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Patricia Search

In her current art work and multimedia research, Patricia Search designs multimedia installations that explore the aesthetics of space, time, and action in computer interface design. “I work with digital media and create interactive installations that highlight ways to use diverse media, exploration, physical interaction, and social discourse to create immersive experiences for online communication,” Search said. “These multisensory environments create perceptual dichotomies that juxtapose realism and fantasy, logic and emotion, continuity and transition. The installations incorporate non-Western perspectives of space, time, and action inspired by indigenous cultures, resulting in innovative ways to use interaction design to define a sense of place. As a result, my research is expanding the syntax of experience design and shaping new dimensions in relational aesthetics through the integration of physical and virtual environments. In these installations, multiple viewers use the interaction with physical and virtual elements, social discourse, and memory to define the aesthetics of the experience and a sense of place.” Patricia Search has had over 40 solo exhibitions and multimedia installations of her art throughout the United States, including 11 in New York City, as well as exhibitions in Australia, Brazil, Canada, Cyprus, France, Germany and Taiwan. She has also participated in over 150 group exhibitions in the United States, Canada, Australia, France, Italy, Germany, Portugal, the Netherlands, Czech Republic, Greece, China, and Japan. She was awarded a Fellowship in Computer Art from the New York Foundation for the Arts and received a Fulbright Senior Specialists Grant to work on multimedia projects with two universities in Australia. In 2005, she received the Creative Achievement Award from the International Visual Literacy Association (IVLA), and in 2010, she was awarded the IVLA James G. Sucy Distinguished Service Award. She was President of IVLA from 2009-2010. She received the best paper award for her research from the World Conference on Educational Multimedia and Hypermedia, and she received the IVLA Editors’ Choice Award for best papers in 2003 and 2007. Her art has been published in numerous journals and three television documentaries including a PBS documentary. Patricia Search served as Co-Editor of the international Journal of Visual Literacy and was a contributing editor for the International Journal of Learning for two years. She has co-edited five books on visual literacy research. She served on the Board of Directors of the International Visual Literacy Association and the International Society for the Arts, Sciences, and Technology (ISAST).

Oshani Seneviratne

Assistant Professor
Oshani Seneviratne is an Assistant Professor of Computer Science at Rensselaer Polytechnic Institute, where she leads the BRAINS (Bridging Resilient, Accountable, Intelligent Networked Systems) Lab. Her primary research interest is advancing Decentralized Systems (Web, Blockchain, and Decentralized Learning technologies), and she conducts applied research in health informatics and decentralized finance. Oshani obtained her S.M. and Ph.D. degrees in Computer Science from the Massachusetts Institute of Technology (MIT) under the supervision of Sir Tim Berners-Lee, the inventor of the World Wide Web. She previously served as the Director of Health Data Research at Rensselaer.

Donald Schwendeman

Professor, Director, Center for Modeling, Optimization and Computational Analysis (MOCA)
Dr. Schwendeman received his B.S.E. in Aerospace Engineering from the University of Michigan, and earned his Ph.D. in Applied Mathematics at the California Institute of Technology (Caltech) under the supervision of Professor G.B. Whitham, FRS.  Dr. Schwendeman took a one-year postdoctoral research position at Caltech working with Professor H.B. Keller, before joining the faculty in the Department of Mathematical Sciences at Rensselaer as an assistant professor in August, 1987.  Dr. Schwendeman received promotions to associate professor with tenure and then professor, and was Head of the Department of Mathematical Sciences, 2012-2024. Dr. Schwendeman is the Director of the Center for Modeling, Optimization, and Computational Analysis (MOCA). Dr. Schwendeman's research focuses on the development and analysis of numerical methods for systems of partial differential equations (PDEs) that arise in applications of science and engineering.  A significant portion of his work has centered around the development of numerical methods for systems of PDEs modeling wave phenomena in reactive and nonreactive flows.  This work has included numerical studies of shock wave focusing and convergence, transonic and hypersonic aerodynamics, and multi-phase and multi-material high-speed reactive flow.  In other work, Dr. Schwendeman has developed a class of new numerical methods for fluid-structure interaction problems and conjugate heat transfer, and he has developed high-order accurate methods for Maxwell's equations and related systems.  All of this work has been in collaboration with researchers at national labs (Los Alamos and Lawrence Livermore) and at Rensselaer. Dr. Schwendeman is also actively involved in undergraduate and graduate education and career development.  He has been a leader among the consortium of universities organizing the Mathematical Problems in Industry Workshop (1993-present), and the originator and lead organizer of RPI's Graduate Student Mathematical Modeling Camp (2004-2018).  Dr. Schwendeman has also been an active member of the NSF-funded Research Training Grant (RTG) program in the department, which supports the research and education of several graduate students and postdoctoral research fellows.

