Files
goclaw/cmd/gateway_consumer_normal.go
T
2026-07-07 09:53:02 +07:00

756 lines
31 KiB
Go

package cmd
import (
"context"
"errors"
"fmt"
"log/slog"
"strings"
"time"
"github.com/google/uuid"
"github.com/nextlevelbuilder/goclaw/internal/agent"
"github.com/nextlevelbuilder/goclaw/internal/bus"
"github.com/nextlevelbuilder/goclaw/internal/channels"
"github.com/nextlevelbuilder/goclaw/internal/channels/bitrix24"
"github.com/nextlevelbuilder/goclaw/internal/channels/telegram/voiceguard"
"github.com/nextlevelbuilder/goclaw/internal/i18n"
"github.com/nextlevelbuilder/goclaw/internal/scheduler"
"github.com/nextlevelbuilder/goclaw/internal/sessions"
"github.com/nextlevelbuilder/goclaw/internal/store"
"github.com/nextlevelbuilder/goclaw/internal/tools"
)
// processNormalMessage handles routing, scheduling, and response delivery for a single
// (possibly merged) inbound message. Called directly by the debouncer's flush callback.
func processNormalMessage(
ctx context.Context,
msg bus.InboundMessage,
deps *ConsumerDeps,
) {
// Inject tenant from channel instance into context so all store operations
// (agent lookup, session creation, etc.) are tenant-scoped.
if msg.TenantID != uuid.Nil {
ctx = store.WithTenantID(ctx, msg.TenantID)
} else {
ctx = store.WithTenantID(ctx, store.MasterTenantID)
}
// Determine target agent via bindings or explicit AgentID
agentID := msg.AgentID
if agentID == "" {
agentID = resolveAgentRouteForInbound(ctx, deps.Cfg, deps.AgentStore, msg.Channel, msg.ChatID, msg.PeerKind)
}
agentLoop, err := deps.Agents.Get(ctx, agentID)
if err != nil {
slog.Warn("inbound: agent not found", "agent", agentID, "channel", msg.Channel, "error", err)
errContent := formatAgentError(err)
if deps.ChannelMgr != nil {
if ct := deps.ChannelMgr.ChannelTypeForName(msg.Channel); isExternalChannel(ct) {
errContent = ""
}
}
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: msg.Channel,
ChatID: msg.ChatID,
Content: errContent,
Metadata: msg.Metadata,
TenantID: msg.TenantID,
})
return
}
// Build session key based on scope config (matching TS buildAgentPeerSessionKey).
peerKind := msg.PeerKind
if peerKind == "" {
peerKind = string(sessions.PeerDirect) // default to DM
}
sessionKey := sessions.BuildScopedSessionKey(agentID, msg.Channel, sessions.PeerKind(peerKind), msg.ChatID)
// Thread-based isolation override (e.g. Slack DM threads, AI Panel)
if lk := msg.Metadata["local_key"]; lk != "" && strings.Contains(lk, ":thread:") {
parts := strings.SplitN(lk, ":thread:", 2)
if len(parts) == 2 {
sessionKey = sessions.BuildScopedThreadSessionKey(agentID, msg.Channel, sessions.PeerKind(peerKind), msg.ChatID, parts[1])
}
}
// Forum topic: override session key to isolate per-topic history.
// TS ref: buildTelegramGroupPeerId() in src/telegram/bot/helpers.ts
if msg.Metadata[tools.MetaIsForum] == "true" && peerKind == string(sessions.PeerGroup) {
var topicID int
fmt.Sscanf(msg.Metadata[tools.MetaMessageThreadID], "%d", &topicID)
if topicID > 0 {
sessionKey = sessions.BuildGroupTopicSessionKey(agentID, msg.Channel, msg.ChatID, topicID)
}
}
// DM thread: override session key to isolate per-thread history in private chats.
if msg.Metadata[tools.MetaDMThreadID] != "" && peerKind == string(sessions.PeerDirect) {
var threadID int
fmt.Sscanf(msg.Metadata[tools.MetaDMThreadID], "%d", &threadID)
if threadID > 0 {
sessionKey = sessions.BuildDMThreadSessionKey(agentID, msg.Channel, msg.ChatID, threadID)
}
}
// Group-scoped UserID: context files, memory, traces, and seeding scope.
