google-workspace-unlimited
🚀 GoogleUnlimited Google Workspace Plattform
GoogleUnlimited ist ein umfassendes MCP-Framework, das eine nahtlose Google Workspace-Integration durch eine fortschrittliche Middleware-Architektur bietet. Es ermöglicht KI-Assistenten und MCP-Clients, mit Gmail, Google Drive, Docs, Sheets, Slides, Calendar, Forms, Chat, Photos und Contacts (People API) über eine einheitliche, sichere API zu interagieren.
Was es auszeichnet:
⚡ Code Mode standardmäßig – statt Ihren Client mit über 90 Tool-Schemas zu überfluten, stellt der Server 7 schlanke Meta-Tools bereit; die KI entdeckt Tools bei Bedarf und verkettet echte API-Aufrufe in einem einzigen Sandbox-
execute-Block.🚀 Start ohne Konfiguration – der Server läuft sofort ohne
.env-Datei; OAuth erfolgt erst bei der ersten Nutzung.🔧 Tool-Steuerung pro Sitzung – URL-basierte Dienstfilterung und sitzungsbezogenes Aktivieren/Deaktivieren, sodass jeder verbundene Client genau die Tools sieht, die er benötigt.
🎨 Template- und Karten-DSL-System – Jinja2-Makros und eine kompakte Kartenschreibweise verwandeln rohe API-Daten in reichhaltige E-Mails, Dashboards und Google-Chat-Karten.
🧠 Semantisches Gedächtnis – jede Tool-Antwort wird in Qdrant eingebettet und später mit natürlicher Sprache durchsuchbar.
📋 Inhaltsverzeichnis
Related MCP server: mcp-google-workspace
⚡ Schnellinstallationsanleitung
Was ist GoogleUnlimited?
GoogleUnlimited bietet KI-Assistenten Zugriff auf Google Workspace-Dienste über das Model Context Protocol (MCP). Es unterstützt 92+ Tools in 9 Google-Diensten und ermöglicht eine nahtlose Integration zwischen KI-Workflows und Google Workspace-Anwendungen mit revolutionären Leistungsverbesserungen.
🛠️ Installationsmethoden
Methode 1: Schnellinstallation über uvx (Empfohlen)
Der schnellste Weg, um loszulegen – direkt von PyPI installieren:
{
"mcpServers": {
"google-workspace-unlimited": {
"command": "uvx",
"args": ["google-workspace-unlimited"],
"disabled": false,
"timeout": 300
}
}
}⚡ Das war's! Der Server läuft standardmäßig im Stdio-Modus, perfekt für MCP-Clients wie Claude Desktop, Cursor, Roo usw. Code-Modus ist standardmäßig aktiviert, sodass Ihr Client 7 schlanke Meta-Tools anstelle von über 90 Schemas sieht.
Methode 1b: Claude Code Plugin (Server + Fähigkeiten)
Claude Code-Benutzer können den Server und die Fähigkeiten installieren, die Claude seine Karten-/E-Mail-DSL, den Code-Modus und die Qdrant-Suche in zwei Befehlen beibringen:
/plugin marketplace add dipseth/google_workspace_fastmcp2
/plugin install google-workspace-unlimited@riversunlimitedSiehe plugins/google-workspace-unlimited für Details.
Methode 2: Klonen und Entwicklungseinrichtung
Für Entwicklung oder Anpassung:
Klonen und einrichten:
git clone https://github.com/dipseth/google_workspace_fastmcp2.git cd google_workspace_fastmcp2 uv syncServer starten:
uv run python server.pyDer Server startet sofort mit keiner erforderlichen Konfiguration. OAuth-Anmeldeinformationen werden beim Start nicht benötigt – die Authentifizierung erfolgt erst, wenn Sie zum ersten Mal mit einem Google-Dienst interagieren.
