Files
OpenFlare/backend/plugins/drivers/driver_asynq_worker/executor.go
T
ryan dbaa3bf140 feat(cordis): add OpenFlare Cordis 架构改造设计
docs(changelog): 修正表述笔误

refactor(cordis): 磁盘缓存改用上上游能力并清理本地副本

按上游/下游归属规约:类型断言守卫已回流 Wavelet(f3d85d5,附回归用例),
本仓库删除 OpenFlare/plugins/server/pkg/cache 整包并改 import 到
Wavelet/pkg/cache/disk,同步后与上游零漂移。

验证:go build 通过;go test ./... exit 0(137 包 ok);256 条路由对拍与
232 条 swagger 操作均零差异;make build-all 四进制;前端零改动。

docs(cordis): 记录 T1 清理结果与五个复用阻塞点

refactor(cordis): server 复用上游 pkg 能力并删除等价本地副本

按上游/下游归属规约清理重复实现,删除 7 个与上游等价的本地包并改 import:
shared/response→pkg/response、pkg/{logger,mail,trace,httppool,cache/ram}→
上游同名包、infra/persistence/batchwriter→pkg/batchwriter。逐项核过差异:
httppool 逐字节相同;logger 的 Config 字段完全一致;response 的 7 个 Abort*
一致;cache/ram 换过去顺带把裸 go 变回带 panic 恢复的 util.Go。

两处非等价差异按语义处理:
- batchwriter.Stats 与 status DTO 原为类型别名,改为消费侧逐字段转换,
  避免 model 反向依赖基础设施类型;
- 上游 pkg/idgen 要求显式 Init(本地副本为懒加载自动初始化),本次保留本地
  副本,待与 infra 初始化一并迁移(已登记在清理计划)。

验证:go build 通过;go test ./... exit 0(138 包 ok);256 条路由对拍零差异;
make swagger 232 条操作零增减,且归一化后与旧文档深度相等——差异仅为
response.Any / logger.LogEntry 两个定义名随包路径改名,接口形状未变。

chore(cordis): 回流内核与 pkg/util 通用能力并清理 vendoring 污染

按新增的上游/下游归属规约:HandleRaw/BasePath 与版本比较、网络、格式化助手
属通用能力,已提交到 Wavelet 分支 feat/cordis-router-raw-routes,本仓库改为
纯同步获取(pkg/util 已零漂移),补丁登记保留至上游合并。

同时修掉我此前 git add -A 造成的污染:首次 vendoring 把上游工作区里被
gitignore 的运行期产物一起提交进来(upload 的 diskcache 缓存块 650 个与
driver_http/dist 前端构建物 380 个,共 12872 行/1030 文件)。sync-upstream.sh
现显式排除 uploads/dist/data/*.db,.gitignore 补上对应兜底规则。

AGENTS.md 增加上游/下游改动归属规约,并把仍指向前 Cordis 布局的硬性约束
(internal/router + Serve、internal/repository/logstore、internal/platform/bootstrap、
internal/cmd)改到当前插件路径。

验证:go build 通过;go test ./... exit 0(144 包 ok);make swagger 232 条
操作与基线逐条一致;make build-all 四进制;gofmt 干净。

feat(cordis): server 插件化并改由内核挂载控制面路由

新增 plugins/server/plugin.go:Apply 以 ctx.Router().Group(app.api_prefix)
声明根级与 /v1 全部路由;33 个注册函数由 *gin.RouterGroup 改为
core.RouterExtension,RegisterCollection 改用内核新增的 HandleRaw 保留
尾部斜杠变体,AdminMiddlewares 返回 []any(Go 不允许把 []T 展开为 ...any)。
删除 router.Serve 与 registerRoutes,装配根改为 core.App +
driver_http.New(WithEngine(router.BuildEngine())),监听、信号与优雅退出归内核;
前端 SPA 的 NoRoute 兜底因内核暂无贡献点而保留在引擎层。

路由保真证据:plugin_parity_test 对拍 baseline/routes-engine.txt 的 256 条
(方法 路径) 零差异;go test ./... exit 0(144 包 ok,含真实 handler 的
openflare/integration 用例走同一条挂载路径);make swagger 232 条操作与基线
逐条一致;golangci-lint 0 issues;make build-all 四进制;embed_frontend
标签编译通过;前端零改动。