// See deriveGroupUserID for the precedence (Discord guild → openline
// participant → group fallback). Individual senderID is preserved in
// InboundMessage for pairing/dedup/mention gating regardless of scope.
userID := deriveGroupUserID(msg, peerKind)
// Persist friendly names from channel metadata into session + user profile.
sessionMeta := extractSessionMetadata(msg, peerKind)
if len(sessionMeta) > 0 {
deps.SessStore.SetSessionMetadata(ctx, sessionKey, sessionMeta)
if deps.AgentStore != nil {
if agentUUID, err := uuid.Parse(agentID); err == nil && agentUUID != uuid.Nil {
_ = deps.AgentStore.UpdateUserProfileMetadata(ctx, agentUUID, userID, sessionMeta)
}
}
}
// Set session label for Pancake channels: "Pancake:{SenderName}:{PageName}"
if msg.Metadata["pancake_mode"] != "" {
label := buildPancakeSessionLabel(msg.Metadata["display_name"], msg.Metadata["page_name"])
deps.SessStore.SetLabel(ctx, sessionKey, label)
}
// Auto-collect channel contacts for the contact selector.
// Skip internal senders (system:*, notification:*, teammate:*, ticker:*, session_send_tool).
if deps.ContactCollector != nil && msg.SenderID != "" && !bus.IsInternalSender(msg.SenderID) {
senderNumericID := msg.SenderID
if idx := strings.IndexByte(senderNumericID, '|'); idx > 0 {
senderNumericID = senderNumericID[:idx]
}
channelType := deps.ChannelMgr.ChannelTypeForName(msg.Channel)
if channelType == "" {
channelType = msg.Channel // fallback to instance name
}
displayName := sessionMeta["display_name"]
username := sessionMeta["username"]
deps.ContactCollector.EnsureContact(ctx, channelType, msg.Channel, senderNumericID, userID, displayName, username, peerKind, "user", "", "")
// Also collect group chat as a contact (for group permission management / merge).
// Group IDs (e.g., Telegram "-100456") differ from user IDs — no UNIQUE conflict.
if peerKind == string(sessions.PeerGroup) && msg.ChatID != "" {
groupTitle := msg.Metadata[tools.MetaChatTitle] // Telegram: message.Chat.Title
deps.ContactCollector.EnsureContact(ctx, channelType, msg.Channel, msg.ChatID, "", groupTitle, "", "group", "group", "", "")
}
}
// --- Resolve merged tenant user identity ---
// If the sender has been merged to a tenant_user, use the tenant user's ID
// for DM sessions. This enables per-user features (MCP creds, SecureCLI creds).
// Group sessions keep the group-scoped userID; sender resolution happens via SenderID.
if deps.ContactCollector != nil && peerKind == string(sessions.PeerDirect) && msg.SenderID != "" && !bus.IsInternalSender(msg.SenderID) {
senderNumeric := msg.SenderID
if idx := strings.IndexByte(senderNumeric, '|'); idx > 0 {
senderNumeric = senderNumeric[:idx]
}
chType := deps.ChannelMgr.ChannelTypeForName(msg.Channel)
if chType == "" {
chType = msg.Channel
}
if resolved, err := deps.ContactCollector.ResolveTenantUserID(ctx, chType, senderNumeric); err == nil && resolved != "" {
slog.Debug("contact.resolved_tenant_user", "sender", senderNumeric, "tenant_user", resolved)
userID = resolved
}
}
// --- Quota check ---
if deps.QuotaChecker != nil {
qResult := deps.QuotaChecker.Check(ctx, userID, msg.Channel, agentLoop.ProviderName())
if !qResult.Allowed {
slog.Warn("security.quota_exceeded",
"user_id", userID,
"channel", msg.Channel,
"window", qResult.Window,
"used", qResult.Used,
"limit", qResult.Limit,
)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: msg.Channel,
ChatID: msg.ChatID,
Content: formatQuotaExceeded(qResult),
Metadata: msg.Metadata,
})
return
}
deps.QuotaChecker.Increment(userID)
}
// Auto-clear followup reminders when user sends a message on a real channel.
