use serde::{Deserialize, Serialize}; use serde_json::{Map, Value}; use solverforge::{ HardSoftScore, SolverLifecycleState, SolverSnapshot, SolverSnapshotAnalysis, SolverStatus, SolverTelemetry, SolverTerminalReason, }; use std::time::Duration; use crate::domain::FieldServicePlan; #[derive(Debug, Clone, Serialize, Deserialize)] #[serde(rename_all = "camelCase")] pub struct PlanDto { #[serde(flatten)] pub fields: Map, #[serde(default)] pub score: Option, } /// Constraint analysis result. #[derive(Debug, Clone, Serialize)] #[serde(rename_all = "camelCase")] pub struct ConstraintAnalysisDto { pub name: String, pub weight: String, pub score: String, pub match_count: usize, } #[derive(Debug, Clone, Serialize)] #[serde(rename_all = "camelCase")] pub struct AnalyzeResponse { pub score: String, pub constraints: Vec, } #[derive(Debug, Clone, Copy, Serialize)] #[serde(rename_all = "camelCase")] pub struct TelemetryDto { pub elapsed_ms: u64, pub step_count: u64, pub moves_generated: u64, pub moves_evaluated: u64, pub moves_accepted: u64, pub score_calculations: u64, pub generation_ms: u64, pub evaluation_ms: u64, pub moves_per_second: u64, pub acceptance_rate: f64, } #[derive(Debug, Clone, Serialize)] #[serde(rename_all = "camelCase")] pub struct JobSummaryDto { pub id: String, pub job_id: String, pub lifecycle_state: &'static str, pub terminal_reason: Option<&'static str>, pub checkpoint_available: bool, pub event_sequence: u64, pub snapshot_revision: Option, pub current_score: Option, pub best_score: Option, pub telemetry: TelemetryDto, } #[derive(Debug, Clone, Serialize)] #[serde(rename_all = "camelCase")] pub struct JobSnapshotDto { pub id: String, pub job_id: String, pub snapshot_revision: u64, pub lifecycle_state: &'static str, pub terminal_reason: Option<&'static str>, pub current_score: Option, pub best_score: Option, pub telemetry: TelemetryDto, pub solution: PlanDto, } #[derive(Debug, Clone, Serialize)] #[serde(rename_all = "camelCase")] pub struct JobAnalysisDto { pub id: String, pub job_id: String, pub snapshot_revision: u64, pub lifecycle_state: &'static str, pub terminal_reason: Option<&'static str>, pub analysis: AnalyzeResponse, } impl PlanDto { pub fn from_plan(plan: &FieldServicePlan) -> Self { let mut fields = match serde_json::to_value(plan).expect("failed to serialize plan") { Value::Object(map) => map, _ => Map::new(), }; let score = fields.remove("score").and_then(|value| { if value.is_null() { None } else if let Some(score) = value.as_str() { Some(score.to_string()) } else { Some(value.to_string()) } }); Self { fields, score } } pub fn to_domain(&self) -> Result { let mut fields = self.fields.clone(); let _ = &self.score; fields.insert("score".to_string(), Value::Null); serde_json::from_value(Value::Object(fields)) } } impl TelemetryDto { pub fn from_runtime(telemetry: &SolverTelemetry) -> Self { Self { elapsed_ms: duration_to_millis(telemetry.elapsed), step_count: telemetry.step_count, moves_generated: telemetry.moves_generated, moves_evaluated: telemetry.moves_evaluated, moves_accepted: telemetry.moves_accepted, score_calculations: telemetry.score_calculations, generation_ms: duration_to_millis(telemetry.generation_time), evaluation_ms: duration_to_millis(telemetry.evaluation_time), moves_per_second: whole_units_per_second(telemetry.moves_evaluated, telemetry.elapsed), acceptance_rate: derive_acceptance_rate( telemetry.moves_accepted, telemetry.moves_evaluated, ), } } } impl JobSummaryDto { pub fn from_status(job_id: usize, status: &SolverStatus) -> Self { Self { id: job_id.to_string(), job_id: job_id.to_string(), lifecycle_state: lifecycle_state_label(status.lifecycle_state), terminal_reason: status.terminal_reason.map(terminal_reason_label), checkpoint_available: status.checkpoint_available, event_sequence: status.event_sequence, snapshot_revision: status.latest_snapshot_revision, current_score: status.current_score.map(|score| score.to_string()), best_score: status.best_score.map(|score| score.to_string()), telemetry: TelemetryDto::from_runtime(&status.telemetry), } } } impl JobSnapshotDto { pub fn from_snapshot(snapshot: &SolverSnapshot) -> Self { Self { id: snapshot.job_id.to_string(), job_id: snapshot.job_id.to_string(), snapshot_revision: snapshot.snapshot_revision, lifecycle_state: lifecycle_state_label(snapshot.lifecycle_state), terminal_reason: snapshot.terminal_reason.map(terminal_reason_label), current_score: snapshot.current_score.map(|score| score.to_string()), best_score: snapshot.best_score.map(|score| score.to_string()), telemetry: TelemetryDto::from_runtime(&snapshot.telemetry), solution: PlanDto::from_plan(&snapshot.solution), } } } impl JobAnalysisDto { pub fn from_snapshot_analysis( snapshot: &SolverSnapshotAnalysis, analysis: AnalyzeResponse, ) -> Self { Self { id: snapshot.job_id.to_string(), job_id: snapshot.job_id.to_string(), snapshot_revision: snapshot.snapshot_revision, lifecycle_state: lifecycle_state_label(snapshot.lifecycle_state), terminal_reason: snapshot.terminal_reason.map(terminal_reason_label), analysis, } } } pub fn analysis_response(analysis: &solverforge::ScoreAnalysis) -> AnalyzeResponse { AnalyzeResponse { score: analysis.score.to_string(), constraints: analysis .constraints .iter() .map(|constraint| ConstraintAnalysisDto { name: constraint.name.clone(), weight: constraint.weight.to_string(), score: constraint.score.to_string(), match_count: constraint.match_count, }) .collect(), } } pub fn lifecycle_state_label(state: SolverLifecycleState) -> &'static str { match state { SolverLifecycleState::Solving => "SOLVING", SolverLifecycleState::PauseRequested => "PAUSE_REQUESTED", SolverLifecycleState::Paused => "PAUSED", SolverLifecycleState::Completed => "COMPLETED", SolverLifecycleState::Cancelled => "CANCELLED", SolverLifecycleState::Failed => "FAILED", } } pub fn terminal_reason_label(reason: SolverTerminalReason) -> &'static str { match reason { SolverTerminalReason::Completed => "completed", SolverTerminalReason::TerminatedByConfig => "terminated_by_config", SolverTerminalReason::Cancelled => "cancelled", SolverTerminalReason::Failed => "failed", } } fn duration_to_millis(duration: Duration) -> u64 { duration.as_millis().min(u128::from(u64::MAX)) as u64 } fn whole_units_per_second(count: u64, elapsed: Duration) -> u64 { let nanos = elapsed.as_nanos(); if nanos == 0 { 0 } else { let per_second = u128::from(count) .saturating_mul(1_000_000_000) .checked_div(nanos) .unwrap_or(0); per_second.min(u128::from(u64::MAX)) as u64 } } fn derive_acceptance_rate(moves_accepted: u64, moves_evaluated: u64) -> f64 { if moves_evaluated == 0 { 0.0 } else { moves_accepted as f64 / moves_evaluated as f64 } }