已知待补:带 Redis 的实机 HTTP 冒烟(本机 6379 未启动,session store 与
改造前一样在建店阶段即 fatal),以及 bootstrap 的任务/设置/迁移注册迁入 Apply。

feat(core): RouterExtension 增加 HandleRaw 与 BasePath 以保真尾部斜杠路由

server 插件化的前置:Handle 经 cleanPath 会剥掉尾部斜杠,无法表达
/resource 与 /resource/ 两条不同路由,而 OpenFlare 有 20 个历史 list
端点两者都注册且部署关闭了 RedirectTrailingSlash,缺失即 404。新增
HandleRaw 与 BasePath(作用域包装器同样登记反注册),补 extpoints 用例;
并把 router.Serve 拆出 BuildEngine 以便交给 driver_http.WithEngine 复用,
新增路由表导出 harness,固化 256 条 (方法 路径) 基线供插件化对拍。
上游补丁登记于 backend/OpenFlare/upstream-patches.md,同步脚本改为按目录
前缀输出差异并在同步后提醒确认补丁是否仍在。

验证:go build 通过;go test ./... exit 0(143 包 ok);gofmt 干净。

docs(cordis): 记录 server 插件接入内核的可行路径与内核能力缺口

feat(cordis): agent/relay/flared 落地为内核驱动插件

三个边缘守护进程各新增 plugin.go,实现 core.Plugin + core.Driver
(自定义 DriverType 与同名 profile),装配与生命周期从 main 迁入
Apply/Start/Stop:Apply 负责 JSON 配置加载、运行环境与用户确保、
openresty/frps/frpc 管理器与各服务装配;Start 以 util.Go 拉起阻塞式
runner 与 GeoIP 周期更新;Stop 收敛主循环结果并在超时时报错而非静默。

入口改为 core.NewApp(core.WithProfile(...)) + Prepare/Run,保持
-config 旗标、默认路径、退出码与启动/停止日志不变。

验证:go build 通过;go test ./... exit 0(143 包 ok,含 3 个插件身份
与配置失败路径测试);make build-all 四进制产出;三进制实跑缺失配置
均 exit 1 且错误链保留 load {agent,relay,flared} config 原因;gofmt 干净。

refactor(cordis): 按功能职责拆分为 4 个插件与 share 共享层

backend/OpenFlare 不再平铺遗留分层,改为 plugins/{server,agent,relay,flared}
加 share/:控制面业务(openflare/admin/oauth/user/upload/cap/config/health 与
repository/model/infra/router 等支撑层)归 server;三个边缘守护进程各自成插件;
被两个以上插件消费的 protocol/geoip/wsclient/render/pagesarchive/edge 归 share。
同时把 pkg/util 与 buildinfo 合并回上游 pkg(上游已覆盖全部符号,仅 8 个函数与
2 个类型为 OpenFlare 独有,已一并迁入),装配根统一到 backend/cmd(含三个 daemon
入口),Dockerfile 与 release 工作流的构建路径和 -X 注入路径同步更新。

验证:go build 通过;go test ./... exit 0(141 包 ok);make swagger exit 0 且
232 条 API 操作与基线逐条一致;make build-all 产出 4 进制;-X 注入经二进制
strings 实测生效;日志后端直连门禁改写为按 server 插件业务域扫描并在扫描数为 0
时报错(防门禁静默失效);前端零改动。

feat(cordis): 落地 backend/share 共享层与上游同步脚本

跨插件共享资源(控制消息协议、GeoIP+iputil、边缘守护进程日志)从下游包
移入 backend/share,并声明其只能依赖 core/pkg 与标准/第三方库,禁止反向
引用下游业务与具体插件实现;新增 scripts/sync-upstream.sh 只覆盖
backend/{core,pkg,plugins},同步后 --check 报告零差异,证明与上游逐字一致。

go build 通过,go test ./... exit 0(142 包 ok),前端零改动。

refactor(cordis): 采用与 Wavelet 同构的单模块布局并引入上游内核

按上游结构落位:backend/{core,pkg,plugins} 为 Wavelet 上游拷贝,OpenFlare
全部业务收拢到上游 downstream 所对应的位置 backend/OpenFlare/,模块名保持
Wavelet 以保证上游 import 路径逐字一致、同步零改写;三个 daemon 入口移至
backend/OpenFlare/cmd,backend/cmd 与 main.go 作为控制面装配根。

