Jochen Küpper is a Professor of Physics at the University of Hamburg and heads the Controlled Molecule Imaging group at the Center for Free-Electron Laser Science (CFEL) at DESY. He also holds a professorship in the Department of Chemistry at the University of Hamburg. His research focuses on understanding the ultrafast dynamics of complex molecules during (bio)chemical reactions under well-defined conditions, with applications ranging from improved chemicals and materials to drug development. His research interests span molecular physics, ultrafast dynamics, X-ray laser science, molecular imaging, quantum chemistry, and chemical reaction dynamics. Küpper's work builds on groundbreaking approaches to control molecules and nanoparticles in the gas phase, including flash freezing, separation of structural isomers, and spatial fixation. He extends atomic-resolution imaging techniques to complex molecules using highly controlled sampling techniques and both ultrafast lasers and X-ray light sources. His recent publications reveal a strong focus on nanoparticle injection systems, laser-induced alignment of molecules, time-resolved structural biology, and advanced computational methods for molecular simulations. His work frequently involves collaborations across multiple institutions and leverages cutting-edge X-ray free-electron laser facilities. Nernst-Haber-Bodenstein Prize from the German Bunsen Society for Physical Chemistry Fellow of the Royal Society of Chemistry, UK Head of the Molecular Physics Section of the German Physical Society (2022-2025) Küpper leads a research group that develops experimental techniques for controlling and imaging molecules with unprecedented precision. His work bridges physics, chemistry, and biology through advanced imaging methodologies that capture molecular dynamics at femtosecond timescales. His laboratory maintains strong connections with international facilities including the European XFEL and DESY.
Frederick Stern serves as the George D. Ashton Professor of Hydroscience and Engineering and Professor in the Department of Mechanical Engineering at the University of Iowa's College of Engineering. He additionally holds a Faculty Research Engineer position at IIHR—Hydroscience and Engineering, where he directs the Stern Lab. With over 40 years of continuous service since joining the institution in 1983, Stern maintains active leadership in naval architecture and marine engineering research. Education PhD in Naval Architecture & Marine Engineering, University of Michigan, 1980 MSE in Naval Architecture & Marine Engineering, University of Michigan, 1977 BSE in Naval Architecture & Marine Engineering, University of Michigan, 1975 Research Focus Stern's work centers on computational and experimental fluid dynamics with specialized expertise in ship hydrodynamics , cavitation phenomena , and fluid-structure interaction . His research program bridges high-fidelity CFD simulations with physical towing tank experiments, particularly for high-speed craft and naval vessels. Significant contributions include 6DOF viscous ship hydrodynamics modeling , towing tank maneuvering test methodologies , and multi-criteria optimization for ship design . Stern actively integrates advanced simulation technologies into undergraduate engineering education. Publication Trends Recent publications (2022-2025) demonstrate three converging research trajectories: (1) Multi-fidelity modeling for weight reduction and performance optimization of high-speed small craft, (2) Advanced CFD techniques for free-running vessel simulations in waves including fluid-structure interaction, and (3) Data-driven approaches using machine learning (DMD, RNNs) for ship motion forecasting. These works consistently emphasize validation through experimental data and address practical naval architecture challenges. Professional Recognition Fellow of the American Society of Mechanical Engineers (ASME) Professional Engagement Stern maintains active memberships in the American Society for Engineering Education (ASEE) and Society of Naval Architects and Marine Engineers (SNAME). He serves as Secretary of the Maneuvering Committee for the 24th International Towing Tank Conference, reflecting his leadership in experimental hydrodynamics standardization. His research collaborations include major international workshops such as the Tokyo 2015 CFD Workshop for ship hydrodynamics. Research Infrastructure Stern directs the Stern Lab within IIHR—Hydroscience and Engineering, leveraging the university's Stanley Hydraulics Laboratory facilities including towing tanks and advanced measurement systems. His team develops integrated computational-experimental frameworks like the towing tank maneuvering test flow-map measurement system, supporting both fundamental research and practical naval design applications.
