yatulandClaude Opus 5 305bd7c50d fix(teams): grant a delegated lead read access to its own team (#1537)
* fix(teams): scope team tasks to the delegation origin, not the delivery channel

A delegated run is delivered on the internal "delegate" channel while its real
origin is preserved separately — buildAgentLinkRunRequest is explicit about it:

    // preserves the origin's authorization-bearing identity while keeping
    // delegation on its internal delivery channel.
    Channel:          "delegate",
    WorkspaceChannel: req.Channel,
    WorkspaceChatID:  req.ChatID,

The team tools did not consult that origin, so a task created by a lead reached
through delegate was stamped with the delivery channel. Nothing is registered
for it, so every notification about that task — completion, failure, blocker
escalation, ask_user — was dropped:

    unknown channel for outbound message channel=delegate

The delegatee's first answer still arrived, because it travels back as the
delegation result rather than through a channel; everything the lead said after
the delegation closed was lost. One session produced 16 such drops, including a
blocker escalation the user needed to see.

Add OriginChannelFromCtx / OriginChatIDFromCtx next to the existing workspace
scope propagation helpers, and use them where team scoping and notification
routing are decided: task records, list/search scoping, dispatch fallbacks,
event payloads, escalation tasks, ask_user and leader notifications. The
resolution is the identity when no delegation origin is present, so
non-delegated flows are unchanged.

Deliberately not touched: the channel used in authorization decisions
(checkTeamAccess, requireLead, approve/reject lead bypass). Those ask "how did
this call arrive", not "where should the answer go", and widening them is a
separate question.

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* test(teams): cover delegated-lead completion routing and origin isolation

Triage on #1529 named two gates this PR had not met: regression coverage for
delegated lead task completion, and a guard that unrelated origins cannot
receive the notification. The existing tests only covered what create persists.

TestDelegatedLeadCompletionNotifiesOrigin completes a task raised in a delegated
context and asserts the completion event is addressed to the caller's origin.
Reverting team_event_helpers.go to the delivery channel fails it with
"addressed to delegate/system".

TestCompletionNotificationStaysWithinItsOwnOrigin puts two tasks from different
origins on one board, completes one, and asserts no completion notification
carries the other origin.

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* fix(teams): grant a delegated lead read access to its own team

Fixes #1535. Second attempt: the first one set RunRequest.TeamWorkspace on the
delegated run, which loop_context.go rejects outright and deliberately so — that
field also becomes ToolWorkspace, which would displace the exchange outputs
directory. Every delegation then died at setup with "invalid delegation artifact
workspace". This does not go near that field.

The separation the lead needs already exists in the code. A lead addressed
directly resolves its team at loop_context.go:285-321 and gets

    ctx = tools.WithToolTeamWorkspace(ctx, wsDir)
    ctx = tools.WithToolTeamRoot(ctx, teamRoot)

with no WithToolWorkspace call — a read allowance, not an override. Only the
!isArtifactDelegation gate keeps a delegated lead out of it. So the grant is
made inside the artifact branch instead, from the same inputs, and the guard on
req.TeamWorkspace stays exactly as strict as it was.

Both paths are needed. The workspace alone covers only the lead's own chat leaf;
the deliverable in the report sits at teams/<id>/system/review-....md, written by
a member under a different chat scope. buildAllowedPrefixes adds the team root
for reads and not for writes (filesystem.go:366-370), which is precisely the
asymmetry this case wants: the lead reads the team's output, per-chat write
isolation is untouched.

Team ID is deliberately not set. It switches on the workspace interceptor's
write validation, file-change broadcast and task attachment (workspace_
interceptor.go:36,114,203) — none of which a delegated run should trigger, and
none of which reading needs.

Ambiguity is not resolved silently, as triage asked: an agent leading more than
one active team gets nothing. store.GetTeamForAgent would answer in one call but
it is ORDER BY (lead_agent_id = $1) DESC LIMIT 1 and would quietly pick a team.

Hermeticity is unchanged: send_file and message still refuse inside an artifact
run, publication still happens through delegation outputs on completion.

Tests: TestInjectContext_DelegatedLeadReadsTeamWithoutDisplacingOutputs drives
injectContext through the guard that broke the first attempt and pins both
halves — the run is not refused, and ToolWorkspace stays the outputs directory.
Resolution rules, the shared/isolated path shapes, read-not-write on the team
root, and send_file staying blocked are covered alongside.

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

* test(teams): pin that the delegated lead resolver does not re-scope by tenant

l.dataDir arrives already tenant-scoped from resolver.go (config.TenantDataDir),
which is why resolveDelegatedLeadTeamRead must not apply TenantLayer itself.
That was carried only by a comment, here and in the sibling branch of
injectContext, and nothing failed if someone added the layer back.