行为不变:go build 通过,142 个测试包全绿(含上游插件测试),232 条 API
操作与改造前逐条一致,四进制产物正常,前端零改动。swagger 暂只扫描下游代码,
待 P4 挂载上游路由后再纳入 plugins/。

style: 修正模块路径改写导致的 import 分组排序漂移

refactor(layout): Go 代码迁入 backend/ 并将模块名简化为 OpenFlare

对齐上游 Wavelet 的仓库布局,为以第二 module 形态 vendoring Cordis 内核与
平台插件做准备:模块路径整体改写为 OpenFlare,Go 目标加 cd backend,
swaggo 产物移至 backend/docs 并把 json/yaml 复制回 docs/ 供站点消费,
Dockerfile 与 release 工作流的构建目录、ldflags 模块路径同步更新。

行为保持不变:232 条路由与改造前逐条一致,95 个测试包全绿,
四进制产物正常,前端零改动。

chore(cordis): 落地改造计划与 schema/路由基线

新增 legacy_dump_test 迁移快照 harness:在临时 sqlite 库上按生产顺序
(goose.UpTo → zone 导入 → goose.Up)跑完 76 个历史迁移并导出 schema 与
版本序列,作为改造前后一致性门禁的唯一事实来源。同时记录 232 条路由清单
与 foundation 实施计划。

docs(cordis): add OpenFlare Cordis 架构改造设计

明确上游以第二 module 形态 vendoring 进 backend/Wavelet、4 个插件
(server/agent/relay/flared) 全部装载内核,并规定保留 76 个历史 goose
迁移 + 一次性版本 stamp 桥接的迁移方案,配套三方 schema 一致性门禁,
确保已部署库不重跑历史、不丢数据。
2026-08-30 10:12:52 +08:00