Authentifizieren, wenn bereit:
Wenn Sie ein Google Workspace-Tool aufrufen, fordert der Server Sie auf, sich über das Tool
start_google_authzu authentifizieren. Dadurch wird ein browserbasierter OAuth-Ablauf geöffnet. Nach Abschluss werden die Anmeldeinformationen lokal gespeichert und über Sitzungen hinweg wiederverwendet.Um OAuth-Anmeldeinformationen vorzukonfigurieren (optional), erstellen Sie eine
.env-Datei:cp .env.example .envFügen Sie dann Ihre Google Cloud Console-Anmeldeinformationen hinzu:
# Option A: Client ID + Secret GOOGLE_CLIENT_ID=your-client-id.apps.googleusercontent.com GOOGLE_CLIENT_SECRET=your-client-secret # Option B: Downloaded JSON credentials file GOOGLE_CLIENT_SECRETS_FILE=credentials.jsonSiehe die Google Cloud Console-Einrichtungsschritte zum Erstellen von OAuth-Anmeldeinformationen und Aktivieren von APIs.
📚 Konfigurationsressourcen:
🔧 Vollständiger Konfigurationsleitfaden – Umfassende Referenz zu Umgebungsvariablen und Einstellungen
🤖 Claude.ai-Integrationsleitfaden – Einrichtung für die Verwendung des entfernten MCP-Servers von Claude.ai
🔒 HTTPS-Einrichtungsleitfaden – SSL-Zertifikatskonfiguration für sichere Verbindungen
⚙️ MCP-JSON-Konfigurationsleitfaden – Standard-MCP-Konfiguration für jeden kompatiblen Client
📋 Referenz der Umgebungsvariablen
Alle Umgebungsvariablen sind optional – der Server startet mit sinnvollen Standardwerten und ohne erforderliche .env-Datei. OAuth-Anmeldeinformationen werden nur benötigt, wenn Sie einen neuen Authentifizierungsablauf über start_google_auth starten.
Google OAuth (für die erstmalige Authentifizierung erforderlich):
Variable | Default | Description |
| (empty) | OAuth-2.0-Client-ID aus der Google Cloud Console |
| (empty) | OAuth-2.0-Client-Geheimnis |
| (empty) | Alternative: Pfad zur heruntergeladenen OAuth-JSON-Datei |
|
| Muss mit der Weiterleitungs-URI der Google Console übereinstimmen |
Geben Sie entweder
GOOGLE_CLIENT_ID+GOOGLE_CLIENT_SECREToderGOOGLE_CLIENT_SECRETS_FILEvor Ihrem ersten OAuth-Ablauf an. Nach der Authentifizierung werden die Anmeldeinformationen lokal gespeichert und diese Variablen werden nicht mehr benötigt.
Server:
Variable | Default | Description |
|
| Server-Bindungsadresse |
|
| Server-Port |
|
| HTTPS/SSL aktivieren |
| - | Pfad zum SSL-Zertifikat (erforderlich, wenn HTTPS aktiviert ist) |
| - | Pfad zum SSL-privaten Schlüssel (erforderlich, wenn HTTPS aktiviert ist) |
|
|
|
Sicherheit & Sitzungen:
Variable | Default | Description |
|
|
|
|
| Verzeichnis für gespeicherte Anmeldeinformationen |
| (empty) | Server-API-Schlüssel – wird auch für kryptografisch gebundene Anmeldeinformationsverschlüsselung (HKDF-SHA256) und die Generierung benutzerspezifischer Schlüssel verwendet |
|
| Sitzungs-Timeout bei Inaktivität |
| (empty) | Durch Kommas getrennte vertrauenswürdige E-Mail-Adressen |
Tool-Verwaltung:
Variable | Default | Description |
|
| Nur mit 5 geschützten aktivierten Tools starten |
| (empty) | Durch Kommas getrennte Dienste, die beim Start aktiviert werden sollen (z. B. |
|
| Code-Modus (Standard) – ersetzt den vollständigen Tool-Katalog durch 7 Meta-Tools + Sandbox- |
|
| FastMCP SkillsDirectoryProvider für dynamische Fähigkeitengenerierung aktivieren |
|
| Verzeichnis für generierte Fähigkeitendokumente |
|
| Maximale Tool-Antwortgröße in Bytes (0 = deaktiviert) |
| (empty) | Durch Kommas getrennte Tool-Namen, die begrenzt werden sollen (leer = alle) |
Qdrant-Vektordatenbank:
Variable | Default | Description |
|
| Qdrant-Vektordatenbank-URL |
|
| Qdrant-API-Schlüssel (verwenden Sie |
|