The failure it guards against is quiet: the path stays plausible, it just gains
a second tenant segment — teams/<id> under tenants/<slug>/tenants/<slug> — so
the lead is handed a directory its own tasks never write to, and reads come back
empty rather than denied.

Verified the assertion has teeth by reintroducing the layer: the subtest fails
with "tenant segment appears 2 times". Prompted by #1546 in this same area,
where a contract that lived outside the unit under test went unpinned and the
feature shipped green and did nothing.

Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>

---------

Co-authored-by: Claude Opus 5 <noreply@anthropic.com>
2026-09-09 21:05:49 +07:00
2026-04-11 13:29:42 +07:00

GoClaw

Multi-Tenant AI Agent Platform

Multi-agent AI gateway built in Go. 20+ LLM providers. 7 channels. Multi-tenant PostgreSQL.
Single binary. Production-tested. Agents that orchestrate for you.

Documentation • Quick Start • Twitter / X

Go PostgreSQL Docker WebSocket OpenTelemetry Anthropic OpenAI License: CC BY-NC 4.0

🌐 Languages: 🇻🇳 Tiếng Việt · 🇨🇳 简体中文 · 🇯🇵 日本語 · 🇰🇷 한국어 · 🇵🇭 Tagalog · 🇪🇸 Español · 🇧🇷 Português · 🇮🇹 Italiano · 🇩🇪 Deutsch · 🇫🇷 Français · 🇸🇦 العربية · 🇮🇳 हिन्दी · 🇷🇺 Русский · 🇧🇩 বাংলা · 🇮🇱 עברית · 🇵🇱 Polski · 🇨🇿 Čeština · 🇳🇱 Nederlands · 🇹🇷 Türkçe · 🇺🇦 Українська · 🇮🇩 Bahasa Indonesia · 🇹🇭 ไทย · 🇵🇰 اردو · 🇷🇴 Română · 🇸🇪 Svenska · 🇬🇷 Ελληνικά · 🇭🇺 Magyar · 🇫🇮 Suomi · 🇩🇰 Dansk · 🇳🇴 Norsk

Core Features

  • 8-Stage Agent Pipeline — context → history → prompt → think → act → observe → memory → summarize. Pluggable stages, always-on execution
  • 4-Mode Prompt System — Full / Task / Minimal / None with section gating, cache boundary optimization, and per-session mode resolution
  • 3-Tier Memory — Working (conversation) → Episodic (session summaries) → Semantic (knowledge graph). Progressive loading L0/L1/L2
  • Knowledge Vault — Document registry with wikilinks, hybrid search (FTS + pgvector), filesystem sync
  • Agent Teams & Orchestration — Shared task boards, inter-agent delegation (sync/async), 3 orchestration modes (auto/explicit/manual)
  • Self-Evolution — Metrics → suggestions → auto-adapt with guardrails. Agents refine their own communication style
  • Multi-Tenant PostgreSQL — Per-user workspaces, per-user context files, encrypted API keys (AES-256-GCM), RBAC, isolated sessions
  • 20+ LLM Providers — Anthropic (native HTTP+SSE with prompt caching), OpenAI, OpenRouter, Groq, DeepSeek, Gemini, Mistral, xAI, MiniMax, DashScope, Claude CLI, Codex, ACP, and any OpenAI-compatible endpoint
  • 7 Messaging Channels — Telegram, Discord, Slack, Zalo OA, Zalo Personal, Feishu/Lark, WhatsApp
  • Production Security — 5-layer permission system, rate limiting, prompt injection detection, SSRF protection, AES-256-GCM encryption
  • Single Binary — ~25 MB static Go binary, no Node.js runtime, <1s startup, runs on a $5 VPS
  • Observability — Built-in LLM call tracing with spans and prompt cache metrics, optional OpenTelemetry OTLP export

Desktop Edition (GoClaw Lite)

A native desktop app for local AI agents — no Docker, no PostgreSQL, no infrastructure.

macOS:

curl -fsSL https://raw.githubusercontent.com/nextlevelbuilder/goclaw/main/scripts/install-lite.sh | bash

Windows (PowerShell):

irm https://raw.githubusercontent.com/nextlevelbuilder/goclaw/main/scripts/install-lite.ps1 | iex

What's Included

  • Single native app (Wails v2 + React), ~30 MB
  • SQLite database (zero setup)
  • Chat with agents (streaming, tools, media, file attachments)
  • Agent management (max 5), provider config, MCP servers, skills, cron
  • Team tasks with Kanban board and real-time updates
  • Auto-update from GitHub Releases

