sublinear_solver/temporal_nexus/quantum/
mod.rs

1//! Quantum Validation Protocols for Temporal Consciousness Framework
2//!
3//! This module implements rigorous quantum mechanical validation protocols
4//! for temporal consciousness systems, ensuring compliance with fundamental
5//! physics laws while enabling practical nanosecond-scale consciousness.
6//!
7//! ## Core Physics Constraints
8//!
9//! ### Margolus-Levitin Theorem
10//! The fundamental speed limit of quantum computation:
11//! ```
12//! τ_min = h / (4 * ΔE)
13//! ```
14//! Where τ_min is minimum computation time and ΔE is energy difference.
15//!
16//! ### Energy-Time Uncertainty
17//! Heisenberg uncertainty principle for energy and time:
18//! ```
19//! ΔE · Δt ≥ ℏ/2
20//! ```
21//!
22//! ### Attosecond Feasibility
23//! At 10^-18 seconds, required energy is ~1.03 keV, establishing a
24//! physical feasibility floor rather than operational scale.
25//!
26//! ## Validation Layers
27//!
28//! 1. **Speed Limits**: Margolus-Levitin bounds for computation timing
29//! 2. **Energy Constraints**: Uncertainty principle validation
30//! 3. **Decoherence**: Environmental interaction tracking
31//! 4. **Entanglement**: Temporal correlation validation
32//! 5. **Hardware Integration**: Real quantum device capabilities
33//!
34//! ## Usage
35//!
36//! ```rust
37//! use sublinear_solver::temporal_nexus::quantum::*;
38//!
39//! // Create quantum validator
40//! let validator = QuantumValidator::new();
41//!
42//! // Validate nanosecond operation
43//! let result = validator.validate_temporal_operation(
44//!     1e-9,    // 1 nanosecond
45//!     1e-15,   // 1 femtojoule energy
46//! )?;
47//!
48//! assert!(result.is_valid);
49//! ```
50
51pub mod validators;
52pub mod speed_limits;
53pub mod decoherence;
54pub mod entanglement;
55pub mod physics_validation;
56
57#[cfg(test)]
58pub mod tests;
59
60pub use validators::*;
61pub use speed_limits::*;
62pub use decoherence::*;
63pub use entanglement::*;
64pub use physics_validation::*;
65
66/// Physical constants for quantum calculations
67pub mod constants {
68    /// Planck constant (J·s)
69    pub const PLANCK_H: f64 = 6.626_070_15e-34;
70
71    /// Reduced Planck constant (J·s)
72    pub const PLANCK_HBAR: f64 = 1.054_571_817e-34;
73
74    /// Boltzmann constant (J/K)
75    pub const BOLTZMANN_K: f64 = 1.380_649e-23;
76
77    /// Speed of light (m/s)
78    pub const SPEED_OF_LIGHT: f64 = 299_792_458.0;
79
80    /// Electron volt to joules conversion
81    pub const EV_TO_JOULES: f64 = 1.602_176_634e-19;
82
83    /// Room temperature in Kelvin
84    pub const ROOM_TEMPERATURE_K: f64 = 293.15;
85
86    /// Attosecond energy requirement (keV)
87    pub const ATTOSECOND_ENERGY_KEV: f64 = 1.03;
88
89    /// Nanosecond as practical consciousness scale
90    pub const CONSCIOUSNESS_SCALE_NS: f64 = 1e-9;
91}
92
93/// Quantum validation error types
94#[derive(Debug, thiserror::Error)]
95pub enum QuantumError {
96    #[error("Margolus-Levitin bound violated: τ_min = {min_time_s:.2e}s > requested {requested_time_s:.2e}s")]
97    MargolousLevitinViolation {
98        min_time_s: f64,
99        requested_time_s: f64,
100    },
101
102    #[error("Energy-time uncertainty violated: ΔE·Δt = {product:.2e} < ℏ/2 = {hbar_half:.2e}")]
103    UncertaintyViolation {
104        product: f64,
105        hbar_half: f64,
106    },
107
108    #[error("Decoherence time exceeded: {decoherence_time_s:.2e}s < operation time {operation_time_s:.2e}s")]
109    DecoherenceExceeded {
110        decoherence_time_s: f64,
111        operation_time_s: f64,
112    },
113
114    #[error("Entanglement correlation lost: correlation = {correlation:.3} < threshold {threshold:.3}")]
115    EntanglementLost {
116        correlation: f64,
117        threshold: f64,
118    },
119
120    #[error("Hardware capability exceeded: required {required:.1} MHz > available {available:.1} MHz")]
121    HardwareExceeded {
122        required: f64,
123        available: f64,
124    },
125
126    #[error("Energy requirement infeasible: {required_ev:.1} eV > practical limit {limit_ev:.1} eV")]
127    EnergyInfeasible {
128        required_ev: f64,
129        limit_ev: f64,
130    },
131}
132
133pub type QuantumResult<T> = Result<T, QuantumError>;
134
135/// Main quantum validator for temporal consciousness operations
136#[derive(Debug, Clone)]
137pub struct QuantumValidator {
138    /// Speed limit validator
139    pub speed_limits: MargolousLevitinValidator,
140    /// Energy-time uncertainty validator
141    pub uncertainty: UncertaintyValidator,
142    /// Decoherence tracker
143    pub decoherence: DecoherenceTracker,
144    /// Entanglement validator
145    pub entanglement: EntanglementValidator,
146}
147
148impl QuantumValidator {
149    /// Create new quantum validator with default parameters
150    pub fn new() -> Self {
151        Self {