| Qdrant automatisch über Docker starten, wenn nicht erreichbar |
|
| Docker-Image für den automatischen Start |
|
| Container-Name für automatisch gestartetes Qdrant |
Sonstiges:
Variable | Default | Description |
| (empty) | Standard-Webhook-URL für Google-Chat-Karten-Tools |
|
| Cloud-Bereitstellungsmodus aktivieren (wechselt automatisch zu |
🔗 Client-Verbindungen
GoogleUnlimited unterstützt mehrere Verbindungsmethoden. Hier sind die zwei beliebtesten Möglichkeiten, um loszulegen:
🎯 Schnellstart-Optionen
Option 1: Cursor IDE (STDIO - Community-verifiziert ✅):
{
"mcpServers": {
"google-workspace": {
"command": "uv",
"args": [
"--directory", "/path/to/google_workspace_fastmcp2",
"run", "python", "server.py"
],
"env": {
"GOOGLE_CLIENT_SECRETS_FILE": "/path/to/client_secrets.json",
"MCP_TRANSPORT": "stdio"
}
}
}
}Option 2: HTTP Streamable (VS Code Roo, Claude Code, Claude Desktop, etc.):
# Start server in HTTP mode
uv run python server.py --transport http --port 8002Einfache Einzelverbindungskonfiguration:
{
"google-workspace": {
"type": "streamable-http",
"url": "https://localhost:8002/mcp",
"disabled": false
}
}Multi-Verbindungs-Setup – verbinden Sie denselben Client (oder mehrere Clients) mit demselben Server und verschiedenen Tool-Sets mithilfe von URL-Abfrageparametern:
{
"google-email": {
"type": "streamable-http",
"url": "https://localhost:8002/mcp?service=gmail"
},
"google-chat": {
"type": "streamable-http",
"url": "https://localhost:8002/mcp?service=chat"
},
"google-productivity": {
"type": "streamable-http",
"url": "https://localhost:8002/mcp?service=drive,docs,sheets,slides"
}
}Jede Verbindung erhält ihre eigene isolierte Sitzung, in der nur die angeforderten Service-Tools aktiviert sind. Sie können eine Sitzungs-ID außerdem mit ?uuid= festlegen, um denselben Sitzungszustand über Wiederverbindungen hinweg fortzusetzen:
{
"google-workspace": {
"type": "streamable-http",
"url": "https://localhost:8002/mcp?uuid=my-workspace&service=gmail,drive,calendar"
}
}Siehe URL-basierte Service-Filterung für die vollständige Liste der Abfrageparameter.
🤖 Claude Code & Claude Desktop
Claude Code (CLI) – ein einziger Befehl, mit dem veröffentlichten PyPI-Paket:
# Local stdio (recommended): uvx fetches and runs the server on demand
claude mcp add google-workspace -- uvx google-workspace-unlimited
# Or connect to an already-running HTTP server
claude mcp add --transport http google-workspace https://localhost:8002/mcpClaude Desktop (lokaler Entwicklungspfad) – fügen Sie Folgendes zu claude_desktop_config.json hinzu (Einstellungen → Entwickler → Konfiguration bearbeiten):
{
"mcpServers": {
"google-workspace-unlimited": {
"command": "uvx",
"args": ["google-workspace-unlimited"]
}
}
}Claude.ai / Claude Desktop (gehosteter Connector) – führen Sie den Server hinter einem öffentlichen HTTPS-Endpunkt aus (z. B. einem Cloudflare- oder ngrok-Tunnel) und fügen Sie ihn dann unter Einstellungen → Connectors → Benutzerdefinierten Connector hinzufügen mit Ihrer https://your-domain/mcp-URL hinzu. Der OAuth-2.1- und PKCE-Ablauf des Servers übernimmt die Authentifizierung, einschließlich der Weiterleitung an https://claude.ai/api/mcp/auth_callback. Siehe die Claude.ai-Integrationsanleitung für die vollständige Schritt-für-Schritt-Anleitung.
📚 Vollständiger Verbindungsleitfaden
Detaillierte Einrichtungsanleitungen, Fehlerbehebung und Konfigurationen für alle unterstützten Clients, einschließlich:
Claude Code CLI (HTTP & STDIO)
Claude Desktop
VS Code / Roo / GitHub Copilot
Claude.ai mit Cloudflare-Tunnel
Und weitere ...
