I'll build the QOTE Attractor Lab - a sophisticated scientific visualization app. Let me first check the existing codebase structure, then create this comprehensive app.

Now let me read the existing UI components I'll leverage:

Now I have a good understanding of the codebase. Let me build the QOTE Attractor Lab. I'll start by updating the globals.css with the dark theme, then create all the components.

Now let me update the layout.tsx with proper metadata and then create all the components:

Now let me create the types and simulation logic:

Now let me create the components:

Now let me create the main page that brings everything together:

Now let me check if there's a label component we need:

The Label component exists. Let me also check the tailwind config for any issues:

The tailwind config may not exist as a file but be handled by Next.js automatically with the @theme directive in globals.css. The QOTE app is complete. Let me verify there are no issues by checking the progress component:

The application is complete. I've built the QOTE Attractor Lab - a sophisticated scientific visualization app featuring:

1. Header with real-time status badge - Shows UNSTABLE (red), ACCUMULATING (amber), or EMIT (green) based on system state

2. Interactive attractor canvas - Renders three coupled dynamical lobes (Physics/blue, Biology/amber, Truth/green) with:

   • Smooth animated trajectories using Lorenz/Rössler-inspired dynamics
   • Glowing trails and particles
   • Click-to-select lobe highlighting
   • Central coupling basin visualization

3. Control panel with:

   • Parameter sliders (coupling, noise, damping, thresholds)
   • 6 presets (Quiet Field, Near Threshold, Chaotic Drift, Soliton Lock, Biological Burst, Coupled Convergence)
   • Pause/Resume, Reset, Perturb, and Force Emit buttons
   • Display toggles for trails, labels, coupling lines, particles, and grid
4. τ accumulation progress bar - Shows time-to-emit with state-appropriate coloring and descriptive microcopy
5. Diagnostic cards for Physics, Biology, and Truth showing live metrics (field energy, coherence, drift, etc.)
6. Equation card displaying the governing model and state transition rules
7. Audit log recording all state transitions with timestamps, metrics, and reasons
8. Educational footer with the canonical line: "We do not emit because we can. We emit when the pattern can survive."