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wifi-densepose/vendor/ruvector/tests/wasm-integration/exotic_tests.rs

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Rust

//! Integration tests for ruvector-exotic-wasm
//!
//! Tests for exotic AI mechanisms enabling emergent behavior:
//! - NAOs (Neural Autonomous Organizations)
//! - Morphogenetic Networks
//! - Time Crystals for periodic behavior
//! - Other experimental mechanisms
#[cfg(test)]
mod tests {
use wasm_bindgen_test::*;
use super::super::common::*;
wasm_bindgen_test_configure!(run_in_browser);
// ========================================================================
// NAO (Neural Autonomous Organization) Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_nao_creation() {
// Test creating a Neural Autonomous Organization
// TODO: When NAO is implemented:
// let config = NAOConfig {
// name: "TestDAO",
// governance_model: GovernanceModel::Quadratic,
// initial_members: 5,
// };
//
// let nao = NAO::new(config);
//
// assert_eq!(nao.name(), "TestDAO");
// assert_eq!(nao.member_count(), 5);
assert!(true);
}
#[wasm_bindgen_test]
fn test_nao_proposal_voting() {
// Test proposal creation and voting
// TODO: Test voting
// let mut nao = NAO::new(default_config());
//
// // Create proposal
// let proposal_id = nao.create_proposal(Proposal {
// title: "Increase compute allocation",
// action: Action::SetParameter("compute_budget", 1000),
// quorum: 0.5,
// threshold: 0.6,
// });
//
// // Members vote
// nao.vote(proposal_id, "member_1", Vote::Yes);
// nao.vote(proposal_id, "member_2", Vote::Yes);
// nao.vote(proposal_id, "member_3", Vote::Yes);
// nao.vote(proposal_id, "member_4", Vote::No);
// nao.vote(proposal_id, "member_5", Vote::Abstain);
//
// // Execute if passed
// let result = nao.finalize_proposal(proposal_id);
// assert!(result.is_ok());
// assert!(result.unwrap().passed);
assert!(true);
}
#[wasm_bindgen_test]
fn test_nao_neural_consensus() {
// Test neural network-based consensus mechanism
// TODO: Test neural consensus
// let mut nao = NAO::new_neural(NeuralConfig {
// consensus_network_dim: 64,
// learning_rate: 0.01,
// });
//
// // Proposal represented as vector
// let proposal_embedding = random_vector(64);
//
// // Members submit preference embeddings
// let preferences: Vec<Vec<f32>> = nao.members()
// .map(|_| random_vector(64))
// .collect();
//
// // Neural network computes consensus
// let consensus = nao.compute_neural_consensus(&proposal_embedding, &preferences);
//
// assert!(consensus.decision.is_some());
// assert!(consensus.confidence > 0.0);
assert!(true);
}
#[wasm_bindgen_test]
fn test_nao_delegation() {
// Test vote delegation (liquid democracy)
// TODO: Test delegation
// let mut nao = NAO::new(default_config());
//
// // Member 1 delegates to member 2
// nao.delegate("member_1", "member_2");
//
// // Member 2's vote now has weight 2
// let proposal_id = nao.create_proposal(simple_proposal());
// nao.vote(proposal_id, "member_2", Vote::Yes);
//
// let vote_count = nao.get_vote_count(proposal_id, Vote::Yes);
// assert_eq!(vote_count, 2.0); // member_2's own vote + delegated vote
assert!(true);
}
#[wasm_bindgen_test]
fn test_nao_treasury_management() {
// Test treasury operations
// TODO: Test treasury
// let mut nao = NAO::new(default_config());
//
// // Deposit to treasury
// nao.deposit_to_treasury("COMPUTE", 1000);
// assert_eq!(nao.treasury_balance("COMPUTE"), 1000);
//
// // Create spending proposal
// let proposal_id = nao.create_proposal(Proposal {
// action: Action::Transfer("recipient", "COMPUTE", 100),
// ..default_proposal()
// });
//
// // Vote and execute
// for member in nao.members() {
// nao.vote(proposal_id, member, Vote::Yes);
// }
// nao.finalize_proposal(proposal_id);
//
// assert_eq!(nao.treasury_balance("COMPUTE"), 900);
assert!(true);
}
// ========================================================================
// Morphogenetic Network Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_morphogenetic_field_creation() {
// Test creating a morphogenetic field