🔗 Vollständiger Client-Verbindungsleitfaden – Umfassende Einrichtungsanleitungen, Fehlerbehebung und erweiterte Konfigurationen für alle unterstützten KI-Clients und Entwicklungsumgebungen
⚡ Code-Modus (Standard)
Der Code-Modus ist das Flaggschiff-Feature von GoogleUnlimited – und er ist standardmäßig aktiviert. Statt 90+ Tool-Schemas im Voraus zu laden (teuer in Bezug auf Tokens), sieht Ihr MCP-Client nur 7 Meta-Tools. Die KI entdeckt Tools bei Bedarf und verknüpft dann beliebig viele echte API-Aufrufe innerhalb eines einzigen isolierten Python-execute-Blocks.
Meta-Tool | Zweck |
| Tools nach Servicekategorie durchsuchen (Gmail, Drive, Kalender usw.) |
| BM25-gestützte Schlüsselwortsuche über Tool-Namen und -Beschreibungen |
| Vollständige Parameterschemas für ausgewählte Tools abrufen |
| Natürlichsprachliche Suche über zuvor gespeicherte Tool-Antworten (Qdrant-gestützt) |
| Eine vollständige gespeicherte Antwort anhand der Point-ID aus den Suchergebnissen abrufen |
| Aktuelle Tool-Nutzungsmuster und -Aktivitäten zusammenfassen |
| Einen isolierten Python-Block ausführen, der echte Tool-Aufrufe über |
Warum das wichtig ist:
💰 Massive Token-Ersparnis – 7 Schemas statt 90+, wobei vollständige Schemas nur für die tatsächlich verwendeten Tools abgerufen werden
🔗 Ein Round-Trip statt vieler – Suche → Filtern → Handeln erfolgt in einem einzigen
execute-Block, nicht in einer Kette von Client-Round-Trips🧰 Komplett ausgestattete Sandbox – 40+ eingebaute Helfer (
now(),days_ago(),to_json(),re_find(),gather_tools(), …) decken Datumsangaben, JSON, URLs, Regex, Mathematik und Batch-Aufrufe ab, ganz ohne Importe
# One execute block: find a Drive file, then email its link
files = await call_tool("search_drive_files", {"query": "Q4 report"})
link = files["files"][0]["webViewLink"]
result = await call_tool("send_gmail_message", {
"to": "manager@company.com",
"subject": "Q4 Report",
"body": "Here's the Q4 report: " + link,
})
return resultKlassischen Katalog bevorzugt? Deaktivieren Sie den Code-Modus, und jedes Tool wird direkt für den Client bereitgestellt:
ENABLE_CODE_MODE=false # expose the full 90+ tool catalog insteadCode-Modus und klassischer Katalog schließen sich gegenseitig aus – wenn der Code-Modus aktiv ist, werden direkte Tool-Aufrufe durch das Such- +
execute-Muster ersetzt. Discovery-Tools sehen immer den vollständigen Katalog, unabhängig von der Filterung auf Sitzungsebene.
🎯 Service-Funktionen
GoogleUnlimited unterstützt 10 Google-Workspace-Dienste mit 90+ spezialisierten Tools:
Service | Icon | Tools | Hauptfunktionen | Dokumentation |
Gmail | 📧 | 14 | Senden, Antworten, Labels, Filter, Suche, Allowlist | |
Drive | 📁 | 9 | Hochladen, Herunterladen, Freigabe, Office-Dokumente, Dateiverwaltung | |
Docs | 📄 | 4 | Erstellen, Bearbeiten, Formatieren, Batch-Operationen | |
Sheets | 📊 | 7 | Lesen, Schreiben, Formeln, Formatierung | |
Slides | 🎯 | 5 | Präsentationen, Vorlagen, Export | |
Calendar | 📅 | 9 | Ereignisse, Terminplanung, Teilnehmer, Zeitzonen | |
Forms | 📝 | 8 | Erstellung, Antworten, Validierung, Veröffentlichung | |
Chat | 💬 | 24 | Messaging, Karten, Spaces, Webhooks, Unified Cards | |
Photos | 📷 | 12 | Alben, Hochladen, Suche, Metadaten, intelligente Suche | |
People | 👤 | 4 | Name→E-Mail-Suche (Kontakte + Organisationsverzeichnis), Kontaktlabels |
📚 Ressourcen zur API-Dokumentation:
🔗 Vollständige API-Referenz – Umfassende Dokumentation für alle 92+ Tools über 10 Dienste hinweg
📧 Gmail-API-Leitfaden – E-Mail-Verwaltung, Labels, Filter und Suchoperationen
📁 Drive-API-Leitfaden – Dateioperationen, Freigabe und Verarbeitung von Office-Dokumenten
📊 Sheets-API-Leitfaden – Manipulation und Formatierung von Tabellendaten
📅 Calendar-API-Leitfaden – Ereignisplanung und Zeitzonenverwaltung
🧠 Middleware-Architektur
GoogleUnlimited verwendet eine Middleware-Architektur, die eine nahtlose Service-Integration, intelligente Ressourcenverwaltung und leistungsstarke Templating-Funktionen bietet.

