SEFRESYMBOLIC SPACETIME DYNAMICS
Symbolic Spacetime Computation

From symbolic systems to computable dynamics.

SEFRE compiles traditional discrete spacetime symbols into coupled oscillators on a differential manifold, integrates with high-order ODE solvers, and outputs computable physical quantities.

Not prediction. Computation. Every number comes from the equations of motion.
100% DETERMINISTIC* ZERO LLM HALLUCINATION REAL EPHEMERIS MS RESPONSE
sefre-engine · sampleSAMPLE
Predictability
60 yrs
Tλ = 1/λ₁
Dissipation
43
diS ≥ 0
Critical
✓
0 singularities
Verified sample output — run live in the Playground ↓

What Is SEFRE, and Is It Science?

Engineered mathematics, not superstition.

Definition

A continuous-time physics engine

SEFRE compiles symbolic systems — the discrete structures of traditional spacetime philosophy — into coupled oscillators on a manifold, integrates with high-order ODE solvers, and outputs computable physical quantities: predictability horizons, energy dissipation, critical transitions.

Is it science? Six peer-reviewed foundations: deterministic chaos (Lorenz 1963), dissipative structures (Prigogine, Nobel 1977), critical slowing down (Scheffer, Nature 2009), network flow theory, bipolar quantum linear algebra (Zhang, FUZZ-IEEE 2016), observer theory (Wolfram 2023).

White-box pipeline

No hidden steps

01

Ephemeris

Solar longitude, orbital perturbation, true solar time

02

BQLA Lifting

Discrete symbols → continuous manifold

03

ODE Integration

DOPRI5 high-order Runge-Kutta

04

Network Flow

Max-flow, bottlenecks, friction

Deterministic core: same version, config, and input → same values. Using differential equations does not by itself validate classical metaphysics as physics.

Theoretical foundations

01

Dissipative Structures

Open systems far from equilibrium dissipate energy and self-organize. SEFRE's friction terms implement Prigogine directly. (Nobel 1977)

02

Deterministic Chaos

Sensitive dependence on initial conditions bounds predictability. The Lyapunov horizon is computed, not asserted. (Lorenz 1963)

03

Critical Slowing Down

Near a tipping point, recovery from perturbations slows measurably. (Scheffer et al., Nature 2009)

Three more pillars

04 — Bipolar Quantum Linear Algebra. Extends Boolean logic to bipolar truth values. (Zhang, FUZZ-IEEE 2016)

05 — Observer Theory. No shortcut — the only way to know the future is to run the dynamics. (Wolfram 2023)

06 — Network Flow Theory. Energy as flow on weighted graphs; bottlenecks mark vulnerabilities. (Max-Flow Min-Cut)

Playground: Run the Real Engine

Production endpoint — not a demo. Free trial: 5 calls/hour per IP.

sefre console · /api/v1/calculateIDLE
Q1 Input & Presets
Q2 Core Metrics

Press Run to see live metrics.

Q3 Divergence Curve
Q4 Interpretation Log
# awaiting computation…

What You Can Build

Four production directions. Each links to the live Playground.

Agentic AI

Intrinsic state machines for LLMs

Give agents a time-evolving character tensor and decision damping — computed from spacetime dynamics, not prompt engineering. Try it →

Wellness & Archetypes

Next-gen symbolic health tools

Beyond static verdicts: energy flow maps and least-resistance paths, computed per moment. Try it →

Teams & Organizations

Multi-body coupling metrics

Input multiple subjects' boundary conditions; quantify team energy friction and collaboration stability. Try it →

Timing

Decision windows

Compute when a system's trajectory stays predictable vs. when sensitive dependence takes over. Try it →

Why an Engine, Not a Prompt?

Three approaches to the same question. Only one is computable infrastructure.

LLM PromptStatic TablesSEFRE Engine
Core mechanismToken probability sampling — fluent but hallucinatesMechanical matching of static classical verdictsContinuous-time ODE integration — dissipation explicitly modeled
ReproducibilityOutput varies run to runFrozen discrete tablesDeterministic core — same version, config, input → same values
Time dynamicsNo notion of continuous evolutionFixed period lookupsFull trajectory integration with Lyapunov horizons
AuditabilityBlack box weightsOpaque traditionDerivation audit trail in every response

That's why developers call an API instead of writing a prompt.

API Reference

Three lines to integrate. Real endpoint, real response.

curl -X POST https://sefre.org/api/v1/physics/analyze \
  -H "Content-Type: application/json" \
  -H "X-API-Key: YOUR_KEY" \
  -d '{"observer":{"time":"1990-06-15T12:00:00+08:00",
        "longitude":116.4,"latitude":39.9}}'
RESPONSE — 200 OK
{
  "lyapunov_horizon": {       // predictability window
    "value": 60, "unit": "years"
  },
  "dissipation_rate": 42.6,   // internal friction, Prigogine diS
  "singularities": [],        // tipping points found
  "energy_distribution": {    // five-channel split
    "wood": 7.7, "fire": 36.3, "earth": 6.0,
    "metal": 4.8, "water": 8.1
  },
  "engine_version": "v6.3.0-GrandUnifiedHolographic",
  "compute_ms": 261
}
// 40+ quantities · derivation audit trail · deterministic

Pricing

Start free. Scale when you need to.

Developer
$0/mo
  • 1,000 calls / month
  • Trial playground access
  • Community support
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Enterprise
Custom
  • Private deployment
  • Source license
  • SLA & dedicated support
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