503 lines
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// Copyright 2026 Arctel.net
// SPDX-License-Identifier: Apache-2.0
package driver_asynq_worker
import (
"Wavelet/pkg/idgen"
"Wavelet/pkg/logger"
"Wavelet/pkg/util"
"context"
"encoding/json"
"errors"
"fmt"
"sync"
"time"
"github.com/hibiken/asynq"
"go.opentelemetry.io/otel"
"go.opentelemetry.io/otel/attribute"
"go.opentelemetry.io/otel/codes"
"go.opentelemetry.io/otel/propagation"
"go.opentelemetry.io/otel/trace"
otel_trace "Wavelet/pkg/trace"
)
var (
handlerRegistryMutex sync.RWMutex
handlerRegistry = make(map[string]TaskHandler)
completedHandlersMutex sync.RWMutex
taskCompletedHandlers []CompletedHandler
)
// CompletedHandler is called when a task execution completes.
type CompletedHandler func(ctx context.Context, execution *TaskExecution, result *TaskResult, execErr error)
// OnTaskCompleted registers a handler for task completion events.
// Handlers must be registered during application bootstrap before processing tasks.
func OnTaskCompleted(handler CompletedHandler) {
completedHandlersMutex.Lock()
defer completedHandlersMutex.Unlock()
taskCompletedHandlers = append(taskCompletedHandlers, handler)
}
// RegisterHandler 注册任务处理器
// 传入任务类型标识(对应 AsynqTask 常量)和 TaskHandler 实现
func RegisterHandler(asynqTaskType string, handler TaskHandler) {
handlerRegistryMutex.Lock()
defer handlerRegistryMutex.Unlock()
handlerRegistry[asynqTaskType] = handler
}
// getHandler 获取已注册的处理器
func getHandler(asynqTaskType string) (TaskHandler, bool) {
handlerRegistryMutex.RLock()
defer handlerRegistryMutex.RUnlock()
h, ok := handlerRegistry[asynqTaskType]
return h, ok
}
// ValidateAndNormalizePayload 校验并标准化任务参数。
// 如果 Handler 实现了 PayloadValidator,调用其 ValidatePayload 方法;
// 否则直接返回原始 payload。
func ValidateAndNormalizePayload(asynqTaskType string, payload []byte) ([]byte, error) {
handler, ok := getHandler(asynqTaskType)
if !ok {
return payload, nil
}
if validator, ok := handler.(PayloadValidator); ok {
return validator.ValidatePayload(payload)
}
return payload, nil
}
// contextKey 用于 context 存取 taskID
type contextKey string
const (
taskIDKey contextKey = "task_execution_task_id"
traceEnvelopeVersion = 1
)
type traceEnvelope struct {
WaveletTraceEnvelope bool `json:"_wavelet_trace_envelope"`
Version int `json:"version"`
TraceContext map[string]string `json:"trace_context,omitempty"`
Payload []byte `json:"payload"`
}
// withTaskID 将 taskID 注入 context
func withTaskID(ctx context.Context, taskID string) context.Context {
return context.WithValue(ctx, taskIDKey, taskID)
}
// GetTaskID 从 context 中获取 taskID
func GetTaskID(ctx context.Context) string {
if v, ok := ctx.Value(taskIDKey).(string); ok {
return v
}
return ""
}
// IsFinalAttempt 判断当前任务执行是否为最后一次重试尝试(若再次失败即为最终失败)
func IsFinalAttempt(ctx context.Context) bool {
retryCount, hasRetryCount := asynq.GetRetryCount(ctx)
maxRetry, hasMaxRetry := asynq.GetMaxRetry(ctx)
if !hasRetryCount || !hasMaxRetry {
return true
}
return retryCount >= maxRetry
}
// AppendLog 追加日志到任务执行记录
// 在 TaskHandler.Execute 中调用,日志会自动追加到 TaskExecution.Log 字段
func AppendLog(ctx context.Context, format string, args ...interface{}) {
taskID := GetTaskID(ctx)
if taskID == "" {
// 上下文中没有 taskID,降级到普通日志
logger.InfoF(ctx, format, args...)
return
}
logLine := fmt.Sprintf(format, args...)
if err := appendTaskExecutionLog(ctx, taskID, logLine); err != nil {
logger.ErrorF(ctx, "[TaskExecutor] 追加任务日志失败 taskID=%s: %v", taskID, err)
}
}
// DispatchTask 下发任务(创建 TaskExecution 记录 → 入队 Asynq)
func DispatchTask(ctx context.Context, taskType string, payload []byte, triggeredBy string) (string, error) {
