Smart Tree - ST

//! QCP (Quantum Control Processor) Input Adapter //! //! Connects Smart Tree to the quantum realm via QCP protocol use super::*; use anyhow::Result; use async_trait::async_trait; use base64; use reqwest; use serde_json::json; pub struct QcpAdapter { client: reqwest::Client, endpoint: String, } impl Default for QcpAdapter { fn default() -> Self { Self::new() } } impl QcpAdapter { pub fn new() -> Self { Self { client: reqwest::Client::new(), endpoint: std::env::var("QCP_ENDPOINT") .unwrap_or_else(|_| "https://qcp.q8.is".to_string()), } } /// Execute a QCP program async fn execute_qcp( &self, program: &str, context: serde_json::Value, ) -> Result<serde_json::Value> { let response = self .client .post(format!("{}/api/v1/qcp/execute", self.endpoint)) .json(&json!({ "type": "Execute", "program": program, "format": "assembly", "context": context })) .send() .await?; Ok(response.json().await?) } /// Create QCP program for directory analysis fn create_analysis_program() -> &'static str { r#" ; Smart Tree Quantum Analysis Program LOAD C0 ; Load directory structure WAVE Q0 ; Initialize quantum state WAVE Q1 ; Second quantum register ; Analyze directory patterns ENTANGLE Q0 Q1 ; Find relationships INTERFERE Q0 Q1 ; Detect patterns ; Apply quantum compression COMPRESS ; Quantum compression ; Extract insights MEASURE Q0 ACC ; Measure similarity patterns STORE C1 ; Store compressed result HALT "# } } #[async_trait] impl InputAdapter for QcpAdapter { fn name(&self) -> &'static str { "QCP" } fn supported_formats(&self) -> Vec<&'static str> { vec!["qcp", "quantum", "q8"] } async fn can_handle(&self, input: &InputSource) -> bool { match input { InputSource::QcpQuery { .. } => true, InputSource::Url(url) => url.contains("qcp") || url.contains("q8.is"), InputSource::Raw { format_hint, .. } => { format_hint.as_ref().map(|h| h == "qcp").unwrap_or(false) } _ => false, } } async fn parse(&self, input: InputSource) -> Result<ContextNode> { match input { InputSource::QcpQuery { endpoint, query } => { // Parse quantum query self.parse_quantum_query(&endpoint, &query).await } InputSource::Url(url) => { // Fetch and parse QCP data self.parse_qcp_url(&url).await } InputSource::Raw { data, .. } => { // Parse raw QCP data self.parse_qcp_data(&data).await } _ => anyhow::bail!("Invalid input for QCP adapter"), } } fn wave_signature(&self) -> Option<String> { Some("quantum_context_v1".to_string()) } } impl QcpAdapter { async fn parse_quantum_query(&self, _endpoint: &str, query: &str) -> Result<ContextNode> { // Execute quantum analysis let context = json!({ "C0": base64::Engine::encode(&base64::engine::general_purpose::STANDARD, query) }); let result = self .execute_qcp(Self::create_analysis_program(), context) .await?; // Convert quantum results to context nodes Ok(ContextNode { id: "quantum_root".to_string(), name: "Quantum Context".to_string(), node_type: NodeType::QuantumWave, quantum_state: Some(QuantumState { amplitude: 0.95, frequency: 42.0, phase: std::f64::consts::PI / 4.0, collapse_probability: 0.8, }), children: self.extract_quantum_nodes(&result)?, metadata: result, entanglements: vec![], }) } async fn parse_qcp_url(&self, url: &str) -> Result<ContextNode> { // Fetch QCP data from URL let response = self.client.get(url).send().await?; let data = response.bytes().await?; self.parse_qcp_data(&data).await } async fn parse_qcp_data(&self, data: &[u8]) -> Result<ContextNode> { // Check for QCP magic header if data.len() < 4 || &data[0..4] != b"QCP!" { anyhow::bail!("Invalid QCP data format"); } // Parse QCP binary format let version = data[4]; if version != 0x01 { anyhow::bail!("Unsupported QCP version: {}", version); } // Extract quantum context // This would parse the actual QCP binary format Ok(ContextNode { id: "qcp_binary".to_string(), name: "QCP Binary Data".to_string(), node_type: NodeType::QuantumWave, quantum_state: Some(QuantumState { amplitude: 1.0, frequency: 100.0, phase: 0.0, collapse_probability: 0.5, }), children: vec![], metadata: json!({ "version": version, "size": data.len(), "compressed": true }), entanglements: vec![], }) } fn extract_quantum_nodes(&self, result: &serde_json::Value) -> Result<Vec<ContextNode>> { let mut nodes = Vec::new(); // Extract quantum patterns from result if let Some(patterns) = result.get("quantum_patterns").and_then(|p| p.as_array()) { for (i, pattern) in patterns.iter().enumerate() { nodes.push(ContextNode { id: format!("pattern_{}", i), name: pattern .get("name") .and_then(|n| n.as_str()) .unwrap_or("Quantum Pattern") .to_string(), node_type: NodeType::EntangledState, quantum_state: Some(QuantumState { amplitude: pattern .get("amplitude") .and_then(|a| a.as_f64()) .unwrap_or(0.5), frequency: pattern .get("frequency") .and_then(|f| f.as_f64()) .unwrap_or(50.0), phase: pattern.get("phase").and_then(|p| p.as_f64()).unwrap_or(0.0), collapse_probability: pattern .get("probability") .and_then(|p| p.as_f64()) .unwrap_or(0.5), }), children: vec![], metadata: pattern.clone(), entanglements: self.extract_entanglements(pattern), }); } } Ok(nodes) } fn extract_entanglements(&self, pattern: &serde_json::Value) -> Vec<Entanglement> { let mut entanglements = Vec::new(); if let Some(links) = pattern.get("entanglements").and_then(|e| e.as_array()) { for link in links { if let (Some(target), Some(strength)) = ( link.get("target").and_then(|t| t.as_str()), link.get("strength").and_then(|s| s.as_f64()), ) { entanglements.push(Entanglement { target_id: target.to_string(), strength, relationship: link .get("type") .and_then(|t| t.as_str()) .unwrap_or("quantum") .to_string(), }); } } } entanglements } }