Lite vs Standard

Feature Lite (Desktop) Standard (Server)
Agents Max 5 Unlimited
Teams Max 1 (5 members) Unlimited
Database SQLite (local) PostgreSQL
Memory FTS5 text search pgvector semantic
Channels — Telegram, Discord, Slack, Zalo, Feishu, WhatsApp
Knowledge Graph — Full
RBAC / Multi-tenant — Full
Auto-update GitHub Releases Docker / binary

Building from Source

# Prerequisites: Go 1.26+, pnpm, Wails CLI (go install github.com/wailsapp/wails/v2/cmd/wails@latest)
make desktop-build                    # Build .app (macOS) or .exe (Windows)
make desktop-dmg VERSION=0.1.0        # Create .dmg installer (macOS only)
make desktop-dev                      # Dev mode with hot reload

Desktop Releases

Desktop uses independent versioning with lite-v* tags:

git tag lite-v0.1.0 && git push origin lite-v0.1.0
# → GitHub Actions builds macOS (.dmg + .tar.gz) + Windows (.zip)
# → Creates GitHub Release with all assets

Architecture

Multi-Tenant Architecture

3-Tier Memory

8-Stage Agent Pipeline

4-Mode Prompt System

Quick Start

Prerequisites: Go 1.26+, PostgreSQL 18 with pgvector, Docker (optional)

From Source

git clone -b main https://github.com/nextlevelbuilder/goclaw.git && cd goclaw
make build
./goclaw onboard        # Interactive setup wizard
source .env.local && ./goclaw

Note: The default branch is dev (active development). Use -b main to clone the stable release branch.

With Docker

# Generate .env with auto-generated secrets
chmod +x prepare-env.sh && ./prepare-env.sh

# Add at least one GOCLAW_*_API_KEY to .env, then:
make up

# If Postgres fails to start ("port 5432 already allocated"), set another host
# port in .env, e.g. POSTGRES_PORT=5433 (see .env.example).

# Web Dashboard at http://localhost:18790 (built-in)
# Health check: curl http://localhost:18790/health

# Optional: separate nginx for custom SSL/reverse proxy
# make up WITH_WEB_NGINX=1  → Dashboard at http://localhost:3000

make up creates a Docker network, embeds the correct version from git tags, builds and starts all services, and runs database migrations automatically.

Common commands:

make up                # Start all services (build + migrate)
make down              # Stop all services
make logs              # Tail logs (goclaw service)
make reset             # Wipe volumes and rebuild from scratch

Operator CLI:

The main goclaw binary can also inspect local or remote gateways:

goclaw traces list --status error
goclaw traces get <trace-id> -o json
goclaw --server https://goclaw.example.com --token "$GOCLAW_GATEWAY_TOKEN" traces follow --session <session-key>

Optional services — enable with WITH_* flags:

Flag Service What it does
WITH_BROWSER=1 Headless Chrome Enables browser tool for web scraping, screenshots, automation
WITH_OTEL=1 Jaeger OpenTelemetry tracing UI for debugging LLM calls and latency
WITH_SANDBOX=1 Docker sandbox Isolated container for running untrusted code from agents
WITH_TAILSCALE=1 Tailscale Expose gateway over Tailscale private network
WITH_REDIS=1 Redis Redis-backed caching layer

Flags can be combined and work with all commands:

# Start with browser automation and tracing
make up WITH_BROWSER=1 WITH_OTEL=1

# Stop everything including optional services
make down WITH_BROWSER=1 WITH_OTEL=1

When GOCLAW_*_API_KEY environment variables are set, the gateway auto-onboards without interactive prompts — detects provider, runs migrations, and seeds default data.

Docker image variants:

Image Description
latest Backend + embedded web UI + Python (recommended)
latest-base Backend API-only, no web UI, no runtimes
latest-full All runtimes + skill dependencies pre-installed
latest-otel Latest + OpenTelemetry tracing
goclaw-web Standalone nginx + React SPA (for custom reverse proxy)

For custom builds (Tailscale, Redis): docker build --build-arg ENABLE_TSNET=true ... See the Deployment Guide for details.

Updating

Docker

docker compose pull && docker compose up -d

Binary (with embedded web UI)

goclaw update --apply    # Downloads, verifies SHA256, swaps binary, restarts

Web Dashboard

Open About dialog → click Update Now (admin only). The update includes both backend and web dashboard when using the default latest image.