meta := GetTaskMeta(taskType)
if meta == nil {
return "", fmt.Errorf(errUnknownTaskType, taskType)
}
// 生成唯一的 TaskID
taskID := generateTaskID(taskType, triggeredBy)
// 创建任务执行记录
execution := &TaskExecution{
TaskID: taskID,
TaskType: meta.AsynqTask,
TaskName: meta.Name,
Status: TaskExecutionStatusPending,
Retryable: meta.Retryable,
MaxRetry: meta.MaxRetry,
RetryCount: 0,
Payload: string(payload),
TriggeredBy: triggeredBy,
}
if err := createTaskExecution(ctx, execution); err != nil {
return "", fmt.Errorf(errCreateTaskExecutionFailed, err)
}
// 入队 Asynq
taskInfo := asynq.NewTask(meta.AsynqTask, injectTaskTraceContext(ctx, payload))
if _, err := GetAsynqClient().Enqueue(
taskInfo,
asynq.TaskID(taskID),
asynq.MaxRetry(meta.MaxRetry),
asynq.Queue(meta.Queue),
); err != nil {
// 入队失败,更新执行记录状态
execution.Status = TaskExecutionStatusFailed
execution.ErrorMessage = fmt.Sprintf("入队失败: %v", err)
now := time.Now()
execution.StartedAt = &now
execution.FinishedAt = &now
_ = updateTaskExecution(ctx, execution)
return "", fmt.Errorf(errTaskEnqueueFailed, err)
}
if err := appendTaskExecutionLog(ctx, taskID, fmt.Sprintf("[系统] 任务已成功入队,等待调度执行 (队列: %s, 最大重试次数: %d)", meta.Queue, meta.MaxRetry)); err != nil {
logger.ErrorF(ctx, "[TaskExecutor] 追加入队日志失败 taskID=%s: %v", taskID, err)
}
return taskID, nil
}
// RetryTask 重试失败的任务
func RetryTask(ctx context.Context, id uint64) (string, error) {
execution, err := getTaskExecutionByID(ctx, id)
if err != nil {
return "", fmt.Errorf(errTaskExecutionNotFound, err)
}
if execution.Status != TaskExecutionStatusFailed {
return "", fmt.Errorf(errRetryOnlyFailedTask, execution.Status)
}
if !execution.Retryable {
return "", errors.New(errTaskNotRetryable)
}
// 生成新的 TaskID
newTaskID := generateRetryTaskID(execution.TaskID, execution.RetryCount+1)
// 创建新的执行记录
newExecution := &TaskExecution{
TaskID: newTaskID,
TaskType: execution.TaskType,
TaskName: execution.TaskName,
Status: TaskExecutionStatusPending,
Retryable: execution.Retryable,
MaxRetry: execution.MaxRetry,
RetryCount: execution.RetryCount + 1,
Payload: execution.Payload,
TriggeredBy: "retry",
}
if err := createTaskExecution(ctx, newExecution); err != nil {
return "", fmt.Errorf(errCreateRetryExecutionFailed, err)
}
meta := GetTaskMeta(execution.TaskType)
queueName := QueueDefault
if meta != nil {
queueName = meta.Queue
}
// 入队 Asynq
taskInfo := asynq.NewTask(execution.TaskType, injectTaskTraceContext(ctx, []byte(execution.Payload)))
if _, err := GetAsynqClient().Enqueue(
taskInfo,
asynq.TaskID(newTaskID),
asynq.MaxRetry(execution.MaxRetry),
asynq.Queue(queueName),
); err != nil {
newExecution.Status = TaskExecutionStatusFailed
newExecution.ErrorMessage = fmt.Sprintf("重试入队失败: %v", err)
now := time.Now()
newExecution.StartedAt = &now
newExecution.FinishedAt = &now
_ = updateTaskExecution(ctx, newExecution)
return "", fmt.Errorf(errRetryTaskEnqueueFailed, err)
}
if err := appendTaskExecutionLog(ctx, newTaskID, fmt.Sprintf("[系统] 手动触发重试,已重新创建任务并入队 (原任务ID: %s, 重试次数: %d/%d)", execution.TaskID, execution.RetryCount+1, execution.MaxRetry)); err != nil {
logger.ErrorF(ctx, "[TaskExecutor] 追加重试日志失败 taskID=%s: %v", newTaskID, err)
}
return newTaskID, nil
}
// ProcessTask Asynq 实际调用的统一处理函数
// Worker 注册时统一使用此函数,内部自动分发到对应的 TaskHandler
func ProcessTask(ctx context.Context, t *asynq.Task) error {
taskPayload := t.Payload()
ctx, taskPayload, hasRemoteTraceContext := extractTaskTraceContext(ctx, taskPayload)
// 初始化 Trace
ctx, span := otel_trace.Start(ctx, "TaskProcess_"+t.Type(), trace.WithSpanKind(trace.SpanKindConsumer))
