Takes AdvancedLIGO-Datasets & JWST-Datasets, plus both an in-house Quantum Gravity (QG) Model and an in-house Theory of Everything (ToE), and produces a Volumetric Spacetime-Animation/Visualization/Render over Omega Number-Approximations of ECC-Validated Quantum Events.
Packaged with an in-house Quantum Gravity Turing-Computing & Communication Observation/Storage/Learning/Operational Engine:
- A direct implementation of the Quantum Gravity Engine with "Diffeomorphic Quantum Gravity" & "Theory of Everything is Now" as its default Quantum Gravity Theory of Everything.
We're trying to unite the Theory of Relativity with as many Quantum Gravity models as possible in a ** neat packaging** which is visually impressive.
ATOM: A structured{ Core: REAL[], Interval: (REAL, REAL)[], Base: TENSOR[], OP: Operator }, for arbitrary SYMBOLIC tensors and operators.NODE: A TST node containing strictly ordered PRE/PERI/POST leaves and a relativeORIGO(Quaternionic-Minkowski spacetime-interval delta) to its parent.LEAF: Contains a kd-mappedBBSTofATOMsinterpreted as:- PRE: ATOMIC-CONSTRAINTS → BBST of ATOMs applied to
ORIGO-Intervalto yield a 3D-OBJECT, - PERI: ATOMIC-VALUES → BBST of ATOMs enrich 3D-OBJECT into VOLUMETRIC-OBJECT,
- POST: ATOMIC-FREEDOMS → BBST of ATOMs add temporal structure to produce ANIMATED-OBJECT.
- PRE: ATOMIC-CONSTRAINTS → BBST of ATOMs applied to
See AGENTS.md for more implementation-specific information.
Contains the following:
/data/: Place your AdvancedLIGO & JWST Datasets here./follow/: Use the included Follow™-Frameworks which is a direct implementation of the Quantum Gravity Engine with the default QG Model and the default ToE Theory./output/: The Output-files are located in this directory./src/: The Quantum Gravity Engine Source-code is located in this directory./target/: .git-ignore folder (Rust-Specific Target/Debug/Binaries-directory)
Each Atom is at least a Quaternionic-Minkowski Spacetime-Interval. These Quaternions are equivalent to a Lorentz-Boosted Spacetime-Interval.
Using a Ternary Search Tree (TST), together with Minkowski Spacetime Origo-deltas per edge; with strict ordering of Pre-/Peri-/Post-leaves containing kd-mapped Balanced Binary Search Trees (BBST) of Atoms, the following process is applied:
- Pre-Node Constraints:
- The Pre-Node's BBST contents are processed as Constraints into a new Lorentzian Frame.
- The result is a kd-mapped BBST with Lorentz-Boosted edges from the Node's Origo
- Peri-Node Values:
- The Peri-Node's BBST contents are processed as Spatial Values; each Lorentzian Frame is given a Topological Structure.
- The result is the former BBST-result now with additional Geometric Data.
- Post-Node Freedoms:
- The Post-Node's BBST contents are prcessed as Temporal Values; each now-geometric excitations is given a Warmup-/Cooldown-Period, resulting in Animated Volumetric Renders.
- The result is the former BBST-result, now functioning as a Temporally Animated Relativistic Geometry.
The universe is a computable, self-correcting fractal rendered from ECC‑validated quantum events, where spacetime coordinates are generated by online approximations of quantum‑gravitational Ω‑numbers; universal “time” is a control geometry synthesized by a PID‑like law over update/error functionals, and the visualizable world is the volumetric accumulation of these events.
Using Error-Correcting Code-Based Quantum Events, wherein each Minkowski Spacetime-position is the result of Approximation of Quantum Gravitational Omega Numbers, the Temporal Values of which are asserted functioning like an elaborate PID-Loop, results in a Omega Program of which computes a "Timeless" Lorentzian Frame-Substitute (Temporal Values approximating a Temporal Geometric Structure), the Spatial Variables of which is our Volumetric Spacetime-Render.
- Omega numbers in physics (operationalized)
- Let Ω_G be a Quantum‑Gravitational Chaitin‑Omega: the halting probability over a universal prefix quantum‑gravitational machine U_G with a domain restricted by physical computability (finite memory/time, energy). We never know Ω_G, but we can compute prefix approximations Ω_G(n) ↑ (n=1,2,… ) as lower semicomputable reals (monotone increasing sequences).
- Each approximation step induces a delta δn = Ω_G(n) ⊖ Ω_G(n−1) (u8-quantized), which seeds quantum events.
- ECC‑based quantum events
- Each δn is encoded into codewords c_n of a fixed error‑correcting code C (e.g., a linear block code).
- Readouts from the “vacuum” (measurement attempts) return noisy symbols ~c_n.
Physical acceptance happens iff decoding succeeds:
Decode(~c_n) → c_n (within t errors); - Accepted events are computationally valid; rejected ones are discarded as gauge/noise. This makes quantum events computable (ECC-valid) while tolerating stochasticity.
- Spacetime as a computable fractal measure:
- Map each accepted c_n to u8 intervals for (t,x,y,z) and define:
- Temporal control variable T_n := Update_n / Error_n (PID-like; both are u8‑interval functionals),
- Spatial write: a splat into a voxel grid (u8 intervals) with multiresolution refinement (octree).
- The sequence of accepted writes W_n forms an iterated function system (IFS) with interval‑valued contractions; over time this yields a fractal‑like measure on the 3+1 grid.
- Map each accepted c_n to u8 intervals for (t,x,y,z) and define:
Supported file-extensions:
.png(Images)..json(JSON-Object format)..qge(Quantum Gravity Engine).- Follow™-Frameworks file-extensions:
.fwp(Follow™-Project): Contains Follow™-Project Specifications..fwh(Follow™-Header): Contains Follow™-Module Specifications..fwb(Follow™-Body): Contains Follow™-Object Specifications..fws(Follow™-Source): Contains Follow™-Source Code.
Copyright © 2026: Axel Selmer-Anderssen. Licence: GNU A-GPL v3.0-or-later (No-Sale Licence).