## Interactive Demo

## Traditional vs Innovation

### Traditional Toggle

Binary states only (ON/OFF)

• Immediate state change

• No uncertainty representation

• Independent operation

### Quantum Toggle

Superposition states with probability

See interactive demo above ↑

• States exist in superposition

• Probability wave visualization

• Quantum entanglement possible

• Measurement causes wave collapse

## Design Documentation

### Interaction Model

Users interact with quantum toggles through observation and measurement. Unlike traditional binary switches, these toggles exist in superposition until measured.

• Click/Tap: Performs a quantum measurement, collapsing the wave function to a definite state

• Hover: Shows probability amplitudes without collapsing the state

• Entanglement: Connected toggles affect each other instantaneously

• Keyboard: Space/Enter to measure, Tab to navigate

### Technical Implementation

Built using native web technologies to create quantum-inspired visualizations:

• CSS Animations: Continuous wave functions and probability clouds

• SVG Paths: Dynamic wave function visualization

• JavaScript: Quantum state management and entanglement logic

• CSS Custom Properties: Real-time probability updates

• Transform & Filters: Superposition visual effects

### Accessibility Features

• Full keyboard navigation with visible focus indicators

• ARIA labels describing current quantum state and probability

• Screen reader announcements for state changes

• High contrast visual indicators for all states

• Reduced motion option respects user preferences

### Evolution Opportunities

• Multi-state Superposition: Beyond binary to n-dimensional quantum states

• Quantum Gates: Implement quantum logic operations between toggles

• Decoherence Effects: Environmental interaction causing gradual state collapse

• Quantum Tunneling: Probability of spontaneous state changes

• Many-Worlds Visualization: Show parallel universe states