// Fire-and-forget: don't block message processing.
if deps.TeamStore != nil && msg.Channel != tools.ChannelSystem && msg.Channel != tools.ChannelTeammate && msg.Channel != tools.ChannelDashboard {
go func(ch, cid string) {
if n, err := deps.TeamStore.ClearFollowupByScope(ctx, ch, cid); err != nil {
slog.Warn("auto-clear followup failed", "channel", ch, "chat_id", cid, "error", err)
} else if n > 0 {
slog.Info("auto-clear followup: cleared", "channel", ch, "chat_id", cid, "count", n)
}
}(msg.Channel, msg.ChatID)
}
slog.Info("inbound: scheduling message (main lane)",
"channel", msg.Channel,
"chat_id", msg.ChatID,
"peer_kind", peerKind,
"agent", agentID,
"session", sessionKey,
"user_id", userID,
)
isGroup := peerKind == string(sessions.PeerGroup)
channelStream := deps.ChannelMgr != nil && deps.ChannelMgr.IsStreamingChannel(msg.Channel, isGroup)
reasoningDelivery := channels.ResolveReasoningDelivery("", nil)
if deps.ChannelMgr != nil {
reasoningDelivery = deps.ChannelMgr.ResolveReasoningDelivery(msg.Channel)
}
providerStream := channels.ShouldStreamProviderForDelivery(channelStream, reasoningDelivery)
// Group chats allow concurrent runs (multiple users can chat simultaneously).
maxConcurrent := 1
if peerKind == string(sessions.PeerGroup) {
maxConcurrent = 3
}
runID := fmt.Sprintf("inbound-%s-%s-%s", msg.Channel, msg.ChatID, uuid.NewString()[:8])
// Build outbound metadata for reply-to + thread routing BEFORE RegisterRun
// so block.reply handler can use it for routing intermediate messages.
outMeta := channels.CopyFinalRoutingMeta(msg.Metadata)
if isGroup {
if mid := msg.Metadata["message_id"]; mid != "" {
outMeta["reply_to_message_id"] = mid
}
// Address the asker so multi-user group chats render a clear "this
// reply is for X" signal. Today this is Bitrix24-specific (channel
// renders [USER=<id>][/USER] BBCode); other channels ignore the key.
// Skip synthetic senders (ticker, notification, system) — those have
// no real user to @mention.
if msg.SenderID != "" && !bus.IsInternalSender(msg.SenderID) {
outMeta["bitrix_address_user_id"] = msg.SenderID
}
}
// Forward Bitrix24-specific routing keys so Send() can:
// 1. Branch v2 public vs v1 whisper (bitrix_visibility)
// 2. Set fields.replyId on v2 public reply (bitrix_message_id)
// CopyFinalRoutingMeta is channel-agnostic and doesn't include these.
if v := msg.Metadata[bitrix24.MetaKeyVisibility]; v != "" {
outMeta[bitrix24.MetaKeyVisibility] = v
}
if v := msg.Metadata[bitrix24.MetaKeyMessageID]; v != "" {
outMeta[bitrix24.MetaKeyMessageID] = v
}
// Openline sender tag captured on inbound → Send() prepends it to the reply
// so the connector routes the answer back to the right external user.
if v := msg.Metadata[bitrix24.MetaKeySenderPrefix]; v != "" {
outMeta[bitrix24.MetaKeySenderPrefix] = v
}
// Register run with channel manager for streaming/reaction event forwarding.
// Use localKey (composite key with topic suffix) so streaming/reaction events
// route to the correct per-topic state in the channel.
messageID := msg.Metadata["message_id"]
chatIDForRun := msg.ChatID
if lk := msg.Metadata["local_key"]; lk != "" {
chatIDForRun = lk
}
chatBehavior := channels.ResolvedChatBehavior{}
if deps.ChannelMgr != nil {
workspaceBehavior := channels.ChatBehaviorConfigWithIntermediateDefault(deps.Cfg.Gateway.ChatBehavior, deps.Cfg.Gateway.BlockReply)
agentBehavior := channels.ParseAgentDeliveryBehaviorConfig(agentLoop.OtherConfig())
chatBehavior = deps.ChannelMgr.ResolveChatBehaviorWithAgent(msg.Channel, workspaceBehavior, agentBehavior)
}
blockReply := deps.ChannelMgr != nil && chatBehavior.IntermediateReplies.Enabled
deliveryRuntime := buildDeliveryRuntime(ctx, deps, agentLoop, chatBehavior, msg, userID, peerKind, resolveChannelType(deps.ChannelMgr, msg.Channel), agentID)
toolStatus := deps.Cfg.Gateway.ToolStatus == nil || *deps.Cfg.Gateway.ToolStatus // default true
if deps.ChannelMgr != nil {
deps.ChannelMgr.RegisterRunWithDelivery(runID, msg.Channel, chatIDForRun, messageID, outMeta, msg.TenantID, channelStream, blockReply, toolStatus, chatBehavior, deliveryRuntime, reasoningDelivery)
}
// Group-aware system prompt: help the LLM adapt tone and behavior for group chats.