152            speed_limits: MargolousLevitinValidator::new(),
153            uncertainty: UncertaintyValidator::new(),
154            decoherence: DecoherenceTracker::new(),
155            entanglement: EntanglementValidator::new(),
156        }
157    }
158
159    /// Validate a temporal consciousness operation
160    pub fn validate_temporal_operation(
161        &self,
162        operation_time_s: f64,
163        energy_j: f64,
164    ) -> QuantumResult<ValidationResult> {
165        // Check Margolus-Levitin speed limits
166        let speed_result = self.speed_limits.validate_computation_time(operation_time_s, energy_j)?;
167
168        // Check uncertainty principle
169        let uncertainty_result = self.uncertainty.validate_energy_time_product(energy_j, operation_time_s)?;
170
171        // Check decoherence constraints
172        let decoherence_result = self.decoherence.validate_operation_time(operation_time_s)?;
173
174        // Check entanglement preservation
175        let entanglement_result = self.entanglement.validate_temporal_correlation(operation_time_s)?;
176
177        Ok(ValidationResult {
178            is_valid: speed_result.is_valid
179                && uncertainty_result.is_valid
180                && decoherence_result.is_valid
181                && entanglement_result.is_valid,
182            speed_limit_result: speed_result,
183            uncertainty_result,
184            decoherence_result,
185            entanglement_result,
186            operation_time_s,
187            energy_j,
188        })
189    }
190
191    /// Check if attosecond operation is theoretically feasible
192    pub fn check_attosecond_feasibility(&self) -> AttosecondFeasibilityReport {
193        let attosecond = 1e-18; // 1 attosecond
194        let required_energy_j = constants::ATTOSECOND_ENERGY_KEV * 1000.0 * constants::EV_TO_JOULES;
195
196        AttosecondFeasibilityReport {
197            time_scale_s: attosecond,
198            required_energy_j,
199            required_energy_kev: constants::ATTOSECOND_ENERGY_KEV,
200            is_theoretically_feasible: true,
201            is_practically_achievable: false,
202            limiting_factors: vec![
203                "Energy requirement: 1.03 keV".to_string(),
204                "Current hardware limitations".to_string(),
205                "Decoherence at room temperature".to_string(),
206            ],
207            recommended_scale_s: constants::CONSCIOUSNESS_SCALE_NS,
208            recommended_scale_description: "Nanosecond scale for practical consciousness".to_string(),
209        }
210    }
211}
212
213impl Default for QuantumValidator {
214    fn default() -> Self {
215        Self::new()
216    }
217}
218
219/// Comprehensive validation result
220#[derive(Debug, Clone)]
221pub struct ValidationResult {
222    pub is_valid: bool,
223    pub speed_limit_result: SpeedLimitResult,
224    pub uncertainty_result: UncertaintyResult,
225    pub decoherence_result: DecoherenceResult,
226    pub entanglement_result: EntanglementResult,
227    pub operation_time_s: f64,
228    pub energy_j: f64,
229}
230
231/// Attosecond feasibility analysis report
232#[derive(Debug, Clone)]
233pub struct AttosecondFeasibilityReport {
234    pub time_scale_s: f64,
235    pub required_energy_j: f64,
236    pub required_energy_kev: f64,
237    pub is_theoretically_feasible: bool,
238    pub is_practically_achievable: bool,
239    pub limiting_factors: Vec<String>,
240    pub recommended_scale_s: f64,
241    pub recommended_scale_description: String,
242}
243
244#[cfg(test)]
245mod quantum_integration_tests {
246    use super::*;
247
248    #[test]
249    fn test_quantum_validator_creation() {
250        let validator = QuantumValidator::new();
251        assert_eq!(validator.speed_limits.get_planck_constant(), constants::PLANCK_H);
252    }
253
254    #[test]
255    fn test_nanosecond_validation() {
256        let validator = QuantumValidator::new();
257        let result = validator.validate_temporal_operation(1e-9, 1e-15).unwrap();
258        assert!(result.is_valid, "Nanosecond operation should be valid");
259    }
260
261    #[test]
262    fn test_attosecond_feasibility() {
263        let validator = QuantumValidator::new();
264        let report = validator.check_attosecond_feasibility();
265        assert!(report.is_theoretically_feasible);
266        assert!(!report.is_practically_achievable);
267        assert_eq!(report.required_energy_kev, 1.03);
268    }
269
270    #[test]
271    fn test_quantum_constants() {
272        assert!(constants::PLANCK_H > 0.0);
273        assert!(constants::PLANCK_HBAR > 0.0);
274        assert!(constants::PLANCK_HBAR < constants::PLANCK_H);
275        assert_eq!(constants::CONSCIOUSNESS_SCALE_NS, 1e-9);
276    }
277}
sublinear_solver/temporal_nexus/quantum/mod.rs

sublinear_solver/temporal_nexus/quantum/
mod.rs
