RECOGNITION
PHYSICS INSTITUTE

An independent nonprofit research institute in Austin, Texas. Our science, Recognition Science, derives the forced structure of reality and puts it to work in programs for energy, computing and medicine.

The discovered architecture of reality.

Reality has one forced shape. A recognition is one thing told from another: a comparison actually made. Recognition Science starts from three facts that every question already uses, adds the stated conditions of each part of that shape, and proves that under them only one answer is possible. We follow that shape into gravity, matter, morality and meaning.

Film · The Why · 90 seconds

Every question already uses three facts

  1. Some things can be told apart. “The light is on” and “the light is off” say different things.
  2. Comparing two readings needs both. Yesterday’s reading has to be held until it is compared with today’s.
  3. Reading an old record is a new event. A log of everything up to noon does not contain your reading it at one o’clock.

Our mission

Derive all of reality.

We have listed everything the structure of reality has to account for, from counting and the golden ratio to proteins and minds. Each square below is one of them, and it fills in as its result is derived.

things to derive
3,999
derived in full
28
derived, given a premise
281
partly derived
440
open walls
19

Updated 8 November 2026, 8:48 AM CT

One square for each thing to derive, in the map’s order and grouped by domain. Grey squares are not yet derived. Point at a square to see its name; select it to open it on the map.

Open the map

The forced shape in one view

Five answers, each the only one its conditions allow.

Each answer rests on its own stated conditions. Each one links to its worked example on the overview, and each example links to its proof.

Our Science

Start with these pages.

Each of these pages states one part of the structure, shows it working live in your browser and names the conditions it rests on.

  • Mathematics

    δ is the mathematics that distinction forces.

    From one repeatable act, telling two things apart, it builds arithmetic, the integers, the ratios and the line of real numbers. Every proof in it carries its price: the principles it uses beyond what distinction forces.

  • Gravity

    Gravity from a lattice of events.

    Events are records on a four-dimensional lattice. At long wavelengths, its weak waves obey Einstein’s linearized equations and travel on the light cone: proved at κ = 1, the value of the one free number in the lattice’s metric at which each step runs at light speed. That value is identified, not derived, and a massless quantum graviton is still open.

  • Simulation

    Every lawful history of one recognizer, computed exactly.

    A recognizer is any system that makes comparisons. We run the recognition law forward from the empty record, in exact arithmetic, carrying every history the law allows.

Research

The papers, and what they mean.

Each designed page takes one paper’s central result: the question it answers and who asked it first, the result working in your browser, and what it means for the structure of reality.

  • Preprint, 2026 · not peer reviewed

    One price holds the electron. The same price moves it.

    Under the readings the paper names, one cost, the price of comparing two amounts, gives both the pull that holds the hydrogen atom together and the motion of its electron.

    Hydrogen from One Cost: The Lattice Coulomb Field and the Bohr Spectrum

  • Preprint, 2026 · not peer reviewed · Film: Never Both

    The Standard Model’s symmetry comes from three bits.

    This preprint derives the Standard Model’s gauge group, with the inputs it names, from comparing the six one-bit facts of a three-bit state.

    The Standard Model Gauge Group and One Generation of Matter from a Three-Bit State

Open The Papers

  • Long-form manuscripts

    Book-length works from Recognition Science. Each follows one question at length and keeps the conditions of its results with them.

  • Cambrian

    Our program for discovering new theorems, which ran until 6 November 2026. It joined pairs of proved results from the institute’s library of theorems into new claims; in its last week it settled ten problems the library had listed as open.

Applied programs

What the science is for.

Abundant energy, computers that work with light, and medicine designed from the physics of molecules. Understanding nature should change what we can build. Each program’s briefing is private; to ask for one, write to hello@recognitionphysics.org.

Photon correlation measurements in eight sequential passesRaw CHSH scores: 2.202, 2.371, 2.541, 2.485, 2.618, 2.551, 2.552, 2.579. Filled dots are recorded scores; open dots show a model of sensitivity to readout imbalance. Bars show conditional counting uncertainty, not the spread between passes. Four passes per session, with recalibration between sessions. Source: Table 5 of the linked preprint.S = 22.82.42.0CHSH correlation scoreSession 1Session 2

Quantum computing · Experiment · arXiv preprint

Measuring correlations in light.

In eight sequential passes on Quandela’s photonic processor, our team measured CHSH correlations in selected photon detections, and every pass scored above 2. The detections are postselected and both qubits sit on one processor, so the result is a measurement reference, not a certificate of entanglement. The counts, analysis and code let other researchers inspect and reproduce the calculation.