var extraPrompt string
if peerKind == string(sessions.PeerGroup) {
extraPrompt = "You are in a GROUP chat (multiple participants), not a private 1-on-1 DM.\n" +
"- Messages may include a [Chat messages since your last reply] section with recent group history. Each history line shows \"sender [time]: message\".\n" +
"- The current message includes a [From: sender_name] tag identifying who @mentioned you.\n" +
"- Keep responses concise and focused; long replies are disruptive in groups.\n" +
"- Write like a human. Avoid Markdown tables. Use real line breaks sparingly.\n" +
"- Address the group naturally. If the history shows a multi-person conversation, consider the full context before answering."
}
// Append per-topic system prompt (from group/topic config hierarchy).
if tsp := msg.Metadata[tools.MetaTopicSystemPrompt]; tsp != "" {
if extraPrompt != "" {
extraPrompt += "\n\n"
}
extraPrompt += tsp
}
// Append channel-provided self-identity hint (e.g. "You are @bot (Name) on Telegram").
// Prevents the LLM from treating its own platform handle as another bot when users
// @mention it directly or reference it alongside another bot in multi-bot groups.
if identity := msg.Metadata[tools.MetaChannelSelfIdentity]; identity != "" {
if extraPrompt != "" {
extraPrompt += "\n\n"
}
extraPrompt += identity
}
// Append Bitrix24 entity binding hint so MCP-equipped agents can resolve
// "this deal/task/lead" deterministically. The channel layer (bitrix24/handle.go)
// forwards data[PARAMS][CHAT_ENTITY_TYPE] + CHAT_ENTITY_ID into Metadata
// whenever the chat is bound to a Bitrix24 module entity. Plain user-created
// chats omit both keys → no hint added (avoids polluting unrelated chats).
//
// We deliberately keep this simple "system prompt injection" approach for now.
// The LLM still has to call MCP tools to fetch fresh data — we only tell it
// WHICH entity is in scope, not WHAT the data is. See
// plans/bitrix24-mcp-refactor/reports/event-payloads.md for the metadata
// contract and the phase plan for the optional pre-fetch upgrade.
if et, eid := msg.Metadata["bitrix_chat_entity_type"], msg.Metadata["bitrix_chat_entity_id"]; et != "" && eid != "" {
// Defense-in-depth against prompt injection from webhook-sourced metadata.
// Bitrix server-side normally constrains these to short alphanumeric ids
// (e.g. "DEAL|2064", "TASKS"), but treating them as untrusted prevents a
// malicious or compromised portal from steering the system prompt via
// crafted CHAT_ENTITY_ID values.
if isSafeBitrixEntityToken(et, 64) && isSafeBitrixEntityToken(eid, 128) {
if extraPrompt != "" {
extraPrompt += "\n\n"
}
extraPrompt += fmt.Sprintf(
"## Channel context — Bitrix24 entity binding\n"+
"This chat is bound to a Bitrix24 entity (type=%s, id=%s).\n"+
"When the user refers to \"this deal\", \"this task\", \"this lead\", or similar deictic phrases, treat them as referring to id %s.\n"+
"CRM ids use pipe format (e.g. \"DEAL|2064\" — split on '|' and use the numeric part with the matching MCP tool such as crm.deal.get / crm.lead.get / crm.contact.get / crm.company.get).\n"+
"Tasks ids are plain numbers — pass directly to tasks.task.get.\n"+
"Do not ask the user which deal/task this is; you already know.",
et, eid, eid,
)
} else {
slog.Warn("security.bitrix24.entity_metadata_rejected",
"channel", msg.Channel, "et_len", len(et), "eid_len", len(eid))
}
}
// Per-topic skill filter override (from group/topic config hierarchy).
var skillFilter []string
if ts := msg.Metadata[tools.MetaTopicSkills]; ts != "" {
skillFilter = strings.Split(ts, ",")
}
// Delegation announces carry media as ForwardMedia (not deleted, forwarded to output).
