yao/agent/robot/executor/standard/run.go
Max 603ed69a9e Update TODO.md and run_test.go for P3 Run Implementation Completion
- Marked the P3 Run Implementation as complete in TODO.md, reflecting the successful integration of task execution and validation.
- Updated the status of tests related to the ContinueOnFailure option, indicating their completion with detailed test cases for various execution scenarios.
- Enhanced run_test.go with new tests to validate the behavior of task execution under different ContinueOnFailure configurations, ensuring robust error handling and task management.
- Revised the RunExecution method to accept configuration data, improving flexibility in execution parameters.
2026-01-18 10:35:26 +08:00

124 lines
3.4 KiB
Go

package standard
import (
"fmt"
"time"
robottypes "github.com/yaoapp/yao/agent/robot/types"
)
// RunConfig configures P3 execution behavior
type RunConfig struct {
// ContinueOnFailure continues to next task even if current task fails (default: false)
ContinueOnFailure bool
// ValidationThreshold is the minimum score to pass validation (default: 0.6)
ValidationThreshold float64
// MaxTurnsPerTask is the maximum conversation turns for multi-turn tasks (default: 10)
// This controls how many times the assistant can be called for a single task
// (including retries with validation feedback)
MaxTurnsPerTask int
}
// DefaultRunConfig returns the default P3 configuration
func DefaultRunConfig() *RunConfig {
return &RunConfig{
ContinueOnFailure: false,
ValidationThreshold: 0.6,
MaxTurnsPerTask: 10,
}
}
// RunExecution executes P3: Run phase
// Executes each task using the appropriate executor (Assistant, MCP, Process)
// with multi-turn conversation and validation
//
// Input:
// - Tasks (from P2)
//
// Output:
// - TaskResult for each task with output and validation
//
// Execution Flow (per task):
// 1. Call assistant/MCP/process and get result
// 2. Validate result using two-layer validation (rule-based + semantic)
// 3. If validation.NeedReply, continue conversation with validation.ReplyContent
// 4. Repeat until validation.Complete or max turns exceeded
// 5. Pass previous task results as context to next task
func (e *Executor) RunExecution(ctx *robottypes.Context, exec *robottypes.Execution, data interface{}) error {
robot := exec.GetRobot()
if robot == nil {
return fmt.Errorf("robot not found in execution")
}
if len(exec.Tasks) == 0 {
return fmt.Errorf("no tasks to execute")
}
// Get run configuration from data or use default
var config *RunConfig
if cfg, ok := data.(*RunConfig); ok && cfg != nil {
config = cfg
} else {
config = DefaultRunConfig()
}
// Initialize results slice
exec.Results = make([]robottypes.TaskResult, 0, len(exec.Tasks))
// Create task runner
runner := NewRunner(ctx, robot, config)
// Execute tasks sequentially
for i := range exec.Tasks {
task := &exec.Tasks[i]
// Update current state for tracking
exec.Current = &robottypes.CurrentState{
Task: task,
TaskIndex: i,
Progress: fmt.Sprintf("%d/%d tasks", i+1, len(exec.Tasks)),
}
// Mark task as running
task.Status = robottypes.TaskRunning
now := time.Now()
task.StartTime = &now
// Build task context with previous results
taskCtx := runner.BuildTaskContext(exec, i)
// Execute task with multi-turn conversation support
result := runner.ExecuteWithRetry(task, taskCtx)
// Update task status based on result
endTime := time.Now()
task.EndTime = &endTime
// Determine task status from result
// Note: result.Success is already set to (validation.Complete && validation.Passed) in runner
if result.Success {
task.Status = robottypes.TaskCompleted
} else {
task.Status = robottypes.TaskFailed
}
// Store result
exec.Results = append(exec.Results, *result)
// Check if we should continue on failure
if !result.Success && !config.ContinueOnFailure {
// Mark remaining tasks as skipped
for j := i + 1; j < len(exec.Tasks); j++ {
exec.Tasks[j].Status = robottypes.TaskSkipped
}
return fmt.Errorf("task %s failed: %s", task.ID, result.Error)
}
}
// Clear current state
exec.Current = nil
return nil
}