Michael J. Prather is a UCI Distinguished Professor of Earth System Science at the University of California, Irvine, holding the Fred Kavli Endowed Chair from 2002-2013. He has served as Director of the UCI Environment Institute (2008-2013) and as a Jefferson Science Fellow at the U.S. Department of State (2005/2006, continuing as consultant until 2010). Prather is a leading atmospheric scientist with expertise in global atmospheric modeling, particularly as applied to atmospheric composition and climate change. Prather received his undergraduate degrees in Mathematics from Yale (1969) and Physics from Merton College, Oxford (1971), followed by a Doctorate in Astronomy and Astrophysics from Yale (1976). His academic career includes positions as Researcher at Harvard (1975-1985) and Goddard Institute for Space Studies (1985-1992), Program manager at NASA HQ (1987-1992), and Adjunct Professor in Applied Physics and Nuclear Engineering at Columbia University (1986-1992), before joining UC Irvine as Professor of Earth System Science in 1992. Prather's research focuses on simulation of the physical, chemical and biological processes that determine atmospheric composition. His work centers on development of detailed numerical models of photochemistry and atmospheric radiation, and global chemical transport models that describe ozone and other trace gases. Key areas of investigation include effects of volcanic sulfate aerosols on stratospheric ozone loss, role of clouds in scattering sunlight and altering photochemistry, and non-linearities in chemical systems that lead to sudden changes such as ozone depletion caused by CFC increases. His research group has developed important modeling tools including the Second-Order Moments (SOM) advection scheme and Fast-J photolysis code that are widely used in atmospheric chemistry models. Analysis of Prather's recent publications reveals a continued focus on atmospheric chemistry-climate interactions, with particular emphasis on understanding tropospheric ozone, methane lifetime, and stratosphere-troposphere exchange processes. His work increasingly integrates aircraft campaign data (particularly from NASA's ATom missions) with sophisticated modeling approaches to constrain chemical reactivity and transport in the remote atmosphere. The research demonstrates strong interdisciplinary connections between atmospheric chemistry, climate science, and environmental policy. Prather's scientific achievements have been recognized with numerous honors including: Norwegian Academy of Science and Letters (Foreign Member, 1999) Fellow of the American Geophysical Union (1997) Fellow of the American Association for the Advancement of Science (2004) NASA Medal for Exceptional Scientific Achievement (1992) Fellow of the American Meteorological Society (2024) Vilhelm Bjerknes Medal from the European Geosciences Union (2020) UCI Lauds & Laurels Faculty Award (2008) Throughout his career, Prather has advised numerous graduate students and postdoctoral researchers who have gone on to prominent positions in atmospheric science. His research has been supported by multiple federal agencies including NASA, NSF, and the Department of Energy. Prather has played significant roles in major international scientific assessments, serving as Lead Author for multiple UNEP/WMO Ozone Assessments (1985-2018) and as Convening Lead Author and Lead Author for several Intergovernmental Panel on Climate Change assessment reports (1994-2022). Prather directs a productive research group focused on atmospheric chemistry modeling, with current members including scientific programmer Xin Zhu and doctoral student Calum Wilson. His group has developed widely used atmospheric modeling tools including the Second-Order Moments (SOM) advection scheme and the Fast-J/Cloud-J photolysis modules. The group actively participates in major field campaigns such as NASA's ATom missions, analyzing aircraft measurements to improve understanding of global atmospheric composition.