// TODO: Test morphogenetic field
// let config = MorphogeneticConfig {
// grid_size: (10, 10),
// num_morphogens: 3,
// diffusion_rate: 0.1,
// decay_rate: 0.01,
// };
//
// let field = MorphogeneticField::new(config);
//
// assert_eq!(field.grid_size(), (10, 10));
// assert_eq!(field.num_morphogens(), 3);
assert!(true);
}
#[wasm_bindgen_test]
fn test_morphogen_diffusion() {
// Test morphogen diffusion dynamics
// TODO: Test diffusion
// let mut field = MorphogeneticField::new(default_config());
//
// // Set initial concentration at center
// field.set_concentration(5, 5, 0, 1.0);
//
// // Run diffusion
// for _ in 0..10 {
// field.step();
// }
//
// // Concentration should spread
// let center = field.get_concentration(5, 5, 0);
// let neighbor = field.get_concentration(5, 6, 0);
//
// assert!(center < 1.0, "Center should diffuse away");
// assert!(neighbor > 0.0, "Neighbors should receive diffused morphogen");
assert!(true);
}
#[wasm_bindgen_test]
fn test_morphogenetic_pattern_formation() {
// Test Turing pattern formation
// TODO: Test pattern formation
// let config = MorphogeneticConfig {
// grid_size: (50, 50),
// num_morphogens: 2, // Activator and inhibitor
// ..turing_pattern_config()
// };
//
// let mut field = MorphogeneticField::new(config);
//
// // Add small random perturbation
// field.add_noise(0.01);
//
// // Run until pattern forms
// for _ in 0..1000 {
// field.step();
// }
//
// // Pattern should have formed (non-uniform distribution)
// let variance = field.concentration_variance(0);
// assert!(variance > 0.01, "Pattern should have formed");
assert!(true);
}
#[wasm_bindgen_test]
fn test_morphogenetic_network_growth() {
// Test network structure emergence from morphogenetic field
// TODO: Test network growth
// let mut field = MorphogeneticField::new(default_config());
// let mut network = MorphogeneticNetwork::new(&field);
//
// // Run growth process
// for _ in 0..100 {
// field.step();
// network.grow(&field);
// }
//
// // Network should have grown
// assert!(network.node_count() > 0);
// assert!(network.edge_count() > 0);
//
// // Network structure should reflect morphogen distribution
// let high_concentration_regions = field.find_peaks(0);
// for peak in &high_concentration_regions {
// // Should have more connections near peaks
// let local_connectivity = network.local_degree(peak.x, peak.y);
// assert!(local_connectivity > 1.0);
// }
assert!(true);
}
#[wasm_bindgen_test]
fn test_morphogenetic_agent_differentiation() {
// Test agent differentiation based on local field
// TODO: Test differentiation
// let field = MorphogeneticField::new(gradient_config());
//
// // Create agent at different positions
// let agent_a = Agent::new((2, 2));
// let agent_b = Agent::new((8, 8));
//
// // Agents differentiate based on local morphogen concentrations
// agent_a.differentiate(&field);
// agent_b.differentiate(&field);
//
// // Agents should have different properties based on position
// assert_ne!(agent_a.cell_type(), agent_b.cell_type());
assert!(true);
}
// ========================================================================
// Time Crystal Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_time_crystal_creation() {
// Test creating a time crystal oscillator
// TODO: Test time crystal
// let crystal = TimeCrystal::new(TimeCrystalConfig {
// period: 10,
// num_states: 4,
// coupling_strength: 0.5,
// });
//
// assert_eq!(crystal.period(), 10);
// assert_eq!(crystal.num_states(), 4);
assert!(true);
}
#[wasm_bindgen_test]
fn test_time_crystal_oscillation() {
// Test periodic behavior
// TODO: Test oscillation
// let mut crystal = TimeCrystal::new(default_config());
//
// // Record states over two periods
// let period = crystal.period();
// let mut states: Vec<u32> = Vec::new();
//
// for _ in 0..(period * 2) {
// states.push(crystal.current_state());
// crystal.step();
// }
//
// // Should repeat after one period
// for i in 0..period {
// assert_eq!(states[i], states[i + period],
// "State should repeat after one period");
// }
assert!(true);
}
#[wasm_bindgen_test]
