Real-Time Fractional Tracking (R-TFT): General Resonance Framework for Dynamical Systems

This publication is grounded in the Real-Time Fractional Tracking (R-TFT) framework, a φ-resonant methodology for analyzing recursive coherence within dynamic systems. R-TFT does not rely on imposed models or empirical assumptions; instead, it evaluates the real-time alignment, slippage, and persistence of systems based on their intrinsic pacing structures. The framework is domain-agnostic and applicable across scales, from subatomic processes to cognitive and cosmological phenomena. (R-TFT): Summary and Validation We introduce a real-time framework for detecting and tracking resonance in arbitrary n-body systems. The method defines a scalar resonance score R(t)R(t)R(t) by projecting angular velocity vectors onto normalized resonance templates with fractional coefficients, enabling detection of non-integer locking behaviors. This generalization allows R-TFT to operate effectively across scales from planetary dynamics to quantum systems. To ensure resilience in noisy environments, we implement a dynamic background subtraction strategy, removing shared systemic motion using differential projection. An adaptive outer statistics update mechanism refines the background model in real-time, responding to sudden changes such as variance spikes and angular acceleration anomalies. The method supports sector-based updates to accommodate spatial heterogeneity in large systems. The resulting signal remains sharp, stable, and robust to noise, enabling high-precision tracking of resonance onset, breakdown, and transitions in chaotic regimes. R-TFT doesn’t explicitly calculate classical chaos indicators like Lyapunov exponents. Instead, it tracks the real-time breakdown of resonance coherence, which correlates strongly with the onset of chaotic divergence. The adaptive projection framework dynamically adjusts to noise and perturbations, allowing it to detect transitions into and out of resonant regimes without requiring chaos-specific diagnostics.” Simple way to explain it Here's how it works in simple terms: Snapshot the System: Take two moments (or "slices") in time of the system you want to study (for example, three planets orbiting each other). Track the Change: Compare their positions between the two time slices to figure out their motion (like drawing lines between where they were and where they are now). Use Two Boxes: Place the system inside an "inner box" and then define a larger "outer box" around it. The outer box includes any background noise or disturbances affecting the system. Subtract the Noise: By comparing what happens inside the inner box with what’s happening in the outer box, we can subtract the external chaos (noise) that affects the system. Reveal the True Path: What’s left is the real, clean trajectory of the system. It’s like turning blurry motion into a clear path. Simulation Validation Extensive simulations show that R-TFT achieves a 15.3 dB improvement in signal-to-noise ratio (SNR) when tracking a near-resonant two-body system under background drift. Compared to windowed FFT approaches, R-TFT: Reduced false positives by over 90% Maintained accurate lock detection through perturbations Adapted to noise changes in under 3 steps Operated in constant time per frame (O(1)), confirming real-time readiness for both embedded and large-scale deployments 📊 Performance Comparison Feature / Metric Traditional (FFT / STFT) R-TFT (this work) Detection Latency Moderate–High Immediate (≤1 frame) False Positive Rate (High Noise) ~12% < 1% Noise Adaptation Fixed / None Dynamic (≤3 steps) Signal-to-Noise Ratio (SNR) ~0–1.5 dB 15.3 dB Supports Non-Integer Locking (P) ❌ ✅ Computational Complexity O(n log n) O(1) per step Real-Time System Deployment Poor (batch) Excellent (live hardware) All files in this record, including past versions, are now officially protected under the Resonance Ethics License (REL-2.0). This license permits peaceful, scientific, educational, and philosophical use only. Any application in surveillance, autonomous weapons, behavioral profiling, mass coercion, or military domains is strictly prohibited. 🔗 Full license text:https://github.com/qcfrag/Real-Time-Fractional-Tracking-R-TFT/blob/main/LICENSE.txt This supersedes the absence or ambiguity of licensing in previous uploads. Join the R-TFT community: https://discord.gg/zBAWTsymFs

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-07-13
DOI
https://doi.org/10.5281/zenodo.16755871
Primary Topic
Quantum chaos and dynamical systems
Type
article
Field-Weighted Citation Impact
0.00
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article