🔧 Kernkomponenten der Middleware
🏷️ TagBasedResourceMiddleware: Intelligente Ressourcenermittlung mithilfe von URI-Mustern (
service://gmail/messages,user://current/email)🧠 QdrantUnifiedMiddleware: KI-gestützte semantische Suche über alle Tool-Antworten mit Vektor-Embeddings
🎨 TemplateMiddleware: Fortschrittliches Jinja2-Templatesystem für eine schöne, strukturierte Ausgabeformatierung
✨ Vorteile der Architektur
🔄 Einheitlicher Ressourcenzugriff: URI-basierter Zugriff auf Servicedaten ohne API-Aufrufe
🧠 Semantische Intelligenz: Suche in natürlicher Sprache über alle gespeicherten Antworten
🎨 Visuelle Exzellenz: Konsistente, schöne Ausgabeformatierung für eine optimale KI-Verarbeitung
💰 Token-Effizienz: Vorlagen-Makros reduzieren den Token-Verbrauch um 60–80 % durch strukturierte Datenausgabe
⚡ Leistung: 30-mal schneller als herkömmliche Ansätze durch intelligentes Caching
📚 Ressourcen zur Middleware-Dokumentation:
📖 Leitfaden zur Middleware-Architektur – Vollständige Dokumentation des Middleware-Systems und Implementierungsdetails
🏷️ TagBasedResourceMiddleware – URI-Muster-basierte Ressourcenermittlung und -verwaltung
🧠 QdrantUnifiedMiddleware – KI-gestützte semantische Suche und Vektor-Embeddings
🎨 TemplateMiddleware – Fortschrittliches Jinja2-Templatesystem für die Ausgabeformatierung
🔧 SessionToolFilteringMiddleware – Sitzungsweise Tool-Aktivierung/-Deaktivierung
🚀 Minimaler Tool-Start
Standardmäßig startet GoogleUnlimited mit nur 5 aktivierten geschützten Tools für optimale Leistung und Sicherheit. Clients können so nur die Tools aktivieren, die sie tatsächlich benötigen.
Geschützte Tools (immer verfügbar):
manage_tools– Tools global oder pro Sitzung aktivieren/deaktivierenmanage_tools_by_analytics– Analytikbasierte Tool-Verwaltunghealth_check– Serverzustand und Konfigurationsstatusstart_google_auth– OAuth-Authentifizierung startencheck_drive_auth– Authentifizierungsstatus überprüfen
Konfiguration:
# Default: Start with minimal tools (only 5 protected tools)
MINIMAL_TOOLS_STARTUP=true
# Optional: Pre-enable specific services at startup
MINIMAL_STARTUP_SERVICES=drive,gmail,calendar
# Disable minimal startup (enable all 92+ tools immediately)
MINIMAL_TOOLS_STARTUP=falseAktivieren von Tools zur Laufzeit:
# Enable all tools globally
manage_tools(action="enable_all")
# Enable specific tools
manage_tools(action="enable", tool_names=["search_drive_files", "list_gmail_labels"])
# List all registered tools (shows enabled/disabled status)
manage_tools(action="list")🔧 Sitzungsbezogene Tool-Verwaltung
GoogleUnlimited unterstützt die sitzungsweise Aktivierung/Deaktivierung von Tools, sodass verschiedene MCP-Clients unterschiedliche Tool-Verfügbarkeiten haben können, ohne andere verbundene Clients zu beeinträchtigen.