fn test_time_crystal_stability() {
// Test that oscillation is stable against perturbation
// TODO: Test stability
// let mut crystal = TimeCrystal::new(stable_config());
//
// // Run for a while to establish rhythm
// for _ in 0..100 {
// crystal.step();
// }
//
// // Perturb the system
// crystal.perturb(0.1);
//
// // Should recover periodic behavior
// let period = crystal.period();
// for _ in 0..50 {
// crystal.step();
// }
//
// // Check periodicity is restored
// let state_t = crystal.current_state();
// for _ in 0..period {
// crystal.step();
// }
// let state_t_plus_period = crystal.current_state();
//
// assert_eq!(state_t, state_t_plus_period, "Should recover periodic behavior");
assert!(true);
}
#[wasm_bindgen_test]
fn test_time_crystal_synchronization() {
// Test synchronization of coupled time crystals
// TODO: Test synchronization
// let mut crystal_a = TimeCrystal::new(default_config());
// let mut crystal_b = TimeCrystal::new(default_config());
//
// // Start with different phases
// crystal_a.set_phase(0.0);
// crystal_b.set_phase(0.5);
//
// // Couple them
// let coupling = 0.1;
//
// for _ in 0..1000 {
// crystal_a.step_coupled(&crystal_b, coupling);
// crystal_b.step_coupled(&crystal_a, coupling);
// }
//
// // Should synchronize
// let phase_diff = (crystal_a.phase() - crystal_b.phase()).abs();
// assert!(phase_diff < 0.1 || phase_diff > 0.9, "Should synchronize");
assert!(true);
}
#[wasm_bindgen_test]
fn test_time_crystal_network_coordinator() {
// Test using time crystals to coordinate agent network
// TODO: Test coordination
// let network_size = 10;
// let mut agents: Vec<Agent> = (0..network_size)
// .map(|i| Agent::new(i))
// .collect();
//
// // Each agent has a time crystal for coordination
// let crystals: Vec<TimeCrystal> = agents.iter()
// .map(|_| TimeCrystal::new(default_config()))
// .collect();
//
// // Couple agents in a ring topology
// let coordinator = TimeCrystalCoordinator::ring(crystals);
//
// // Run coordination
// for _ in 0..500 {
// coordinator.step();
// }
//
// // All agents should be in sync
// let phases: Vec<f32> = coordinator.crystals()
// .map(|c| c.phase())
// .collect();
//
// let max_phase_diff = phases.windows(2)
// .map(|w| (w[0] - w[1]).abs())
// .fold(0.0f32, f32::max);
//
// assert!(max_phase_diff < 0.2, "Network should synchronize");
assert!(true);
}
// ========================================================================
// Emergent Behavior Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_swarm_intelligence_emergence() {
// Test emergence of swarm intelligence from simple rules
// TODO: Test swarm emergence
// let config = SwarmConfig {
// num_agents: 100,
// separation_weight: 1.0,
// alignment_weight: 1.0,
// cohesion_weight: 1.0,
// };
//
// let mut swarm = Swarm::new(config);
//
// // Run simulation
// for _ in 0..200 {
// swarm.step();
// }
//
// // Should exhibit flocking behavior
// let avg_alignment = swarm.compute_average_alignment();
// assert!(avg_alignment > 0.5, "Swarm should align");
//
// let cluster_count = swarm.count_clusters(5.0);
// assert!(cluster_count < 5, "Swarm should cluster");
assert!(true);
}
#[wasm_bindgen_test]
fn test_self_organization() {
// Test self-organization without central control
// TODO: Test self-organization
// let mut system = SelfOrganizingSystem::new(50);
//
// // No central controller, just local interactions
// for _ in 0..1000 {
// system.step_local_interactions();
// }
//
// // Should have formed structure
// let order_parameter = system.compute_order();
// assert!(order_parameter > 0.3, "System should self-organize");
//
// // Structure should be stable
// let order_before = system.compute_order();
// for _ in 0..100 {
// system.step_local_interactions();
// }
// let order_after = system.compute_order();
//
// assert!((order_before - order_after).abs() < 0.1,
// "Structure should be stable");
assert!(true);
}
#[wasm_bindgen_test]
fn test_collective_computation() {
// Test collective computation capabilities
// TODO: Test collective computation