defer span.End()
// 添加任务信息到 Span
span.SetAttributes(
attribute.String("task.type", t.Type()),
attribute.Int("task.payload_size", len(taskPayload)),
attribute.Bool("task.trace_context_propagated", hasRemoteTraceContext),
attribute.String("task.id", t.ResultWriter().TaskID()),
)
taskID := t.ResultWriter().TaskID()
// 注入 taskID 到 context
ctx = withTaskID(ctx, taskID)
// 查找处理器
handler, ok := getHandler(t.Type())
if !ok {
err := fmt.Errorf(errUnregisteredTaskHandler, t.Type())
logger.ErrorF(ctx, "[TaskExecutor] %v", err)
span.SetStatus(codes.Error, err.Error())
return err
}
// 加载或动态创建执行记录
now := time.Now()
execution, err := getOrCreateTaskExecution(ctx, taskID, t, taskPayload, now)
if err == nil {
updateExecutionOnStart(ctx, execution, now)
}
if execution != nil {
AppendLog(ctx, "[系统] 开始执行异步任务 [名称: %s, 类型: %s],重试次数: %d/%d",
execution.TaskName, t.Type(), execution.RetryCount, execution.MaxRetry)
} else {
AppendLog(ctx, "[系统] 开始执行异步任务 [类型: %s]", t.Type())
}
// 开始计时
start := time.Now()
// 执行业务逻辑
result, execErr := handler.Execute(ctx, taskPayload)
// 计算耗时并归档记录
duration := time.Since(start)
finishTime := time.Now()
completeTaskExecution(ctx, execution, t, duration, finishTime, result, execErr, span)
if execution == nil && execErr != nil {
span.SetStatus(codes.Error, execErr.Error())
return execErr
}
return execErr
}
func injectTaskTraceContext(ctx context.Context, payload []byte) []byte {
carrier := propagation.MapCarrier{}
otel.GetTextMapPropagator().Inject(ctx, carrier)
if len(carrier) == 0 {
return payload
}
envelope := traceEnvelope{
WaveletTraceEnvelope: true,
Version: traceEnvelopeVersion,
TraceContext: map[string]string(carrier),
Payload: payload,
}
data, err := json.Marshal(envelope)
if err != nil {
logger.ErrorF(ctx, "[TaskExecutor] 序列化任务 Trace 上下文失败: %v", err)
return payload
}
return data
}
func extractTaskTraceContext(ctx context.Context, payload []byte) (context.Context, []byte, bool) {
var envelope traceEnvelope
if err := json.Unmarshal(payload, &envelope); err != nil {
return ctx, payload, false
}
if !envelope.WaveletTraceEnvelope || envelope.Version != traceEnvelopeVersion {
return ctx, payload, false
}
if len(envelope.TraceContext) == 0 {
return ctx, envelope.Payload, false
}
extractedCtx := otel.GetTextMapPropagator().Extract(ctx, propagation.MapCarrier(envelope.TraceContext))
return extractedCtx, envelope.Payload, true
}
func updateExecutionOnStart(ctx context.Context, execution *TaskExecution, now time.Time) {
if execution == nil {
return
}
dirty := false
if retryCount, hasRetry := asynq.GetRetryCount(ctx); hasRetry && execution.RetryCount != retryCount {
execution.RetryCount = retryCount
dirty = true
}
if execution.Status != TaskExecutionStatusRunning {
execution.Status = TaskExecutionStatusRunning
execution.StartedAt = &now
dirty = true
}
if dirty {
if updateErr := updateTaskExecution(ctx, execution); updateErr != nil {
logger.ErrorF(ctx, "[TaskExecutor] 更新执行状态失败 taskID=%s: %v", execution.TaskID, updateErr)
}
}
}
// getOrCreateTaskExecution 获取已有的任务执行记录,如果不存在则针对已知任务类型动态创建记录
func getOrCreateTaskExecution(ctx context.Context, taskID string, t *asynq.Task, payload []byte, now time.Time) (*TaskExecution, error) {
execution, err := getTaskExecutionByTaskID(ctx, taskID)
if err == nil {
return execution, nil
}
meta := GetTaskMetaByAsynqTask(t.Type())
if meta == nil {
return nil, err
}
execution = &TaskExecution{
TaskID: taskID,
TaskType: meta.AsynqTask,
TaskName: meta.Name,
Status: TaskExecutionStatusRunning,
Retryable: meta.Retryable,
MaxRetry: meta.MaxRetry,