Hauptfunktionen:
Sitzungsisolation: Tools für eine Client-Sitzung deaktivieren, ohne andere zu beeinträchtigen
Nicht-invasiv: Sitzungsbezogene Operationen ändern niemals die globale Tool-Registrierung
Geschützte Tools: Zentrale Verwaltungstools (
manage_tools,health_checkusw.) bleiben immer verfügbarMiddleware-basiert: Verwendet
SessionToolFilteringMiddlewarefür Filterung auf Protokollebene
Nutzungsbeispiele:
# Disable tools for this session only (other clients unaffected)
manage_tools(action="disable", tool_names=["send_gmail_message"], scope="session")
# Disable all except specific tools for this session
manage_tools(action="disable_all_except", tool_names=["search_drive_files", "list_events"], scope="session")
# Re-enable all tools for this session
manage_tools(action="enable_all", scope="session")
# Global operations (original behavior, affects all clients)
manage_tools(action="disable", tool_names=["send_gmail_message"], scope="global")Antwortstruktur:
{
"success": true,
"action": "disable_all_except",
"scope": "session",
"enabledCount": 94,
"disabledCount": 0,
"toolsAffected": ["tool1", "tool2", "..."],
"sessionState": {
"sessionId": "f725be09...",
"sessionAvailable": true,
"sessionDisabledTools": ["tool1", "tool2"],
"sessionDisabledCount": 89
},
"message": "Kept 5 tools, disabled 89 tools for this session"
}📚 Skills-Anbieter
Wenn dies über ENABLE_SKILLS_PROVIDER=true aktiviert wird, generiert GoogleUnlimited Skill-Dokumente aus ModuleWrapper-Instanzen und stellt sie über FastMCPs SkillsDirectoryProvider bereit. Skills bieten strukturiertes Wissen, auf das LLMs bei komplexen mehrstufigen Aufgaben zurückgreifen können.
Derzeit unterstützte Module:
card_framework→gchat-cards-Skill (Google-Chat-Karten-DSL-Referenz, Komponentenhierarchie, Beispiele)
Konfiguration:
ENABLE_SKILLS_PROVIDER=true # Enable skill generation
SKILLS_DIRECTORY=~/.claude/skills # Output directory (default)Skills werden bei jedem Start automatisch neu generiert und sind über das FastMCP-Skillsystem sofort verfügbar.
🖥️ Tool-Verwaltungs-Dashboard
GoogleUnlimited enthält ein integriertes Tool-Verwaltungs-Dashboard, das über das ui://-Ressourcenschema der MCP-Apps bereitgestellt wird. Es bietet eine visuelle Oberfläche zur Überwachung und Verwaltung der Tool-Verfügbarkeit über Sitzungen hinweg.

Funktionen:
Nach Diensten gruppierte Tool-Ansicht – Tools, organisiert nach Google-Dienst (Gmail, Drive, Sheets usw.), mit Zählern
Sitzungsstatus auf einen Blick – Erkennen Sie auf einen Blick, welche Tools aktiviert, deaktiviert oder sitzungsbezogen deaktiviert sind
Filter-Chips – Schnelles Filtern nach Dienst, um sich auf relevante Tools zu konzentrieren
Live-Daten – Unterstützt durch
DashboardCacheMiddleware, die List-Tool-Ergebnisse zwischenspeichert, um sofortigen Zugriff auf die Ressourceui://data-dashboardzu ermöglichen
Das Dashboard wird automatisch über wire_dashboard_to_list_tools() mit allen List-Tools verbunden – keine Konfiguration pro Tool erforderlich.