Yan Li is an Assistant Professor in Electrical Engineering with extensive research activity spanning 2013–2025 and 76 research outputs. Their work intersects power systems engineering , quantum computing , and computational symmetry with applications in microgrid stability , neuroimage analysis , and human pose dynamics . Active in UN Sustainable Development Goals related to sustainable energy systems Key research areas: Quantum Computing Training , Transient Dynamics Analysis , Software-defined Networking , and Data-driven Modeling Recent publications focus on adaptive control algorithms for microgrids, quantum computing applications in power systems, and geometric machine learning for differential equations on manifolds. Their work combines theoretical innovation with practical implementations in energy and biomedical domains. Grant funding includes: National Science Foundation (CyberTraining: Quantum Computing Training for Power Engineers, 2024–2026) U.S. Navy (Quantum Analysis of Renewable Energy Transients, 2022–; SCADA Network Security via SDN, 2021–) National Science Foundation (Data-driven Modeling for Renewable Systems, 2022–2025)
Ralph Aldredge is a Professor in the Department of Mechanical and Aerospace Engineering at the University of California, Davis, and serves as Executive Associate Dean for the College of Engineering, overseeing undergraduate studies and facilities planning. His leadership encompasses enrollment management, academic advising, retention programs, ABET accreditation, and strategic capital projects for engineering facilities. He earned a Bachelor of Science in Mechanical Engineering and French from Carnegie-Mellon University (1985), a Master of Arts in Mechanical and Aerospace Engineering from Princeton University (1988), and a Doctor of Philosophy in the same field from Princeton University (1990). Dr. Aldredge's research focuses on combustion, fluid dynamics, and bio-transport , with dual emphases on bio-fluid dynamics (vascular blood flow) and front propagation in biological tissues (avascular-tumor dynamics) and reacting gases (flame propagation). His work integrates computational modeling to solve complex problems in energy and biomedical systems, including the development of the Level-Set app for flame propagation simulation. Analysis of his recent publications reveals a consistent interdisciplinary trajectory bridging combustion engineering and biomedical applications. Key themes include flame propagation modeling in complex flows, tumor growth dynamics influenced by extracellular matrix components, and optimization of medical devices for drug delivery and cancer treatment. His research demonstrates how fluid dynamics principles can be applied across energy systems and healthcare innovation. No scientific awards were explicitly documented in the source materials. Dr. Aldredge advises graduate students in combustion and bio-fluid dynamics while driving systemic improvements in engineering education. His administrative leadership has shaped holistic-review undergraduate admissions policies adopted system-wide across the University of California, significantly impacting enrollment management and academic support structures. As Associate Dean for Facilities and Capital Planning, he directs strategic development of engineering spaces and resources, ensuring alignment with academic priorities while maintaining safety compliance and operational efficiency for the College of Engineering.
Angela Mathison, PhD, is an Associate Professor in the Department of Surgery at the Medical College of Wisconsin, with secondary affiliation to the Mellowes Center for Genomic Sciences and Precision Medicine. She holds leadership roles as Director of 'Omics Research and Development and Associate Director for Operations and Academic Relationships. Her academic journey includes postgraduate training at Mayo Clinic and faculty promotion from Assistant to Associate Professor in 2025. Dr. Mathison's research focuses on genomic mechanisms in disease pathogenesis , particularly in pancreatic cancer, epigenetics, and precision medicine. Her work integrates computational biology with experimental approaches to investigate chromatin remodeling, transcriptional regulation, and therapeutic targeting of oncogenic pathways. Key interests include KRAS-driven carcinogenesis, epigenetic modifiers like EZH2/EHMT2, and radiation response mechanisms. Her recent publications demonstrate strong emphasis on translational bioinformatics , with consistent themes in: 1) Structural characterization of cancer-associated genomic variants, 2) Epigenetic regulation of tumor microenvironments, 3) Radiation-immune interactions in oncology, and 4) Computational drug repositioning strategies. The work frequently employs multi-omics integration across pancreatic, head/neck, and liver pathologies. Awards include: Poster of Distinction, American Pancreatic Association (2014) Best Faculty Poster Award, CTSI SEAWINDS Symposium (2024) She mentors numerous trainees and leads NIH-funded projects: Co-I on NIH R01: 'Targeting Epigenomic Regulators at the Replication Fork in PDAC' (2021-2026) PI on AHW grants: 'Epigenetic Alterations in Gender-Affirming Care' (2025) and 'Rare Disease Systems Biology' (2024) Dr. Mathison directs the 'Omics Research Development Core and co-leads the Precision Medicine Education Program. She serves on multiple institutional committees including the Institutional Biosafety Committee and VBRI's Scientific Advisory Committee.
Dr. Mahdi Haddad is a Research Assistant Professor at the Bureau of Economic Geology (BEG) within the Jackson School of Geosciences at The University of Texas at Austin. His expertise spans reservoir geomechanics, subsurface electromagnetic monitoring, hydraulic fracture modeling, and induced seismicity. He leads the revitalized BEG Rock Mechanics Lab and oversees projects at the Advanced Energy Consortium (AEC) lab and Devine Field Test Site (DFTS). His work focuses on developing diagnostic technologies to mitigate risks in subsurface energy operations, including CO2 storage, hydraulic fracturing, and fault reactivation analysis. Education: B.S. in Mechanical and Petroleum Engineering from Sharif University of Technology, Iran; M.S. in Mechanical Engineering (Energy Conversion) from Sharif University; Ph.D. in Petroleum Engineering from UT-Austin. Research Interests: Dr. Haddad specializes in hydraulic fracture dynamics , induced seismicity , poroelastic modeling , and subsurface electromagnetic monitoring . His projects integrate field experiments, numerical simulations, and advanced geophysical techniques to improve subsurface operation safety and efficiency. Awards: Recipient of the 2020 SPE Reservoir Evaluation & Engineering Journal Technical Reviewer Award and 2019 ARMA Future Leader designation. He co-founded the ARMA Induced Seismicity Webinar Series. Advising & Grants: Served as Principal Investigator (PI) on an STTR project for fracturing-induced seismicity diagnostics. Mentored PhD students in petroleum engineering and a lab technician. Active in technical committees for SPE and ARMA. Labs & Teams: Directs the BEG Rock Mechanics Lab and collaborates on initiatives at the AEC Lab and DFTS, advancing technologies for subsurface monitoring and energy resource management.
