AyeOS: Wave-Based Operating System
A revolutionary OS where memory, processes, and files exist as wave patterns
Wave Process Visualization
Watch how processes interact through wave interference in AyeOS
Reimagining the Operating System
Wave Kernel Architecture
struct WaveKernel {
system_wave: WaveField, // Global system state
process_waves: Grid, // Running processes
memory_field: MemoryWaveField, // System memory
context_engine: ContextualAI, // AI-driven context
} Core Components
Wave Processes
Each process is a unique wave pattern with:
- Amplitude = Priority/Importance
- Frequency = CPU time quantum
- Phase = Scheduling position
- Interference = IPC mechanism
Wave Memory
Memory as a continuous field where:
- Allocation = Constructive interference
- Access = Wave sampling
- Deallocation = Destructive interference
- Sharing = Wave superposition
Wave File System (WaveFS)
Files as Standing Waves
In AyeOS, files don't exist as discrete blocks but as persistent wave patterns:
Unique frequency pattern identifies each file
Data encoded as modulated waves
Interference patterns show usage
Process Scheduling Through Interference
# Traditional OS
while true:
process = scheduler.get_next()
process.run(time_slice)
# AyeOS
wave_field.propagate() # All processes evolve simultaneously
high_amplitude = wave_field.find_peaks() # Natural priority emerges
execute(high_amplitude) # Run high-energy processesmem8 Integration
Unified Memory Model
AyeOS uses mem8's wave-based memory as its core memory management system. Every memory access creates ripples that affect system behavior.
Contextual Computing
The OS learns from usage patterns, with memories of past computations influencing future scheduling and resource allocation.
Emotional System State
System health is tracked emotionally - a stressed system shows high arousal patterns, while a healthy system maintains calm wave states.
Revolutionary Features
Natural Load Balancing
Wave diffusion automatically distributes computational load:
- • High-energy regions naturally spread to low-energy areas
- • No explicit load balancer needed
- • Self-organizing optimization
Quantum-Native Design
Wave paradigm maps directly to quantum computing:
- • Superposition = Multiple states simultaneously
- • Entanglement = Process correlation
- • Collapse = Decision making
System Commands
wave ps # Show process waveswave interfere pid1 pid2 # Create IPC channelwave amplify myapp # Increase prioritywave resonate file.wav # Access file by frequencywave emotion # Check system emotional stateUse Cases
AI Workstations
Natural environment for AI agents with wave-based cognition
Creative Computing
Music and art generation through wave synthesis
Scientific Simulation
Physics simulations run natively in wave space