// User-uploaded media goes in Media (loaded as images for LLM, then deleted).
var reqMedia, fwdMedia []bus.MediaFile
if msg.Metadata["delegation_id"] != "" || msg.Metadata["subagent_id"] != "" {
fwdMedia = msg.Media
} else {
reqMedia = msg.Media
}
// Intent classify fast-path: when agent is busy on DM, classify user intent
// to detect status queries, cancel requests, or steer/new_task for mid-run injection.
// Only for DM (maxConcurrent=1) where messages queue behind the active run.
if maxConcurrent == 1 && deps.Agents.IsSessionBusy(sessionKey) {
if loop, ok := agentLoop.(*agent.Loop); ok && loop.Provider() != nil {
locale := msg.Metadata["locale"]
if locale == "" {
locale = "en"
}
classifyCtx := ctx
if uid := loop.UUID(); uid != uuid.Nil {
classifyCtx = store.WithAgentID(classifyCtx, uid)
}
intent := agent.ClassifyIntentWithUsageCaps(classifyCtx, deps.UsageCaps, loop.Provider(), loop.Model(), msg.Content)
switch intent {
case agent.IntentStatusQuery:
status := deps.Agents.GetActivity(sessionKey)
reply := agent.FormatStatusReply(status, locale)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: msg.Channel,
ChatID: msg.ChatID,
Content: reply,
Metadata: outMeta,
})
return
case agent.IntentCancel:
aborted := deps.Agents.AbortRunsForSession(sessionKey)
if len(aborted) > 0 {
slog.Info("inbound: cancelled runs via intent classify",
"session", sessionKey, "aborted", aborted)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: msg.Channel,
ChatID: msg.ChatID,
Content: i18n.T(locale, i18n.MsgCancelledReply),
Metadata: outMeta,
})
}
return
case agent.IntentSteer:
// Steer: inject into running loop to redirect/add to current task.
injected := deps.Agents.InjectMessage(sessionKey, agent.InjectedMessage{
Content: msg.Content,
UserID: userID,
})
if injected {
slog.Info("inbound: injected steer message",
"session", sessionKey)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: msg.Channel,
ChatID: msg.ChatID,
Content: i18n.T(locale, i18n.MsgInjectedAck),
Metadata: outMeta,
})
return
}
// Fallback: injection failed (channel full) → fall through to scheduler queue
slog.Info("inbound: steer injection failed, queueing as normal",
"session", sessionKey)
case agent.IntentNewTask:
// New unrelated request: fall through to scheduler queue
slog.Info("inbound: new task queued behind active run",
"session", sessionKey)
}
}
}
inboundMessage := msg.Content
// Inject tenant context from channel instance so all store queries are tenant-scoped.
if msg.TenantID != uuid.Nil {
ctx = store.WithTenantID(ctx, msg.TenantID)
}
gate := applyTeamWorkGateForInbound(ctx, deps, msg, sessionKey, agentID, peerKind, agentLoop.UUID(), skillFilter, agentLoop.Provider(), agentLoop.Model())
inboundMessage = gate.Message
// Inject post-turn dispatch tracker so team task creates are deferred.
ptd := tools.NewPendingTeamDispatch()
schedCtx := tools.WithPendingTeamDispatch(ctx, ptd)
// Propagate run_kind from metadata (e.g. "notification" for team task status relays).
if rk := msg.Metadata["run_kind"]; rk != "" {
schedCtx = tools.WithRunKind(schedCtx, rk)
}
// Resolve effective sender: prefer MetaOriginSenderID when the on-wire
// SenderID is an internal/synthetic one (e.g. "notification:progress",
// "ticker:system", "system:escalation", "session_send_tool"). This lets
// system-initiated turns that DO have a real user behind them (because
// they propagated the origin via metadata) attribute actions to that user
// — e.g. for CheckFileWriterPermission in group chats (#915). Synthetic
// senders without propagation keep their on-wire value and hit F1's
// deny-in-group rule (safe default).