Estibalitz Ukar is a Research Associate Professor at the Bureau of Economic Geology, Jackson School of Geosciences, The University of Texas at Austin. His work focuses on the interplay between structural geology and diagenesis, particularly in fractured carbonate reservoirs and subduction zone processes. He leads the Structural Diagenesis Initiative’s natural fracture research and directs a high-resolution SEM-CL facility for advanced imaging of fracture cements. Research interests include brittle structural petrology, fracture evolution modeling, and paleostress analysis using twinned fracture cements. His expertise spans carbonate rock characterization, subduction zone metamorphism, and carbonation of ultramafic rocks. Notable projects include studies in the Tarim Basin (China), Santos Basin (Brazil), and Samail ophiolite (Oman). Key awards include the GDL Foundation Fellowship (2012), R.L. Folk Petrography Award (2009), and Geological Society of America Grant (2006). He has secured grants from international organizations like the Basque Government and GDL Foundation. Current research explores fluid-rock interactions in reservoirs and reaction-driven fracturing mechanisms. His lab facilities enable nanoscale analysis of fracture microstructures, advancing understanding of diagenetic controls on subsurface permeability. Collaborations bridge field observations, laboratory experiments, and numerical modeling to address energy and environmental challenges in geoscience.
Gianluca Cusatis is a Professor of Civil and Environmental Engineering at Northwestern University, with a courtesy appointment in Mechanical Engineering. He leads research in multiscale mechanics of infrastructure materials, focusing on constitutive modeling of concrete, cementitious composites, and wood. His work bridges computational modeling, experimental validation, and material innovation. He holds a Ph.D. and Laurea from Politecnico di Milano, Italy. Research interests include quasi-brittle material behavior, 3D concrete printing, infrastructure durability (e.g., alkali-silica reaction), and wood mechanics. He directs the Multiscale Mechanics of Infrastructure Materials (M2IM) group, collaborating with institutions like the University of Maine. Key achievements include pioneering the Lattice Discrete Particle Model (LDPM) and advancing understanding of cement hydration expansion via the Shard Test. Awarded ASCE/EMI Fellow, Cusatis serves on professional boards (ASCE Engineering Mechanics Institute, ACI Committees). His lab integrates advanced facilities for structural testing, 3D printing, and environmental control. Major projects include sustainable timber structure design, Martian concrete for extraterrestrial habitats, and mesoscale modeling of composite materials.
Jens Koch is a Professor of Physics and Astronomy at Northwestern University, serving as Deputy Director of the SQMS (Stevenson Quantum Materials and Systems) and Co-Director of the CAPST (Center for Applied Physics and Superconducting Technologies). He holds a PhD from Freie Universität Berlin (2006) and specializes in theoretical condensed matter physics, focusing on quantum circuits, coherence in nanoscale systems, and quantum information processing. His research explores superconducting devices as artificial atoms in quantum computing and quantum optics, with collaborations on coherence studies and Josephson-junction-based circuits. He co-directs CAPST, advancing superconducting technologies for quantum applications. Notable contributions include the development of fluxonium qubits and work on circuit quantum electrodynamics (cQED). His awards include the 2024 APS Fellowship. Koch's research bridges theoretical and experimental physics, addressing challenges in quantum error correction, noise mitigation, and scalable quantum systems. He collaborates across institutions to advance quantum simulators of strongly interacting photons and polaritonic systems. His work spans device design, control protocols, and computational tools like the scqubits Python package. Key research areas include coherence enhancement in superconducting qubits, quantum control protocols, and hybrid quantum systems. His lab develops novel qubit architectures and investigates quantum phase transitions in lattice models. Koch’s contributions to quantum technology have been recognized through high-impact publications and leadership roles in quantum initiatives.
