITN) and the Media and Information Technology (MIT) research group. He holds a Ph.D. in Media Technology from Linköping University (2009). His teaching focuses on Digital Media, Image Reproduction, Image Quality, and Graphic Technology within the Media Technology and Engineering master’s programme. Research interests include multispectral imaging, spectral reproduction, paper optics (modeling ink-light-paper interactions), color prediction models, and appearance reproduction. His work bridges theoretical advancements and applied solutions in color science and imaging technologies. Recent publications (2021-2024) emphasize material appearance modeling, spectral reproduction techniques, and innovative printing methods using RGBW reflective inks. Key contributions include empirical BRDF modeling for goniochromatic materials and angular-dependent reflectance analysis of pigments. No scientific awards explicitly mentioned. Advising no listed students. Active in research groups exploring visualization, interaction design, and media technology applications.

Wes BrownView profile

Lecturer

• Masculinity
• Class
• Narrativity and Identity
• +2 more

Wes Brown is a Lecturer in Creative Writing at Birkbeck, University of London, serving as Programme Director for the MAs in Creative Writing and Creative Writing & Contemporary Studies. His research focuses on masculinity, class, narrativity, and autofiction. He authored the autofictional novel Breaking Kayfabe (2023) and is working on forthcoming works like When Lights Are Bright (true crime) and St Anger: A Working-Class History of Violence . His articles explore narrative ethics, literary realism, and authorial identity. Awards include the CHASE Doctoral Scholarship (2019). He previously founded Dead Ink Books and has published widely in literary journals. Research interests emphasize narrative non-fiction and the intersection of personal identity with creative expression. Articles analyze themes like the moral implications of writing monsters, temporal storytelling in life writing, and the tension between artistic realism and abstraction. Teaching includes modules on creative industries, publishing, and contemporary writing genres.

Maria da Conceição Lopes CasanovaView profile

Assistant Professor

• Conservation and Restoration of Books and Paper
• Medieval Manuscript Studies
• Art History
• +3 more

Maria da Conceição Lopes Casanova is an Assistant Professor (permanent appointment) in the Department of Conservation and Restoration of the Faculty of Science and Technology, NOVA University Lisbon (FCT NOVA). She also serves as vice-president of the Doctoral Programme in Conservation and Restoration of Cultural Heritage and is a member of the departmental executive committee. Education PhD in Conservation and Restoration / Theory, History and Techniques – Faculty of Science and Technology, NOVA University Lisbon Postgraduate degree in Conservation Studies – Camberwell College of Arts, University of London Degree in History / Art and Archaeology – Faculty of Arts, University of Porto Research Interests Her work focuses on the conservation and restoration of books, paper and parchment , with particular emphasis on medieval manuscript studies, bookbinding technology , and heritage science . She bridges art-historical inquiry with analytical diagnostics, addressing degradation mechanisms of iron-gall inks, purple organic pigments, and leather bindings, while developing innovative treatment protocols using nanocellulose and other green materials. Across her publications she explores the intersection of material culture , monastic scriptoria and conservation ethics , producing holistic narratives that inform both scholarly understanding and practical preservation strategies for Portuguese and European written heritage. Scientific Awards & Recognition Recognised in institutional profiles for “awards and numerous publications”, although specific named prizes are not detailed in the provided text. Research Projects & Supervision Principal investigator or co-principal investigator on nationally funded projects such as Cistor.Hor – Cistercian Horizons , devoted to the study of the Alcobaça medieval scriptorium. Extensive experience coordinating research teams and supervising master’s and doctoral students in conservation and restoration of books and works of art on paper. Laboratory & Professional Service She maintains research activities in Lab 043 (ground floor, Departmental Building) and has provided conservation consultancy for major Portuguese institutions including the Calouste Gulbenkian Foundation, Directorate-General for National Monuments, National Library of Lisbon, National Archives/Torre do Tombo, and the Institute for Tropical Scientific Research.