// let collective = CollectiveComputer::new(20);
//
// // Collective should be able to solve optimization
// let problem = OptimizationProblem {
// objective: |x| x.iter().map(|xi| xi * xi).sum(),
// dim: 10,
// };
//
// let solution = collective.solve(&problem, 1000);
//
// // Should find approximate minimum (origin)
// let objective_value = problem.objective(&solution);
// assert!(objective_value < 1.0, "Should find approximate minimum");
assert!(true);
}
// ========================================================================
// Integration and Cross-Module Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_nao_morphogenetic_integration() {
// Test NAO using morphogenetic fields for structure
// TODO: Test integration
// let field = MorphogeneticField::new(default_config());
// let nao = NAO::new_morphogenetic(&field);
//
// // NAO structure emerges from field
// assert!(nao.member_count() > 0);
//
// // Governance influenced by field topology
// let proposal_id = nao.create_proposal(simple_proposal());
//
// // Voting weights determined by morphogenetic position
// let weights = nao.get_voting_weights();
// assert!(weights.iter().any(|&w| w != 1.0));
assert!(true);
}
#[wasm_bindgen_test]
fn test_time_crystal_nao_coordination() {
// Test using time crystals to coordinate NAO decisions
// TODO: Test coordination
// let mut nao = NAO::new(default_config());
// let crystal = TimeCrystal::new(decision_cycle_config());
//
// nao.set_decision_coordinator(crystal);
//
// // Decisions happen at crystal transition points
// let proposal_id = nao.create_proposal(simple_proposal());
//
// // Fast-forward to decision point
// while !nao.at_decision_point() {
// nao.step();
// }
//
// let result = nao.finalize_proposal(proposal_id);
// assert!(result.is_ok());
assert!(true);
}
// ========================================================================
// WASM-Specific Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_exotic_wasm_initialization() {
// TODO: Test WASM init
// ruvector_exotic_wasm::init();
// assert!(ruvector_exotic_wasm::version().len() > 0);
assert!(true);
}
#[wasm_bindgen_test]
fn test_exotic_serialization() {
// Test serialization for persistence
// TODO: Test serialization
// let nao = NAO::new(default_config());
//
// let json = nao.to_json();
// let restored = NAO::from_json(&json).unwrap();
//
// assert_eq!(nao.name(), restored.name());
// assert_eq!(nao.member_count(), restored.member_count());
assert!(true);
}
#[wasm_bindgen_test]
fn test_exotic_wasm_bundle_size() {
// Exotic WASM should be reasonably sized
// Verified at build time, but check module loads
// TODO: Verify module loads
// assert!(ruvector_exotic_wasm::available_mechanisms().len() > 0);
assert!(true);
}
// ========================================================================
// Performance and Scalability Tests
// ========================================================================
#[wasm_bindgen_test]
fn test_nao_scalability() {
// Test NAO with many members
// TODO: Test scalability
// let config = NAOConfig {
// initial_members: 1000,
// ..default_config()
// };
//
// let nao = NAO::new(config);
//
// // Should handle large membership
// let proposal_id = nao.create_proposal(simple_proposal());
//
// // Voting should complete in reasonable time
// let start = performance.now();
// for i in 0..1000 {
// nao.vote(proposal_id, format!("member_{}", i), Vote::Yes);
// }
// let duration = performance.now() - start;
//
// assert!(duration < 1000.0, "Voting should complete within 1s");
assert!(true);
}
#[wasm_bindgen_test]
fn test_morphogenetic_field_scalability() {
// Test large morphogenetic field
// TODO: Test field scalability
// let config = MorphogeneticConfig {
// grid_size: (100, 100),
// ..default_config()
// };
//
// let mut field = MorphogeneticField::new(config);
//
// // Should handle large grid
// let start = performance.now();
// for _ in 0..100 {
// field.step();
// }
// let duration = performance.now() - start;
//
// assert!(duration < 5000.0, "100 steps should complete within 5s");
assert!(true);
}
}