Chris Atkin is a Professor of Engineering and Head of the Engineering Department at the University of East Anglia (UEA). He holds affiliations with the School of Engineering, Mathematics and Physics, and the Fluids & Structures and Sustainable Energy research groups. His career began at British Aerospace, followed by roles at the Defence Research Agency and QinetiQ before joining academia. He has held leadership roles, including Dean and Head of Engineering at City University of London, and currently chairs the Engineering Council and serves on the International Council of the Aeronautical Sciences Executive Committee. Atkin's research focuses on boundary layer flows, laminar-turbulent transition, and drag reduction technologies, with applications in commercial and military aviation. He advises industries like Airbus and Bombardier, and his work emphasizes practical solutions for aerodynamic challenges. His academic journey includes a PhD from the University of Cambridge in 1990, followed by roles in both industry and academia. He maintains active collaborations globally and supervises PhD students through UEA’s research programs. His research and advisory roles bridge academic innovation with industrial implementation, addressing technical and commercial barriers in advanced aerospace technologies.
Umesh Vaidya is a Professor in the Department of Mechanical Engineering at Clemson University's College of Engineering, Computing and Applied Sciences. His research integrates control theory, dynamical systems, and data-driven methodologies to address challenges in power systems, robotics, and building automation. He leads the DYCO AI Lab and maintains active collaborations with industry and government agencies. Education: Ph.D. in Mechanical Engineering (Dynamical Systems and Control Theory), University of California, Santa Barbara B.E. in Electrical Engineering, Victoria Jubilee Technological Institute, Mumbai, India (1997) Research Focus: Vaidya pioneers operator-theoretic approaches for data-driven dynamical analysis, specializing in Koopman and Perron-Frobenius operators. His work spans robust optimization for cyber-physical systems, stability analysis of power grids, and safety-critical control for robotics. Recent innovations include density functions for safe navigation and transfer operator frameworks for building environment monitoring. Publication Trends: Analysis of 2019-2025 publications reveals escalating integration of Koopman operator theory with machine learning for control systems. Key trajectories include: (1) Safety-critical autonomy using density functions (35% of recent work), (2) Power grid stability via data-driven spectral methods (25%), (3) Optimization of networked systems (20%), and (4) Robotics control under uncertainty (20%). The shift toward real-world validation in autonomous vehicles and power systems is pronounced post-2021. Scientific Recognition: NSF CAREER Award (2012) for foundational work in dynamical systems Best Paper Award at American Control Conference (2018) for building environment monitoring Keynote invitations at Set-Oriented Numerics workshop (2016) and IPAM/UCLA (2019) Litton Industries Professorship (2010-2011) for engineering excellence Research Leadership: Vaidya directs the DYCO AI Lab, securing major grants including NSF CAREER and collaborative power grid analytics projects. His team develops convex approaches for data-driven control with safety guarantees, bridging theoretical advances with applications in autonomous vehicles and renewable energy integration. Current projects focus on digital twins for robust autonomy and Koopman-based stability assessment in high-penetration renewable grids. Technical Infrastructure: The DYCO AI Lab employs high-performance computing for operator-theoretic methods, with experimental validation platforms for off-road autonomous vehicles and building energy systems. Partnerships include national labs (NREL, ORNL) and industry leaders in power systems (Siemens, Duke Energy) and robotics (Boston Dynamics).
Dr. Habib Ahmari is an Associate Professor in the Department of Civil Engineering at The University of Texas at Arlington (UTA), licensed in Texas and Ontario. With over 20 years of experience, his expertise spans environmental hydraulics, sediment transport, and fluvial geomorphology. He holds a PhD from Queen's University (2010) and advanced degrees from Sharif University (Iran). Research Focus: Urban hydrology, climate change impacts, river restoration, and hydraulic engineering. Leadership: Directed UTA's CE Department Learning Center (2016–2020), chaired ABET accreditation (2017–2020), and serves on ASCE technical committees. Grants: Secured funding from TxDOT, GLO, and NCTCOG for studies on sediment transport, bridge resilience, and coastal dynamics. His research bridges theoretical and applied engineering through projects like ArcGIS-based erosion toolkits and biofiltration swale testing. Awards include UTA's Outstanding Teaching Award (2019) and Queen's University's R. Samuel McLaughlin Fellowship (2006). Dr. Ahmari advises 40+ graduate students and teaches courses in fluid mechanics, sediment transport, and open channel hydraulics. He collaborates with agencies like Trinity River Authority and presents at international conferences such as the World Environmental & Water Resources Congress.
