Resonance Field Global Coherence Visualization Diagram
🌐 Resonance Field Global Coherence Visualization Diagram
This is a graphical interface used to represent the internal resonance synchronization state of an entire system.
🔄 Metaphor
Imagine a group of people dancing:
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If everyone is moving in perfect harmony, the system is in resonance coherence.
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If someone is off-beat or out of sync, the system shows desynchronization.
📡 Resonance Field
Think of it like a water surface:
Each point oscillates on its own, but when all ripples align and move together, the surface becomes a coherent resonance field.
🌍 Global Coherence
When all oscillations across the system move with the same direction and frequency, we achieve global coherence — like a calm surface rising and falling uniformly.
🔧 Core Features
This interactive visualization includes:
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Unit Circle (Left Side):
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Centered at
(𝑥 = 200, 𝑦 = 250), with a fixed radius. -
A white marker rotates around the circle representing current angle 𝜃 (theta).
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Green vertical projection for
sin(𝜃), orange horizontal projection forcos(𝜃).
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Sine and Cosine Waves (Right Side):
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Plots of
sin(𝜃)andcos(𝜃)over𝜃 ∈ [0, 2π]. -
🟢
sin(𝜃)in green (#CCFF00), 🟠cos(𝜃)in orange (#FF9966). -
Dynamic trail effects show recent waveform behavior.
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Coherence Index 𝐶ₙ(𝜃) (Bottom):
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Calculated by the formula:
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Result ∈ [0, 1].
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Displayed as 🔵 blue curve (#00CCFF), turns 🟢 green (#00FF00) when
Cₙ(𝜃) ≥ 0.7.
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Threshold Control:
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🔴 Red dashed line marks the 0.7 threshold.
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If
Cₙ(𝜃) ≥ 0.7, system status = ✅ "Sufficient". -
If
Cₙ(𝜃) < 0.7, system triggers a feedback loop to increment harmonic numbern(up to 10) and recheck.
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🕹 Interactive Controls
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Play/Pause Button: Animate 𝜃 from 0 to 2π (increments of 0.01 rad).
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𝜃 Slider: Manual control of 𝜃, disables auto-animation.
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Harmonic Slider (n): Adjust
n ∈ [1, 10], affects 𝐶ₙ(𝜃). -
Live Readout Panel:
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Displays values of:
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𝜃,sin(𝜃),cos(𝜃),𝐶ₙ(𝜃) -
Status:
"Sufficient"(green) or"Insufficient"(red)
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📈 Visual Axes
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X-Axis: 0 to 2π, labeled at intervals of π/2.
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Y-Axis:
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For sin/cos: from −1.2 to 1.2, grid every 0.5.
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For 𝐶ₙ(𝜃): from 0 to 1.
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🧠 Purpose
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Educate: Show relationship between angular motion, trigonometric functions, and harmonic coherence.
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Simulate: Model how a system seeks structural harmony by adjusting harmonics.
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Analyze: Let users explore how changing
𝜃andnalters global synchronization.
⚙️ Technical Details
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Technologies:
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React 18.3.1 (interactivity)
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D3.js 7.9.0 (SVG drawing)
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Tailwind CSS 2.2.19 (styling)
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Babel 7.26.9 (JSX parsing)
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Robustness:
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ErrorBoundary wraps the app to catch runtime issues.
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Console logs debug feedback and coherence corrections.
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Accessibility:
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English-only text.
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Clearly labeled axes and buttons.
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📘 Mathematical Notes
The coherence index formula is:
🎯 Meaning:
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Converts harmonic phase summation into a normalized scalar between 0 and 1.
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Captures resonance structure of multiple harmonics.
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Intuitively: Measures how “aligned” the wave components are.
🧩 Potential Applications:
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Signal Processing: Nonlinear harmonic combination.
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Statistics: Angular density estimation.
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Physics: Wave-field synchronization.
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AI/ML: Structural resonance criteria for model inference or gating.
📎 GitHub Link:
Global Coherence Resonance Visualization (HTML)
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