effectiveSenderID := msg.SenderID
if bus.IsInternalSender(effectiveSenderID) {
// Defense-in-depth: if a propagation bug ever writes a synthetic
// value into MetaOriginSenderID, do NOT honour it. We want only real
// user senders to override the on-wire synthetic.
if realSender := msg.Metadata[tools.MetaOriginSenderID]; realSender != "" && !bus.IsInternalSender(realSender) {
effectiveSenderID = realSender
}
}
// Role propagation: carry the RBAC role of the originating actor so
// permission checks during the re-ingress turn can bypass per-user
// grants for authenticated admins (#915). Only present when the
// upstream dispatch set MetaOriginRole.
effectiveRole := msg.Metadata[tools.MetaOriginRole]
// Schedule through main lane (per-session concurrency controlled by maxConcurrent)
outCh := deps.Sched.ScheduleWithOpts(schedCtx, "main", agent.RunRequest{
SessionKey: sessionKey,
Message: inboundMessage,
Media: reqMedia,
ForwardMedia: fwdMedia,
Channel: msg.Channel,
ChannelType: resolveChannelType(deps.ChannelMgr, msg.Channel),
// Forward Bitrix24 portal domain from channel metadata so the
// system prompt can teach the LLM the correct entity URL host.
// Empty for non-bitrix24 channels — section is skipped downstream.
BitrixPortalDomain: msg.Metadata["bitrix_portal"],
ChatTitle: msg.Metadata[tools.MetaChatTitle],
ChatID: msg.ChatID,
WorkspaceChatID: msg.ChatID,
PeerKind: peerKind,
LocalKey: msg.Metadata["local_key"],
UserID: userID,
SenderID: effectiveSenderID,
Role: effectiveRole,
SenderName: resolveSenderName(msg),
RunID: runID,
Stream: providerStream,
HistoryLimit: msg.HistoryLimit,
ToolAllow: msg.ToolAllow,
TelegramManagerPermissions: msg.TelegramManagerPermissions,
ExtraSystemPrompt: extraPrompt,
TeamWorkDirective: gate.Directive,
SkillFilter: skillFilter,
}, scheduler.ScheduleOpts{
MaxConcurrent: maxConcurrent,
})
// Handle result asynchronously to not block the flush callback.
go func(agentKey, channel, chatID, session, rID, peerKind, inboundContent string, meta map[string]string, blockReplyEnabled bool, chatBehavior channels.ResolvedChatBehavior, streaming bool, ptd *tools.PendingTeamDispatch, tenantID, agentUUID uuid.UUID, agentOtherConfig []byte) {
outcome := <-outCh
// Release team create lock — tasks already visible in DB, other goroutines can list.
ptd.ReleaseTeamLock()
// Post-turn: dispatch pending team tasks created during this turn.
if deps.PostTurn != nil {
for teamID, taskIDs := range ptd.Drain() {
if err := deps.PostTurn.ProcessPendingTasks(ctx, teamID, taskIDs); err != nil {
slog.Warn("post_turn: failed", "team_id", teamID, "error", err)
}
}
}
// Clean up run tracking (in case HandleAgentEvent didn't fire for terminal events)
interimDelivered := 0
lastInterimReply := ""
if deps.ChannelMgr != nil {
interimDelivered, lastInterimReply = deps.ChannelMgr.InterimDeliverySnapshot(rID)
deps.ChannelMgr.UnregisterRun(rID)
}
if outcome.Err != nil {
// Don't send error for cancelled runs (/stop command) —
// publish empty outbound to clean up thinking/typing indicators.
if errors.Is(outcome.Err, context.Canceled) {
slog.Info("inbound: run cancelled", "channel", channel, "session", session)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: channel,
ChatID: chatID,
Content: "",
Metadata: meta,
TenantID: tenantID,
AgentID: agentUUID,
})
return
}
slog.Error("inbound: agent run failed", "error", outcome.Err, "channel", channel)
// Suppress technical error text on public-facing channels (FB, Telegram, etc.)