Deepak Vashishth

Yamada Corporation Professor and RPI Co-Director, Center for Engineering and Precision Medicine (CEPM)
Director of the Rensselaer Polytechnic Institute Center for Biotechnology & Interdisciplinary Studies (CBIS), conducting breakthrough research on bones, Deepak Vashishth, PhD, is working to redefine the role of a top tier research university: one that is engaged in public and private partnerships, involved in interdisciplinary research, and providing quality education, all to drive entrepreneurial, sustainable, socially responsible scientific discovery and technological innovation. Administrative leadership: Through his work as a University Center Director, previously as a School of Engineering Department head, and in professional societies he has successfully developed partnerships, Programs, and platforms, to drive translational scientific research across disciplines, sectors,and geographic boundaries. As Director of CBIS he oversees 70 resident and non-resident faculty (from each of the five Rensselaer Polytechnic Institute schools); engages with global partners in the public, private, and academic sectors; and fosters innovative graduate and undergraduate research and education initiatives. In his first two years as CBIS Director he has: envisioned and facilitated the creation of two transformative research centers (Bioimaging Center and Center for Translational Research in Medicine); led the development of an industry partners program to enhance technology transfer and commercialization; and broadened the scope of interdisciplinary research by combining biotechnology with architecture, humanities, and management. As Department Head of Biomedical Engineering (BME) in the School of Engineering at Rensselaer, in just 3 years he dramatically grew and strengthened the department: increased tenured faculty tenfold (1 to 10); added a senior endowed chair to its rank; and it became home to 7 NSF career awardees and recipient of more than 10 NIH RO1 awards (from 2 in 2009). As a committee member of the Orthopaedic Research Society, he developed and facilitated a “Symposium in Translational Medicine” designed to accelerate the transition of discoveries from lab bench to bedside by bridging the gap between clinical, basic science & engineering, government agencies (FDA) and industry. Research leadership: Dr. Vashishth’s research interests are in the area of biomolecular science and engineering of extracellular matrix with particular emphasis on diagnosis and treatment of osteoporosis and bone tissue engineering. His collaborative, interdisciplinary bone research is redefining how osteoporosis will be diagnosed and treated. In 2012 he was elected Fellow of the American Institute of Medical and Biological Engineering (AIMBE) for contributions to the understanding of how both age and collagen‐modification affect bone fragility (cited over 1000 times). AIMBE fellows represent the top 2% of the medical and biological engineering community in the world and are elected based on nomination and vote by AIMBE fellows (http://aimbe.org/college-of-fellows/cof-1479/). He has opened new avenues for diagnosing and treating osteoporosis by developing a new technique to identify bone proteome from nanoscale samples. The process also has been applied for analyzing precious fossils. He is bringing his breakthrough research to market, co-founding a company (Orthograft plc), to produce the acellular biomimetic grafts for bone repair. Professor Vashishth and his research group have published over 200 peer-reviewed journal publications and conference proceedings in top journals including PNAS, Molecular and Cellular Proteomics, Plos One and others. His work presented in the form of over 100 invited and contributed lectures has been cited as a “New Hope for Osteoporosis Patients” and “Secret Formula for Bone Strength” in mainstream media. Working in collaboration with others, his research group has identified new structural roles for bone proteins and developed new biomimickry-based strategies for tissue engineering scaffolds. In addition to being a Fellow of and active in the AIMBE, he serves as a member of the National Institutes of Health study section on Skeletal Biology and Skeletal Regeneration. He is a board member of the Journal of the Mechanical Behavior of Biomedical Materials and a regular reviewer for other federal and international funding agencies, private foundations and university grants, and journals. He also is a member of the Biomedical Engineering Society, American Society of Bone and Mineral Research and the Orthopaedic Research Society. Educational leadership: Fundamentally focused on education, he is preparing the next generation of researchers and the “faculty of the future” by infusing undergraduate and graduate programs with a more interdisciplinary, collaborative, global perspective on sustainable, translational scientific research. In recognition of his dedication to education, he has won Rensselaer awards for outstanding and innovative classroom teaching including the Class of 1951 Outstanding Teaching award. As CBIS Director, he established new global partnerships, redesigned graduate training programs, and developed a new course, all designed to prepare the “faculty of the future,” focused on sustainable collaborative interdisciplinary research and technology transfer and commercialization. As BME department head (2009-2013): expanded the graduate program three-fold (from 20 to 60 students), attracted more highly qualified graduate students, and promoted early success (National fellowships). He overhauled curriculum, to enhance learning and to improve the undergraduate experience, by reducing class size and providing hands-on education in a technologically connected classroom. Background: He earned his B. Eng with honors from Malaviya National Institute of Technology (India), MS from West Virginia University (USA) and PhD from the University of London (UK). He then conducted post-doctoral research at the Bone and Joint Center, Department of Orthopaedic Surgery, Henry Ford Hospital before joining Rensselaer as an Assistant Professor in Biomedical Engineering in 1999.