Anil Saigal is a Professor in the Department of Mechanical Engineering at Tufts University's School of Engineering. He has been at Tufts since 1983, progressing from Assistant Professor to his current position as Professor. During his tenure, he served as Department Chair from 2002-2007 and as Director of International Programs for the School of Engineering from 2007-2009. His primary academic home is within the Mechanical Engineering department, where he teaches courses related to materials and manufacturing. Dr. Saigal received his educational foundation from prestigious institutions: B.Tech. with distinction from the Indian Institute of Technology (IIT), Mumbai, India (1979) M.S. from Georgia Institute of Technology, Atlanta, United States (1980) Ph.D. from Georgia Institute of Technology, United States (1983) Professor Saigal's research focuses on materials engineering and science, with particular emphasis on composite materials, polymer processing, and advanced manufacturing techniques. His work spans fundamental material characterization to applied manufacturing processes, with strong connections to both industrial applications and emerging technologies. Key areas include: Characterization of composite materials and polymers Additive manufacturing and directed energy deposition techniques Materials processing and quality control Mechanical behavior of advanced materials at various temperatures Structure-property relationships in engineered materials His recent publications reveal a strong focus on additive manufacturing technologies, particularly directed energy deposition methods for creating advanced metal and composite materials. There's a clear trajectory toward biomedical applications of materials science, as evidenced by studies on cryogenic processing of biodegradable polymers and mechanical characterization of materials for medical devices. The research consistently bridges fundamental material science with practical engineering applications. Professor Saigal has received significant recognition for his contributions to the field: Fellow of the American Society of Mechanical Engineers (ASME) 2011 Distinguished Service Alumni Award from IIT Mumbai Vajra Fellowship from the Government of India (2020-2023) Best Paper Award from Minerals Metals and Materials Society (2017) Honorable Mention from American Society of Mechanical Engineers (2017) Throughout his career, Professor Saigal has been actively involved in mentoring students and securing research funding. His grant portfolio includes projects funded by the National Science Foundation, industry partners like Conn-Selmer, Inc., and internal Tufts University programs. He has served as an advisor for numerous student research projects and has contributed to skill development initiatives aimed at high school students. In addition to his research grants, he has held significant administrative roles including serving as an ABET Program Evaluator and on various university committees focused on tenure and promotion, academic calendar planning, and diversity initiatives. Professor Saigal leads the Research and Characterization of Composites and Polymers (RECCAP) Lab at Tufts University, which serves as the primary research hub for his work on advanced materials. The lab focuses on experimental characterization and computational modeling of composite materials and polymers, with particular emphasis on manufacturing processes and structure-property relationships. The RECCAP Lab supports both fundamental research and industry collaborations, providing students with hands-on experience in state-of-the-art materials characterization techniques.
Shengzhe (Jackson) Wang is an Assistant Professor of Civil Engineering at the University of Colorado Denver, affiliated with the College of Engineering, Design and Computing. His research focuses on coastal and floating structures, thin-shell architecture, and climate adaptation solutions. He holds a Ph.D. from Princeton University, an MPhil from the University of Sydney, and a BEng from the University of Auckland. Education: Ph.D., Civil & Environmental Engineering, Princeton University MPhil, Civil Engineering, University of Sydney BEng, Civil & Environmental Engineering, University of Auckland Research Interests: Dr. Wang explores the intersection of structural engineering and environmental resilience. His work includes: Hydrodynamic interactions between extreme waves and coastal infrastructure Thin-shell structural mechanics and geometric optimization Urban resilience through floating architecture and climate-adaptive designs Machine learning for predictive structural analysis His methodologies blend numerical simulations (e.g., SPH, FEA) with experimental validation. Key Contributions: Recent work emphasizes floating cities, mangrove-based coastal protection, and Felix Candela’s hyperbolic paraboloid structures. His research bridges engineering, architecture, and environmental science. Advising & Grants: No advisees listed; active in securing grants for climate-resilient infrastructure projects. Lab: CASE Lab (website: caselab.dev ).