Ignacio Martin-FabianiView profile

Senior Lecturer

• Colloid Science
• Interface Science
• Soft Matter Science
• +7 more

Dr Ignacio Martin-Fabiani (also known as Dr Nacho Martin-Fabiani) is a Senior Lecturer in Materials Science and UKRI Future Leaders Fellow at Loughborough University, UK. He leads an experimental and modelling research group within the Department of Materials, focusing on advancing the understanding of liquid formulations and their applications across multiple industries including paints, coatings, adhesives, inks, and cosmetics. Dr Martin-Fabiani's educational background includes: 2022: Medici Enterprise Training Programme, University of Birmingham 2013: PhD, Spanish National Research Council (CSIC) and Complutense University of Madrid 2010: MSc in Plastics and Rubber, Menéndez Pelayo International University 2008: BSc in Materials Physics, Complutense University of Madrid His research interests span colloid science, interface science, soft matter science and engineering, with particular focus on liquid formulations that film-form. His group employs advanced spectroscopy, microscopy, and scattering techniques to progress understanding in this field. More recently, his research has expanded into sustainable formulations including lifecycle analysis of biobased coatings, artificial intelligence for formulation optimization using evidence- and science-based approaches, and methods for microplastics detection and characterisation. His work has significant relevance to paints, coatings, inks, adhesives, cosmetics, and agricultural sectors. Dr Martin-Fabiani has received numerous prestigious awards including the 2024 Science Award at the Coatings Science International Conference, the 2020 UKRI Future Leaders Fellowship, the 2019 Polymer Lecture Exchange Award by the Institute of Physics and the American Physical Society, the 2016 Vice-Chancellor's Research Fellowship at Loughborough University, the 2016 Santander Mobility Award, and the 2015 Award for the best PhD Thesis using synchrotron light. He is actively involved in research funding through his UKRI Future Leaders Fellowship and welcomes applications from prospective researchers interested in joining his group. Dr Martin-Fabiani collaborates extensively across disciplines including Chemistry, Physics, Microbiology, and various branches of Engineering. He is passionate about soft materials research and its applications in liquid formulated products. Dr Martin-Fabiani's research group is multidisciplinary, focusing on fundamental science underpinning formulation and application, investigation of inorganic nanomaterials for antibacterial or abrasion resistant properties, development of optimization methods for product development, trials of environmentally friendly formulation ingredients, and sustainability assessments.

• Haptics
• Human-Computer Interaction
• Computer Science
• +4 more

Craig Daniel Shultz is an Assistant Professor at the University of Illinois at Urbana-Champaign with appointments in the Siebel School of Computing and Data Science, the Department of Electrical and Computer Engineering, and the Department of Mechanical Science and Engineering. He is also an affiliate of the Coordinated Science Lab and the Siebel Center for Design. His research centers on haptics engineering, with a focus on surface haptics, electroadhesion, and electroosmotic pumps. Key areas include variable friction techniques, human fingertip interactions, and novel haptic feedback mechanisms. By integrating computer science, electrical engineering, and mechanical engineering, he develops innovative solutions for soft programmable buttons, mid-air haptic displays, and scalable shape-changing interfaces, significantly advancing human-computer interaction through practical applications in digital inking and embedded interaction. Analysis of his 2023-2025 publications reveals a strong trend toward scalable and expressive haptic technologies utilizing hydraulic coupling, synthetic jets, and electro-actuated materials. These works span applications from programmable buttons to non-contact mid-air displays, emphasizing user experience and tactile feedback in interactive systems while bridging interdisciplinary domains of computing and engineering. Scientific Awards: No awards are listed in the available information. Advising and Grants: The provided text does not mention any students or research grants, though his active publication record and lab affiliations suggest ongoing research projects. Labs and Teams: Dr. Shultz leverages collaborative environments through the Coordinated Science Lab, specializing in advanced computing systems, and the Siebel Center for Design, focusing on human-centered innovation, to drive his research in next-generation haptic interfaces.