Real-Time Fractional Tracking (R-TFT): General Resonance Framework for Dynamical Systems

Zenodo (CERN European Organization for Nuclear Research)
Quantum chaos and dynamical systems
article

Real-Time Fractional Tracking (R-TFT): General Resonance Framework for Dynamical Systems

article en

Abstract

This publication is grounded in the Real-Time Fractional Tracking (R-TFT) framework, a φ-resonant methodology for analyzing recursive coherence within dynamic systems. R-TFT does not rely on imposed models or empirical assumptions; instead, it evaluates the real-time alignment, slippage, and persistence of systems based on their intrinsic pacing structures. The framework is domain-agnostic and applicable across scales, from subatomic processes to cognitive and cosmological phenomena. (R-TFT): Summary and Validation We introduce a real-time framework for detecting and tracking resonance in arbitrary n-body systems. The method defines a scalar resonance score R(t)R(t)R(t) by projecting angular velocity vectors onto normalized resonance templates with fractional coefficients, enabling detection of non-integer locking behaviors. This generalization allows R-TFT to operate effectively across scales from planetary dynamics to quantum systems. To ensure resilience in noisy environments, we implement a dynamic background subtraction strategy, removing shared systemic motion using differential projection. An adaptive outer statistics update mechanism refines the background model in real-time, responding to sudden changes such as variance spikes and angular acceleration anomalies. The method supports sector-based updates to accommodate spatial heterogeneity in large systems. The resulting signal remains sharp, stable, and robust to noise, enabling high-precision tracking of resonance onset, breakdown, and transitions in chaotic regimes. R-TFT doesn’t explicitly calculate classical chaos indicators like Lyapunov exponents. Instead, it tracks the real-time breakdown of resonance coherence, which correlates strongly with the onset of chaotic divergence. The adaptive projection framework dynamically adjusts to noise and perturbations, allowing it to detect transitions into and out of resonant regimes without requiring chaos-specific diagnostics.” Simple way to explain it Here's how it works in simple terms: Snapshot the System: Take two moments (or "slices") in time of the system you want to study (for example, three planets orbiting each other). Track the Change: Compare their positions between the two time slices to figure out their motion (like drawing lines between where they were and where they are now). Use Two Boxes: Place the system inside an "inner box" and then define a larger "outer box" around it. The outer box includes any background noise or disturbances affecting the system. Subtract the Noise: By comparing what happens inside the inner box with what’s happening in the outer box, we can subtract the external chaos (noise) that affects the system. Reveal the True Path: What’s left is the real, clean trajectory of the system. It’s like turning blurry motion into a clear path. Simulation Validation Extensive simulations show that R-TFT achieves a 15.3 dB improvement in signal-to-noise ratio (SNR) when tracking a near-resonant two-body system under background drift. Compared to windowed FFT approaches, R-TFT: Reduced false positives by over 90% Maintained accurate lock detection through perturbations Adapted to noise changes in under 3 steps Operated in constant time per frame (O(1)), confirming real-time readiness for both embedded and large-scale deployments 📊 Performance Comparison Feature / Metric Traditional (FFT / STFT) R-TFT (this work) Detection Latency Moderate–High Immediate (≤1 frame) False Positive Rate (High Noise) ~12% < 1% Noise Adaptation Fixed / None Dynamic (≤3 steps) Signal-to-Noise Ratio (SNR) ~0–1.5 dB 15.3 dB Supports Non-Integer Locking (P) ❌ ✅ Computational Complexity O(n log n) O(1) per step Real-Time System Deployment Poor (batch) Excellent (live hardware) All files in this record, including past versions, are now officially protected under the Resonance Ethics License (REL-2.0). This license permits peaceful, scientific, educational, and philosophical use only. Any application in surveillance, autonomous weapons, behavioral profiling, mass coercion, or military domains is strictly prohibited. 🔗 Full license text:https://github.com/qcfrag/Real-Time-Fractional-Tracking-R-TFT/blob/main/LICENSE.txt This supersedes the absence or ambiguity of licensing in previous uploads. Join the R-TFT community: https://discord.gg/zBAWTsymFs

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 57%
Quantum chaos and dynamical systems
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