Multi-Agent Orchestration

Agent Orchestration

Each agent runs with its own identity, tools, LLM provider, and context files. Agent Links define outbound, inbound, or bidirectional permission edges. Delegation can run synchronously or asynchronously and exchanges files through an isolated delegation workspace; validated outputs are published back under the caller's .delegations/<delegation-id>/ directory.

Details: Agent Teams docs

Knowledge Vault

Knowledge Vault

Document registry with [[wikilinks]] for bidirectional linking. Hybrid search combines full-text (BM25) and semantic (pgvector) for precise retrieval. Filesystem sync keeps vault in sync with on-disk files.

Self-Evolution

Self-Evolution

Agents improve themselves through a 3-stage guardrailed pipeline: metrics collection → suggestion analysis → auto-adaptation. Can refine communication style and domain expertise (CAPABILITIES.md) — but never change identity, name, or core purpose.

Provider Adapters

Provider Adapters

20+ LLM providers unified through a single adapter interface. Capability-based routing, encrypted API keys (AES-256-GCM), extended thinking support per-provider, and prompt caching for Anthropic + OpenAI.

Event-Driven Architecture

DomainEventBus

Typed domain events power the consolidation pipeline — session summaries, knowledge graph extraction, and dreaming promotion all run asynchronously via worker pools with dedup and retry.

Built-in Tools

30+ tools across 8 categories:

Category Tools Description
Filesystem read_file, write_file, edit_file, list_files, search, glob File operations with virtual FS routing
Runtime exec, browser Shell commands (approval workflow) + browser automation
Web web_search, web_fetch Search (Brave, DuckDuckGo) + content extraction
Memory memory_search, memory_get, knowledge_graph_search 3-tier memory + KG traversal
Media create_image, create_audio, create_video, read_*, tts Generation + analysis (multi-provider)
Skills skill_search, use_skill, skill_manage BM25 + semantic hybrid search
Teams team_tasks, spawn, delegate, message Task board + orchestration + messaging
Automation cron, heartbeat, sessions_* Scheduling + session management

Full tool reference at docs.goclaw.sh

Webhook API

Trigger agents or send channel messages from external systems without the gateway token.

# Bearer auth — sync LLM call
curl -X POST https://example.com/v1/webhooks/llm \
  -H "Authorization: Bearer wh_..." \
  -H "Content-Type: application/json" \
  -d '{"input":"Summarize today metrics","mode":"sync"}'

# HMAC auth — sign with hmac_signing_key from create response
TS=$(date +%s); BODY='{"input":"hi","mode":"sync"}'
SIG=$(echo -n "${TS}.${BODY}" | openssl dgst -sha256 -mac HMAC \
      -macopt "hexkey:${WEBHOOK_HMAC_KEY}" | awk '{print $2}')
curl -X POST https://example.com/v1/webhooks/llm \
  -H "Content-Type: application/json" \
  -H "X-Webhook-Id: ${WEBHOOK_ID}" \
  -H "X-GoClaw-Signature: t=${TS},v1=${SIG}" \
  -d "$BODY"

See docs/webhooks.md for the full reference: auth, async callbacks, retry schedule, HMAC examples, channel matrix.

Documentation

Full documentation at docs.goclaw.sh — or browse the source in goclaw-docs/

Section Topics
Getting Started Installation, Quick Start, Configuration, Web Dashboard Tour
Core Concepts Agent Loop, Sessions, Tools, Memory, Multi-Tenancy
Agents Creating Agents, Context Files, Personality, Sharing & Access
Providers Anthropic, OpenAI, OpenRouter, Gemini, DeepSeek, +15 more
Channels Telegram, Discord, Slack, Feishu, Zalo, WhatsApp, WebSocket
Agent Teams Teams, Task Board, Messaging, Delegation & Handoff
Advanced Custom Tools, MCP, Skills, Cron, Sandbox, Hooks, RBAC
Deployment Docker Compose, Database, Security, Observability, Tailscale
Reference CLI Commands, REST API, WebSocket Protocol, Environment Variables

Testing

go test ./...                                    # Unit tests
go test -v ./tests/integration/ -timeout 120s    # Integration tests (requires running gateway)

Project Status

See CHANGELOG.md for detailed feature status including what's been tested in production and what's still in progress.

Acknowledgments

GoClaw was originally inspired by the OpenClaw project architecture.

License

CC BY-NC 4.0 — Creative Commons Attribution-NonCommercial 4.0 International

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GoClaw - GoClaw is OpenClaw rebuilt in Go — with multi-tenant isolation, 5-layer security, and native concurrency. Deploy AI agent teams at scale without compromising on safety.
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