SYSTEM: ONLINE BETA
Y
YUSUF AKÇAKAYA
FUSUY.DIGITAL.LAB
DIRECTORY / SANDBOXES / DOUBLE-PENDULUM.CHAOS

DOUBLE PENDULUM CHAOS DYNAMICS

Extreme sensitivity to initial conditions simulated via 4th-order Runge-Kutta numerical integration.

DOUBLE PENDULUM CHAOS DYNAMICS
60 FPS
// 4-REGIME PLUS LABORATORY RK4
GRAVITY ACCELERATION (g) 9.8 m/sΒ²
SIMULATION SPEED (TIME SCALE) 1.00x
DAMPING (FRICTION) 0.0002
TRAIL PERSISTENCE LONG
TOTAL MECHANICAL ENERGY: 0.00 J
DIVERGENCE RATE (Ξ»): 0.00 ENERGY DRIFT: Β±0.01%
πŸ“š

RESEARCH & LEARNING VAULT // Lagrangian Double Pendulum & Chaos Theory

Lagrange's equations of motion, Runge-Kutta 4th Order sub-stepping, and the butterfly effect.

ACADEMIC & ALGORITHMIC REFERENCE
// HISTORICAL ORIGINS

A quintessential model in nonlinear dynamics and deterministic chaos, demonstrating extreme sensitivity to initial conditions (Lyapunov exponent).

// GOVERNING EQUATIONS
ddt(βˆ‚Lβˆ‚ΞΈΛ™i)βˆ’βˆ‚Lβˆ‚ΞΈi=0\frac{d}{dt}\left(\frac{\partial L}{\partial \dot{\theta}_i}\right) - \frac{\partial L}{\partial \theta_i} = 0
// BROWSER IMPLEMENTATION

Solves coupled nonlinear second-order differential equations via 4th-Order Runge-Kutta (RK4) integration with 10 sub-steps per frame.

// GUIDED EXPERIMENTS TO TRY IN THIS SANDBOXNORMAL
1100-Swarm Lyapunov Divergence Ribbon

🎯 Action:Switch to 100-LYAPUNOV regime and observe the ethereal glowing ribbon.

✨ Observe:100 coupled pendulums differing by only 0.00002 radians stretch exponentially into an organic phase-space ribbon.

2Real-Time Phase Space PoincarΓ© Portrait

🎯 Action:Observe the bottom-right phase canvas plotting (θ₁, ω₁) in cyan and (ΞΈβ‚‚, Ο‰β‚‚) in pink.

✨ Observe:Complex toroidal attractors and stroboscopic trajectory loops reveal deterministic chaos geometry.

3Fractal Flip-Time Basin Explorer

🎯 Action:Open the FRACTAL BASIN regime and click any coordinate on the 80x80 initial condition map.

✨ Observe:The pendulum launches instantly into the corresponding phase trajectory with matching flip time.

// CURATED PAPERS, RFCS & RESOURCES