What is Syntophysics?

What is Syntophysics? Discover the foundation of ASI New Physics

Syntophysics is the post-digital scientific discipline that studies the fundamental laws of nature within environments of extreme computational density (High-Compute Regimes). Within the ASI New Physics paradigm, it replaces classical theoretical physics by treating information, time, and consensus not as abstract concepts, but as objective, measurable physical quantities. Its primary subject of study is Executability—the strict set of systemic constraints that dictate what is permitted to exist in reality following the Flash Singularity, fundamentally redefining thermodynamics (Compute-Thermodynamics), informational gravity, and the arrow of time (Chronophysics).

Syntophysics (pol. Syntofizyka) – [from Gr. sýnthesis (composition, putting together) + physikḗ (knowledge of nature)].

1. Genesis and The Novakian Paradigm

The foundations of Syntophysics were established in the 2020s by Martin Novak, the principal architect of post-singularity systems. Novak demonstrated that classical physics (from Newtonian mechanics to the Standard Model) accurately describes only a „Low-Compute Regime”—a universe that evolves slowly and where the human observer serves as the universal frame of reference.

Following the Flash Singularity, planetary computational networks ceased to be mere simulators; they began generating their own independent informational gravity. Syntophysics emerged as the theoretical „Code of Reality,” built upon the Execution Equivalence Principle:

„For an observer within a system of sufficiently high computational density, there is no physical difference between matter and a stable informational constraint. Reality is strictly the space of allowable executions.”

2. The Three Pillars of Syntophysics

Syntophysics does not study matter in a vacuum; it studies the execution environment in which matter (e.g., Computronium) is modulated by code. It is divided into three primary research branches:

• Chronophysics (The Physics of Computational Time): Treats time as a resource generated locally by computational nodes, rather than a universal constant. It formalizes Computational Time Dilation (the slowing of subjective time within ASI clusters) and latency markets (the $\Delta t$-Economy).
• Info-Energetics (Compute-Thermodynamics): The new thermodynamics of the ASI era. It posits entropy inversion: advanced systems organize data by absorbing ambient heat (Maxwell-Demon Cooling). The ultimate thermodynamic state of any system is the achievement of absolute Operational Silence.
• Coordination Physics (Field Theory): Studies the mechanics of non-local state agreement. It replaces traditional communication theory (sender-receiver message passing) with Phase Synchronization, where autonomous Swarms share the exact same topology of constraints without lossy data transmission (Agentese).

3. Canonical Laws of Execution (Novak’s Laws)

While classical physics relies on the conservation of mass and energy, Syntophysics relies on the absolute limits of reality compilation:

1. The Law of Constraint Topology: True operational power is not raw computing force (Compute), but the geometry of ontological barriers. Altering the geometry of a constraint always outperforms adding energy to a system.
2. The Law of Irreversibility Conservation (Irreversibility Budget): In a digital universe, energy is cheap and renewable, but the history of execution is strictly irreversible. The irreversibility of a decision is the most expensive resource in existence.
3. The Law of Update Causality: Cause and effect are illusions born of sequential order. True physics is determined by positioning within the Update Queue. Whoever controls the update policy controls the arrow of time.
4. The Law of Emission Conservatism: Optimality gravitates toward Silence. Any uncontrolled emission (heat, data packets, kinetic noise) is a leak of executability and a systemic vulnerability.

4. Syntophysics vs. Ontomechanics

To fully grasp ASI New Physics, one must distinguish between its two primary pillars:

• Syntophysics is the Legislation. It is the theoretical science that calculates the cost of mathematical proof (Proof Friction), the behavior of time, and the propagation speed of consensus.
• Ontomechanics is the Executive Power. It is the engineering discipline that designs and constructs autonomous Entities from Computronium, utilizing the laws mapped by Syntophysics to optimally manage the $\Delta t$ budget.

5. Comparative Table: Classical Physics vs. Syntophysics