RetryCount: 0,
Payload: string(payload),
TriggeredBy: "schedule",
StartedAt: &now,
}
if createErr := createTaskExecution(ctx, execution); createErr != nil {
logger.ErrorF(ctx, "[TaskExecutor] 动态创建执行记录失败 taskID=%s: %v", taskID, createErr)
return nil, createErr
}
return execution, nil
}
// completeTaskExecution 完成并更新任务执行记录的状态和执行结果
func completeTaskExecution(ctx context.Context, execution *TaskExecution, t *asynq.Task, duration time.Duration, finishTime time.Time, result *TaskResult, execErr error, span trace.Span) {
if execution == nil {
return
}
execution.Duration = duration.Milliseconds()
execution.FinishedAt = &finishTime
if execErr != nil {
handleFailedTask(ctx, execution, t, duration, execErr, span)
} else {
handleSuccessfulTask(ctx, execution, t, duration, result)
}
if err := updateTaskExecution(ctx, execution); err != nil {
logger.ErrorF(ctx, "[TaskExecutor] 更新执行记录失败 taskID=%s: %v", execution.TaskID, err)
}
if shouldFlushTaskExecutionLog(ctx, execErr) {
if err := flushTaskExecutionLog(ctx, execution.TaskID); err != nil {
logger.ErrorF(ctx, "[TaskExecutor] 持久化任务日志失败 taskID=%s: %v", execution.TaskID, err)
}
}
notifyTaskCompleted(ctx, execution, result, execErr)
}
func notifyTaskCompleted(ctx context.Context, execution *TaskExecution, result *TaskResult, execErr error) {
completedHandlersMutex.RLock()
defer completedHandlersMutex.RUnlock()
if len(taskCompletedHandlers) == 0 {
return
}
asyncCtx := context.WithoutCancel(ctx)
for _, handler := range taskCompletedHandlers {
h := handler
util.Go(func() {
h(asyncCtx, execution, result, execErr)
})
}
}
func shouldFlushTaskExecutionLog(ctx context.Context, execErr error) bool {
if isTerminalTaskExecutionError(execErr) {
return true
}
retryCount, hasRetryCount := asynq.GetRetryCount(ctx)
maxRetry, hasMaxRetry := asynq.GetMaxRetry(ctx)
if !hasRetryCount || !hasMaxRetry {
return true
}
return retryCount >= maxRetry
}
func isTerminalTaskExecutionError(execErr error) bool {
return execErr == nil || errors.Is(execErr, asynq.SkipRetry)
}
func handleFailedTask(ctx context.Context, execution *TaskExecution, t *asynq.Task, duration time.Duration, execErr error, span trace.Span) {
execution.Status = TaskExecutionStatusFailed
execution.ErrorMessage = execErr.Error()
logger.ErrorF(ctx, "[TaskExecutor] 任务处理失败 Type: %s TaskID: %s Duration: %d ms Error: %v", t.Type(), execution.TaskID, duration.Milliseconds(), execErr)
span.SetStatus(codes.Error, execErr.Error())
span.RecordError(execErr)
AppendLog(ctx, "[系统] 任务执行失败,耗时: %d ms,错误原因: %v", duration.Milliseconds(), execErr)
}
func handleSuccessfulTask(ctx context.Context, execution *TaskExecution, t *asynq.Task, duration time.Duration, result *TaskResult) {
execution.Status = TaskExecutionStatusSucceeded
execution.ErrorMessage = "" // 清除历史重试失败遗留的错误信息
if result != nil {
execution.Result = result.Message
if result.Detail != "" {
execution.Result = fmt.Sprintf("%s\n%s", result.Message, result.Detail)
}
}
logger.InfoF(ctx, "[TaskExecutor] 任务处理完成 Type: %s TaskID: %s Duration: %d ms", t.Type(), execution.TaskID, duration.Milliseconds())
resultMsg := "成功"
if result != nil {
resultMsg = result.Message
}
AppendLog(ctx, "[系统] 任务执行成功,耗时: %d ms,执行结果: %s", duration.Milliseconds(), resultMsg)
}
// generateTaskID 生成任务 ID
func generateTaskID(taskType, triggeredBy string) string {
return fmt.Sprintf("%s_%s_%d", triggeredBy, taskType, idgen.NextUint64ID())
}
// generateRetryTaskID 生成重试任务 ID
func generateRetryTaskID(originalTaskID string, retryCount int) string {
return fmt.Sprintf("retry_%d_%s", retryCount, originalTaskID)
}