// Empty Content still triggers placeholder/typing cleanup downstream.
errContent := formatAgentError(outcome.Err)
if deps.ChannelMgr != nil {
if ct := deps.ChannelMgr.ChannelTypeForName(channel); isExternalChannel(ct) {
slog.Info("inbound: suppressed error for external channel", "channel", channel, "type", ct)
errContent = ""
}
}
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: channel,
ChatID: chatID,
Content: errContent,
Metadata: meta,
TenantID: tenantID,
AgentID: agentUUID,
})
return
}
// Suppress empty/NO_REPLY responses (matching TS normalize-reply.ts).
// Still publish an empty outbound so channels can clean up placeholder/thinking indicators.
if outcome.Result.Content == "" || agent.IsSilentReply(outcome.Result.Content) {
slog.Info("inbound: suppressed silent/empty reply",
"channel", channel,
"chat_id", chatID,
"session", session,
)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: channel,
ChatID: chatID,
Content: "",
Metadata: meta,
TenantID: tenantID,
AgentID: agentUUID,
})
return
}
// Dedup: if interim replies were delivered and the final content matches the last
// block reply, suppress the final message to avoid duplicate delivery.
// This uses channel delivery state, not emitted pipeline events, because streaming
// runs and quick-ack-disabled initial block replies can intentionally suppress them.
if interimDelivered > 0 && outcome.Result.Content == lastInterimReply && len(outcome.Result.Media) == 0 {
slog.Debug("inbound: dedup final message (matches last block reply)",
"channel", channel, "run_id", rID)
deps.MsgBus.PublishOutbound(bus.OutboundMessage{
Channel: channel,
ChatID: chatID,
Content: "",
Metadata: meta,
TenantID: tenantID,
AgentID: agentUUID,
})
return
}
// Sanitize voice agent replies: replace technical errors with user-friendly fallback.
replyContent := voiceguard.SanitizeReply(
deps.Cfg.Channels.Telegram.VoiceAgentID, agentKey,
channel, peerKind, inboundContent, outcome.Result.Content,
deps.Cfg.Channels.Telegram.AudioGuardFallbackTranscript,
deps.Cfg.Channels.Telegram.AudioGuardFallbackNoTranscript,
deps.Cfg.Channels.Telegram.AudioGuardErrorMarkers,
)
// Publish response back to the channel
outMsg := bus.OutboundMessage{
Channel: channel,
ChatID: chatID,
Content: replyContent,
Metadata: meta,
TenantID: tenantID,
AgentID: agentUUID,
AgentOtherConfig: agentOtherConfig,
}
appendMediaToOutbound(&outMsg, outcome.Result.Media)
parts := []string{replyContent}
if !streaming && len(outMsg.Media) == 0 {
parts = channels.SplitFinalMessages(replyContent, chatBehavior.FinalSplit)
}
for i, part := range parts {
msgPart := outMsg
msgPart.Content = part
if i > 0 {
msgPart.Metadata = channels.CopyFollowupRoutingMeta(meta)
if chatBehavior.FinalSplit.DelayMs > 0 {
time.Sleep(time.Duration(chatBehavior.FinalSplit.DelayMs) * time.Millisecond)
}
}
deps.MsgBus.PublishOutbound(msgPart)
}
// Auto-set followup when lead agent replies on a real channel with in_progress tasks.
