Files
Cyrene_v2/internal/runtime/loop/tools_invoke.go
T
AskaEth 1347a77d33 feat(loop): wire speak tool into the loop (M57)
- speak_tool.go: the speak tool itself — rune-derived timeout budget, structured
  failure codes, persona/emotion stamped on the synthesis ctx, audio persisted
  through the store seam, structured result for the model.
- voice_deps.go: the wiring seam (VoiceSynth / VoiceStore + VoiceStoreFunc
  adapter), voiceEnabled, withSpeakSpec (appended after every schema shrink),
  and captureVoice (success beats failure, last one wins).
- options.go / loop.go: VoiceSynth, VoiceStore, SpeakBudget injection points.
- request.go: advertise speak on both toolSchemas return paths.
- tools.go / tools_invoke.go: carry the batch voice outcome; split invokeOne /
  emitToolExecution / spanStatusForToolPhase / invokeParallel into their own
  file (tools.go was at the 500-line ceiling) and let speak run without a
  dispatcher.
- run.go: keep the voice outcome across tool batches (a later batch without
  speak must not erase it).

Known, deliberate: speak bypasses the capacity allow-set and skill-round
narrowing (it belongs to no built-in toolset), so it is also advertised in
quiet/awake; execution still passes the tool security gate, where speak is not
registered and non-owner actors are denied fail-closed.
2026-10-27 21:22:14 +08:00

108 lines
4.9 KiB
Go
Raw Blame History

This file contains ambiguous Unicode characters
This file contains Unicode characters that might be confused with other characters. If you think that this is intentional, you can safely ignore this warning. Use the Escape button to reveal them.
package loop
// 本文件承载**单个/一批工具调用的执行**(span、流式帧、结果归一化、
// 有界并行),与 tools.go 的分类、准入与回渲职责分开 —— 从 tools.go
// 抽出,使两边都留在 500 行以内(AGENTS.md §10)。
import (
"context"
"fmt"
"sync"
"git.yeij.top/AskaEth/Cyrene_v2/internal/runtime/agent"
"git.yeij.top/AskaEth/Cyrene_v2/internal/runtime/model"
"git.yeij.top/AskaEth/Cyrene_v2/internal/runtime/tool"
"git.yeij.top/AskaEth/Cyrene_v2/internal/runtime/trace"
)
// invokeOne 在其每工具截止时间下执行单个工具调用,发出一个
// tool span、以 tool_execution.start/end 事件流式输出执行进度
// 并归一化结果。执行全程由单一 phase 决策驱动:start 帧带
// running,Invoke 返回后按成败取 done/error,同一取值既决定
// end 帧的 phase,也决定 span 终态(design/19 的 tool 节点
// running/done/error 状态即由此驱动)。
func (l *Loop) invokeOne(ctx context.Context, d *tool.Dispatcher, tc agent.ToolCall) ToolOutcome {
// speak 由循环自己承载(见 invokeTool),没有 dispatcher 也能执行;其余
// 工具缺 dispatcher 时仍按原样短路,不为此多开 span 或流式帧。
if d == nil && !(l.voiceEnabled() && tc.Name == speakToolName) {
return ToolOutcome{Err: fmt.Errorf("no tool dispatcher configured for %q", tc.Name), ErrKind: tool.KindExecution}
}
_, toolSpan := l.span(ctx, "tool."+tc.Name, trace.SpanKindTool)
l.emitToolExecution(ctx, tc, model.StreamKindToolExecutionStart, model.ToolPhaseRunning, "")
// 分派见 invokeTool:路标识桥(tool.WithLegID)与 speak 的循环内承载都在
// 那里。路标识(design/15 §2.5.7、主人裁决 3):网关在**每一条在途路**上把
// 互斥身份经 loop.WithToolLegID 挂在 ctx 上(普通回合 / 并行路 / 队首续跑路
// 都挂,取值 = 该路的 turnID),工具层凭 tool.LegIDFrom 读到「我是哪一路」
// 做文件级互斥;未挂载 ⇒ 空串 ⇒ 完全不做互斥,行为逐字不变(兼容硬要求)。
//
// 刻意**不**读 ParallelLegFrom:那条通道只有真并行路才有、且只决定 checkpoint
// 归属(checkpoint.go 的 checkpointAgentID),拿它当互斥身份会让普通回合在
// 「1 普通回合 + 1 并行路」时完全不受保护。
result, err := l.invokeTool(ctx, d, tc)
phase := model.ToolPhaseDone
if err != nil {
phase = model.ToolPhaseError
}
l.emitToolExecution(ctx, tc, model.StreamKindToolExecutionEnd, phase, toolEndFrameSummary(result, err))
out := ToolOutcome{Result: result, Err: err, ErrKind: errorKind(err)}
l.spanProp(toolSpan, "phase", phase)
l.recordToolDone(toolSpan, tc, out)
if err != nil {
l.spanProp(toolSpan, "error", err.Error())
l.spanProp(toolSpan, "error_kind", out.ErrKind)
} else {
recordToolResult(toolSpan, result)
}
l.finishSpan(toolSpan, spanStatusForToolPhase(phase))
return out
}
// emitToolExecution 在循环处于流式路径(配置了 OnStream)时把
// tool_execution 三事件(start / update / end)转发给前端;否则为
// 空操作(被静音的内部流程也会跳过它)。phase 是结构化字段
// (running/done/error),绝不塞进 Delta;工具名走 Tool 字段,
// ID 复用 provider 的 tool call id,使执行帧能与其 tool_call.* 帧关联;
// resultSummary 只在 end 帧、且只在结果真正拿到时非空(口径见 tool_frame_summary.go)。
func (l *Loop) emitToolExecution(ctx context.Context, tc agent.ToolCall, kind model.StreamKind, phase, resultSummary string) {
if l.onStream == nil || isMutedBroadcast(ctx) {
return
}
ev := model.StreamEvent{Kind: kind, Phase: phase, Tool: tc.Name, ID: tc.ID, ResultSummary: resultSummary}
ev.SessionID = loopSession(ctx)
ev.TurnID = loopTurn(ctx)
l.onStream(ev)
}
// spanStatusForToolPhase 把工具执行的终态 phase 映射为 span 终态,
// 使 trace/流程图与 WS 帧从同一个 phase 取值得出一致结论。
// 非终态 phase(running)不会走到这里 —— span 只在执行结束时收尾。
func spanStatusForToolPhase(phase string) trace.SpanStatus {
if phase == model.ToolPhaseError {
return trace.SpanStatusError
}
return trace.SpanStatusOK
}
// invokeParallel 并发运行 idxs 处的调用,上限为循环的
// 并行度,并把每个结果写回 out 的对应调用索引处,使调用方
// 能按原始顺序渲染结果。信号量限制并发,在途
// goroutine 完成时释放其槽位,因此被取消的 context
// (它使每个 Invoke 迅速返回)不会泄露 goroutine。
func (l *Loop) invokeParallel(ctx context.Context, d *tool.Dispatcher, calls []agent.ToolCall, idxs []int, out []ToolOutcome) {
if len(idxs) == 0 {
return
}
sem := make(chan struct{}, l.toolParallelism)
var wg sync.WaitGroup
for _, i := range idxs {
wg.Add(1)
sem <- struct{}{}
go func(i int) {
defer wg.Done()
defer func() { <-sem }()
out[i] = l.invokeOne(ctx, d, calls[i])
}(i)
}
wg.Wait()
}