Recognition Physics

Recognition Physics is a parameter‑free framework that derives physical law from a single logical necessity and carries those proofs to SI displays through a Reality Bridge. Our research unifies gravity, quantum coherence, computation, and cosmology in a deductive, auditable program with machine‑verified theorems and crisp experimental falsifiers. We publish open artifacts—papers, code, and certificates—so results are testable and reproducible end‑to‑end.

Jonathan Washburn

Jonathan Washburn

Founder

Recognition Physics Framework Discoverer

Jonathan Washburn discovered the Recognition Physics framework and developed the meta-principle "Nothing cannot recognize itself" as the tautological foundation for all physical law. His groundbreaking insight that reality must emerge from pure logical necessity has revolutionized theoretical physics, providing the first parameter-free theory of everything with 43+ verified predictions and zero free parameters.

Dr. Elshad Allahyarov

Dr. Elshad Allahyarov

Research Scientist, Team lead

Dr. Sci. Physics & Mathematics, General Physics Institute RAS & Heinrich-Heine University Düsseldorf

Dr. Allahyarov leads the Recognition Physics Institute's theoretical research programs, bringing decades of expertise in many-body systems, plasma physics, and advanced materials science. Since 1988, he has served as a Senior Scientific Researcher at the Joint Institute for High Temperatures of the Russian Academy of Sciences, while maintaining positions as Visiting Professor at Case Western Reserve University and Staff Scientist at Heinrich-Heine University Düsseldorf.

Dr. Sebastian Pardo Guerra

Dr. Sebastian Pardo Guerra

Research Scientist

Ph.D. Pure Mathematics, Universidad Nacional Autónoma de México (UNAM)

Sebastian leads mathematical research bridging abstract theoretical frameworks with Recognition Physics principles. His expertise in Category Theory and Graph Theory provides essential foundations for understanding information flow and emergent behavior in recognition systems. He completed postdoctoral work at UC San Diego, expanding his research into applied mathematics with emphasis on bioengineering and theoretical neuroscience.

Dr. Megan Simons

Dr. Megan Simons

Research Scientist

Ph.D. Theoretical and Computational Chemistry, Southern Methodist University

Dr. Simons applies Recognition Physics principles to molecular and chemical systems, integrating quantum chemistry with data-driven modeling techniques. Her work explores how recognition-theoretic frameworks can enhance understanding of complex molecular interactions and spectroscopic phenomena. She earned her B.S. in Mathematics and Chemistry from Rhodes College before completing postdoctoral work at the University of Memphis.

Dr. Anil Thapa

Dr. Anil Thapa

Research Scientist

Ph.D. Theoretical Physics, Colorado State University

Dr. Thapa investigates the frontiers of particle physics through Recognition Physics frameworks, exploring connections between neutrino physics, dark matter, and beyond-Standard-Model phenomena. His research integrates effective field theory with Recognition Physics principles to develop new approaches to fundamental particle interactions and unified theories, with particular focus on model building and grand unified theories.

Dr. Brett M. Werner

Dr. Brett M. Werner

Research Scientist

PhD, Mathematics, University of Denver

Brett works on the mathematical and theoretical foundation of Recognition Physics as well as testing the framework via simulations. His research expertise is in the fields of topological dynamical systems, graph theory, and applications of AI/machine learning. Brett received a BS in Mathematics and Engineering Physics from Morningside University and a MS in Data Science at Regis University. He completed his PhD studies in Mathematics at the University of Denver. Since completing his PhD, Brett has spent time working in academia, working in the oil and gas industry, and working on an AI research team.

Karen Paco

Karen Paco

Research Scientist

Ph.D., Applied Life Sciences (2018–2021), Keck Graduate Institute, Claremont, CA

Karen Paco has worked across vaccine development, protein design, and drug discovery, with projects spanning infectious diseases and neurodegenerative disorders. During her Ph.D., she investigated protein–protein interactions, and her subsequent work applies AI and machine learning to integrate biological data and improve predictions, linking protein sequences to their three-dimensional structures and functions. She has also analyzed immune repertoires using Large Language Models to understand how sequence patterns relate to antibody binding and specificity. Karen has joined the Recognition Physics Institute to study protein folding, bringing a practical, biology-informed perspective to models that connect sequence, structure, and interaction.