if deps.TeamStore != nil && channel != tools.ChannelSystem && channel != tools.ChannelTeammate && channel != tools.ChannelDashboard {
go autoSetFollowup(ctx, deps.TeamStore, deps.AgentStore, agentKey, channel, chatID, replyContent)
}
}(agentID, msg.Channel, msg.ChatID, sessionKey, runID, peerKind, inboundMessage, outMeta, blockReply, chatBehavior, channelStream, ptd, msg.TenantID, agentLoop.UUID(), agentLoop.OtherConfig())
}
func buildDeliveryRuntime(ctx context.Context, deps *ConsumerDeps, agentLoop agent.Agent, behavior channels.ResolvedChatBehavior, msg bus.InboundMessage, userID, peerKind, channelType, agentKey string) channels.DeliveryRuntime {
locale := msg.Metadata["locale"]
if locale == "" {
locale = "auto"
}
runtime := channels.DeliveryRuntime{
Locale: locale,
Inbound: msg.Content,
PeerKind: peerKind,
Channel: channelType,
AgentName: agentKey,
PersonaBrief: deliveryPersonaBrief(ctx, agentLoop, userID),
}
if behavior.Enabled && behavior.QuickAck.Enabled {
switch behavior.QuickAck.Mode {
case channels.QuickAckModeLLMGenerated, channels.QuickAckModeSidecar, "":
runtime.QuickAckGenerator = buildDeliveryGenerator(ctx, deps, agentLoop, msg.TenantID, behavior.QuickAck.Provider, behavior.QuickAck.Model)
}
}
if behavior.Enabled && behavior.IntermediateReplies.Enabled {
switch behavior.IntermediateReplies.Mode {
case channels.IntermediateModeSidecar, channels.QuickAckModeLLMGenerated, "":
runtime.ProgressGenerator = buildDeliveryGenerator(ctx, deps, agentLoop, msg.TenantID, behavior.IntermediateReplies.Provider, behavior.IntermediateReplies.Model)
}
}
return runtime
}
type deliveryPersonaProvider interface {
DeliveryPersonaBrief(context.Context, string) string
}
func deliveryPersonaBrief(ctx context.Context, agentLoop agent.Agent, userID string) string {
if agentLoop == nil {
return ""
}
if provider, ok := agentLoop.(deliveryPersonaProvider); ok {
return provider.DeliveryPersonaBrief(ctx, userID)
}
return ""
}
func buildDeliveryGenerator(ctx context.Context, deps *ConsumerDeps, agentLoop agent.Agent, tenantID uuid.UUID, providerName, model string) channels.DeliveryMessageGenerator {
provider := agentLoop.Provider()
resolvedProviderName := agentLoop.ProviderName()
if providerName != "" && deps.ProviderReg != nil {
if p, err := deps.ProviderReg.Get(ctx, providerName); err == nil {
provider = p
resolvedProviderName = providerName
} else {
slog.Warn("channel delivery: configured provider unavailable, falling back to agent provider", "provider", providerName, "error", err)
}
}
if provider == nil {
return nil
}
if model == "" {
model = agentLoop.Model()
}
return channels.ProviderDeliveryMessageGenerator{
Provider: provider,
ProviderName: resolvedProviderName,
Model: model,
UsageCaps: deps.UsageCaps,
TenantID: tenantID,
AgentID: agentLoop.UUID(),
}
}
// isSafeBitrixEntityToken validates a webhook-sourced Bitrix entity token before
// it is interpolated into the agent system prompt. Rejects empty, oversized, or
// control-character payloads to prevent prompt-injection from a crafted portal
// event. Allowed character set is intentionally permissive (Bitrix entity ids
// include letters, digits, '|', '_', '-') — the goal is to block newlines and
// formatting characters that could break out of the prompt template, not to
// enforce a strict id grammar.
func isSafeBitrixEntityToken(s string, maxLen int) bool {
if s == "" || len(s) > maxLen {
return false
}
for _, r := range s {
if r < 0x20 || r == 0x7f {
return false
}
}
return true
}
// deriveGroupUserID computes the per-message scope userID used for context
// files, memory, traces, and seeding. Direct messages keep msg.UserID. Group
// messages pick a synthetic scope, in precedence order:
//
// 1. Discord guild member: "guild:{guildID}:user:{senderID}" — per-user across
// every channel in the same server.
// 2. Openline participant: the per-participant id minted by bitrix24/handle.go
// ("openlines:{instance}:{chat}:{uid}") when a connector relayed a customer
// message carrying a stable uid — so each external person gets their own
// USER.md / memory instead of collapsing into the shared connector proxy.
// Absent for legacy/name-only/operator messages → falls through.
// 3. Group fallback: "group:{channel}:{chatID}" — shared by everyone in the chat.
//
// The individual senderID stays on InboundMessage for pairing / dedup / mention
// gating regardless of which scope is chosen.
func deriveGroupUserID(msg bus.InboundMessage, peerKind string) string {
if peerKind != string(sessions.PeerGroup) || msg.ChatID == "" {
return msg.UserID
}
switch {
case msg.Metadata["guild_id"] != "" && msg.SenderID != "":
return fmt.Sprintf("guild:%s:user:%s", msg.Metadata["guild_id"], msg.SenderID)
case msg.Metadata[bitrix24.MetaKeyParticipantUserID] != "":
return msg.Metadata[bitrix24.MetaKeyParticipantUserID]
default:
return fmt.Sprintf("group:%s:%s", msg.Channel, msg.ChatID)
}
}