Mei Si

Associate Professor, Cognitive Science
Mei Si is primarily interested in is artificial intelligence and its application in virtual and mixed realities. In particular, her research concentrates on computer-aided interactive narratives, embodied conversational agents and pervasive user interface, elements that make virtual environments more engaging and effective. Si has been using her research to develop virtual environments and intelligent conversational agents for serious games. In one example of her work, Si helped to develop the Tactical Language Training System, a large-scale (six to twelve scenes each for three languages) award-winning project funded by the U.S. military for rapid language and culture training. The system has been used by thousands of military personnel. “Computer-aided interactive narrative is a new form of media that allows the user to play a role in a story and interact with other characters controlled by an automated system. The user’s choices of actions affect the development of the story,” said Si. Narrative itself is a central part of the human experience. Its power to shape people's minds and affect people's behavior has been recognized throughout recorded history. The support for user interactivity distinguishes interactive narrative from other narrative forms. By allowing the user to interact, the experience is richer and potentially more engaging. Moreover, interactivity can promote intrinsic motivation in learning, and support learning in context and replay. Therefore, interactive narrative can be potentially a more effective media than traditional narrative.” Si regularly presents and publishes her work. She has recently presented on “Activating Narcissus: Cognitive and Affective Systems Transformed Through "Serious" Game Play” at the International Conference on the Philosophy of Computer Games; “Foreign language learning in immersive virtual environments” at the IS&T/SPIE Electronic Imaging conference, and “Modeling Rich Characters in Interactive Narrative Games” and GAMEON-ASIA. Her recently published work includes “D.V. Modeling Appraisal in Theory of Mind Reasoning” in the Journal of Agents and Multi-Agent Systems, and book chapters “ Virtual Interactive Interventions for Reducing Risky Sex: Adaptations, Integrations, and Innovations” in  Interactive Health Communication Technologies: Promising Strategies for Health Behavior, and “Modeling Theory of Mind and Cognitive Appraisal with Decision-Theoretic Agents” in Social emotions in nature and artifact: Emotions in human and human-computer interaction.

Marjorie McShane

Marjorie McShane develops cognitive models of intelligent agents that can collaborate with people in task-oriented, dialog applications. While at heart a linguist, she is particularly interested in the integration of functionalities that are often treated in isolation, such as physiological simulation, emotion modeling, and the many aspects of cognition. One aspect of cognition to which she has devoted particular attention is natural language processing, approached from a cross-linguistic perspective and with the goal of producing machine-tractable descriptions that can support sophisticated conversational agents. She has also worked extensively on cognitive modeling in the medical domain, to support the configuration of intelligent agents playing the roles of virtual patients and tutors in training applications such as the Maryland Virtual Patient system.McShane has (co-)authored four books: Agents in the Long Game of AI: Computational cognitive modeling for trustworthy, hybrid AI (MIT Press, 2024), Linguistics for the Age of AI (MIT Press, 2021), A Theory of Ellipsis (Oxford University Press, 2005), and An Innovative, Practical Approach to Polish Inflection (Lincom Europa, 2003). She has published extensively on linguistics, natural language processing, cognitive modeling, and knowledge representation.

Malik Magdon-Ismail

Dr. Magdon-Ismail has been a Professor of Computer Science since 2000. After degrees at Yale and Caltech, Dr. Magdon-Ismail was a research scholar at Caltech before joining Rensselaer as Assistant Professor of Computer Science. His interests are in decision making from data in complex systems, including machine learning, computational finance networked systems and quantum computing. He enjoys poker, bridge, squash, tennis and badminton. For more details, please visit his web page.

Lydia Manikonda

Assistant Professor of Business Analytics and Web Science
Lydia Manikonda is an Assistant Professor in the Lally School of Management. Her research interests lie in developing robust, goal-centric intelligent models that are capable of learning and reasoning with complex, real-world data drawn from the Web. In particular, how these models can be used to address critical challenges in user privacy, public health (including addictions, dietetics, and maternal health), and finance (with an emphasis on crowdfunding). Within this broader scope, she also is studying how #generativeAI is actively shaping user behavior online. The rise of #genAI systems has introduced new privacy concerns, altered patterns of interactions both online and offline, and its impact on mental health. Understanding and integrating these behavioral, ethical, and psychological dimensions into metacognitive tasks is a central aspect of her work, ensuring that frameworks remain both effective and adaptable in dynamic environments. Methodologically, her research tackles challenges associated with handling unstructured and messy data (especially, natural language text), and integrating diverse sources of information. So far, her research work has received several media mentions, a best SPC and reviewer awards at AAAI ICWSM 2025 and 2016 respectively and an outstanding demonstration award at AAAI ICAPS 2014. Lydia received her PhD in Computer Science from Arizona State University in 2019 and MS (by Thesis) and B.Tech both in Computer Science and Engineering from IIIT-Hyderabad. More information about her research and publications can be found here: website (https://lmanikon.github.io/) or Google Scholar (https://scholar.google.com/citations?user=xB5PgNgAAAAJ)

FOCI Cluster Details (Jul 2025)

The FOCI Cluster (formerly "IDEA Cluster") is a high performance computing environment consisting of six virtualized compute servers hosted by two AMD servers in various configurations ranging from 24-40 cores (48-80), 256GB-1TB RAM, and up to four GPUs per machine (Nvidia Ampere A100 GPUs). The FOCI Cluster includes one dedicated storage server totaling more than 40TB of usuable space. The FOCI Cluster is designed for dedicated data mining, machine learning, and neural computing-intensive jobs using popular toolkits.