Recorded · Model of sensitivity to readout imbalance · bars: counting uncertainty

Private briefing · by invitation: quantum computing

Biophysics

The first-principles health program.

The institute’s program in protein folding and molecular design. Its briefing is private and opens with the password that comes with an invitation.

Private briefing · by invitation: biophysics

Our people

Different disciplines. A shared ambition.

Our work connects mathematical foundations with molecules, plasmas, light and computation. The team brings the expertise needed to move between a formal result and a physical experiment.

  • Jonathan Washburn

    Jonathan Washburn

    Founder and Lead Scientist

    Leads Recognition Science and its applications across the institute.

    Read profile: Jonathan Washburn

    Jonathan discovered and formalized Recognition Science and leads its development across intelligence, fusion energy, quantum computing and the physics of protein folding.

    Explore Jonathan’s work

  • Dr. Elshad Allahyarov

    Dr. Elshad Allahyarov

    Research Scientist

    Studies how interacting particles give rise to complex materials.

    Read profile: Dr. Elshad Allahyarov

    Elshad studies how particles interact in complex systems, from plasmas to advanced materials. He has served as a Senior Scientific Researcher at the Joint Institute for High Temperatures of the Russian Academy of Sciences since 1988.

  • Dr. Sebastian Pardo-Guerra

    Dr. Sebastian Pardo-Guerra

    Research Scientist

    Explores the mathematical structures underlying Recognition Science.

    Read profile: Dr. Sebastian Pardo-Guerra

    Sebastian studies mathematical structures and their connections, working in category theory, graph theory and the foundations of Recognition Science. He completed postdoctoral work at the University of California, San Diego.

  • Dr. Megan Simons

    Dr. Megan Simons

    Research Scientist

    Studies molecular behavior through theory and computation.

    Read profile: Dr. Megan Simons

    Megan uses theory and computation to study how molecules interact and respond to light, and how Recognition Science can help explain their behavior.

  • Dr. Anil Thapa

    Dr. Anil Thapa

    Research Scientist

    Investigates fundamental particles and the laws of physical change.

    Read profile: Dr. Anil Thapa

    Anil studies neutrinos, dark matter and the mathematical laws that describe how physical systems change, including those developed through Recognition Science.

  • Dr. Philip Beltracchi

    Dr. Philip Beltracchi

    Research Scientist

    Studies gravity and matter under extreme conditions.

    Read profile: Dr. Philip Beltracchi

    Philip studies gravity, rotating compact objects and the behavior of matter under extreme conditions. His earlier work includes the computational study of solids and renewable energy.

  • Dr. Roman Shugayev

    Dr. Roman Shugayev

    Research Scientist · Fusion

    Develops plasma technologies for fusion and quantum devices.

    Read profile: Dr. Roman Shugayev

    Roman develops radio-frequency and plasma technologies for fusion, semiconductor manufacturing and quantum devices. He built and operated a diagnostic ion accelerator at MIT’s Alcator C-Mod tokamak, a fusion experiment.

  • Dr. Dylan Funk

    Dr. Dylan Funk

    Research Scientist · Fusion

    Models the behavior of plasmas and charged dust.

    Read profile: Dr. Dylan Funk

    Dylan uses mathematical models and simulations to study how plasmas behave, including how magnetic fields and electrically charged dust affect their motion.

  • Dr. Sajid Ahmed

    Dr. Sajid Ahmed

    Research Scientist · Fusion

    Combines experiments and computation to understand magnetized plasmas.

    Read profile: Dr. Sajid Ahmed

    Sajid combines aerospace engineering and plasma physics to study how electrons move and instabilities develop in magnetized plasmas, using both experiments and computational models.

  • Emma Tully

    Emma Tully

    Chief Operating Officer

    Brings people, partnerships and research operations together.

    Read profile: Emma Tully

    Emma leads institute operations, bringing together research planning, budgets, partnerships and the publication process to support the team’s work.

Collaborate with us

Bring a question worth solving.

We welcome researchers and partners with a problem our science could help address, or an experiment that could put it to the test.

Research together

Bring a question, a mathematical idea or an experiment that could advance the work.

Discuss a research idea

Explore a partnership

Find where our work in energy, medicine or quantum computing could connect with yours.

Start a conversation

Support the institute

Gifts from individuals and foundations fund research fellowships, experiments, open-access publication and independent critique of our work.

Ways to give