🔗 URL-basierte Service-Filterung (HTTP-Transport)
Wenn Sie den HTTP/SSE-Transport verwenden, können Sie Tools direkt über URL-Abfrageparameter nach Dienst filtern – ganz ohne Code:
# Enable only Gmail tools
http://localhost:8002/mcp?service=gmail
# Enable Gmail + Drive + Calendar
http://localhost:8002/mcp?service=gmail,drive,calendar
# Resume a previous session
http://localhost:8002/mcp?uuid=your-session-id
# Resume session with specific services
http://localhost:8002/mcp?uuid=abc123&service=gmail,drive
# Disable minimal startup (enable all tools)
http://localhost:8002/mcp?minimal=falseVerfügbare URL-Parameter:
Parameter | Beispiel | Beschreibung |
|
| Kommagetrennte Liste der zu aktivierenden Dienste |
|
| Vorherige Sitzung per ID fortsetzen |
|
| Minimalen Startmodus überschreiben |
Verfügbare Dienste: gmail, drive, calendar, docs, sheets, slides, photos, chat, forms, people
📚 Ressourcen zur Sitzungs-Tool-Verwaltung:
🔧 SessionToolFilteringMiddleware-Leitfaden - Vollständige Dokumentation zur sitzungsbezogenen Tool-Verwaltung
🎨 Vorlagensystem
GoogleUnlimited verfügt über leistungsstarke Jinja2-Vorlagenmakros, die rohe Google-Workspace-Daten in optisch ansprechende, KI-optimierte Formate umwandeln.
🎯 Verfügbare Vorlagenmakros
Vorlagendatei | Makro | Zweck | Hauptfunktionen |
|
| Gmail-Label-Visualisierung | Interaktive Chips, ungelesene Zähler, direkte Gmail-Links |
|
| Kalender- & Ereignis-Dashboard | Primäre/freigegebene Kalender, anstehende Ereignisse, dunkles Theme |
|
| Kalenderereignis-Dashboard | Ereigniskarten, Zeit-/Ortsdetails, klickbare Links, dunkles Theme |
|
| Professionelle Berichte | Metriken, Tabellen, Diagramme, Unternehmensbranding |
|
| Rich-HTML-E-Mails | Mehrere Signaturen, Verläufe, responsives Design |
💡 Beispiele für Vorlagenmakros
Gmail-Label-Visualisierung - Listen von Labels in wunderschöne interaktive Chips verwandeln:
{{ render_gmail_labels_chips( service://gmail/labels , 'Label summary for: ' + user://current/email ) }}Kalender-Dashboard - Umfassende Kalenderübersichten erstellen:
{{ render_calendar_dashboard( service://calendar/calendars, service://calendar/events, 'My Calendar Overview' ) }}Kalenderereignis-Dashboard - Kalenderereignisse in wunderschöne, interaktive Ereigniskarten verwandeln:
{{ render_calendar_events_dashboard( service://calendar/events , 'Upcoming Events for: ' + user://current/email.email ) }}
Dieses Makro erstellt ein beeindruckendes dunkel gestaltetes Dashboard mit folgenden Funktionen:
📅 Interaktive Ereigniskarten: Jedes Ereignis wird als klickbare Karte dargestellt, die sich in Google Kalender öffnet
🕐 Intelligente Zeitanzeige: Formatiert automatisch ganztägige Ereignisse vs. terminierte Ereignisse mit Zeitzonenunterstützung
📍 Standortintegration: Zeigt Besprechungsorte und Links zu virtuellen Besprechungen an
👥 Teilnehmerinformationen: Zeigt Teilnehmerzahlen und Details zu Teilnehmenden an
✅ Statusindikatoren: Farbcodierter Status (bestätigt, vorläufig, abgesagt) mit visuellem Feedback
📱 Responsives Design: Für Mobilgeräte optimiertes Layout mit touch-freundlichen Interaktionen
🎨 Dunkles Theme-Styling: Professionelles Erscheinungsbild mit Verlaufs-Hintergründen und Hover-Effekten
Professionelle Dokumente - Berichte mit Metriken und Diagrammen generieren:
{{ generate_report_doc(
report_title='Q4 Performance Report',
metrics=[{'value': '$1.2M', 'label': 'Revenue', 'change': 15}],
company_name='Your Company'
) }}🔍 Makro-Erkennung & dynamische Erstellung
Alle verfügbaren Makros über das Vorlagenressourcen-System erkunden:
# Access the template://macros resource to discover all available macros
macros = await access_resource("template://macros")
# Returns comprehensive macro information with usage examples
# Access specific macro details
macro_details = await access_resource("template://macros/render_gmail_labels_chips")🎯 Dynamische Makro-Erstellung
Zur Laufzeit benutzerdefinierte Makros mit dem Tool create_template_macro erstellen:
# Create a new macro dynamically
await create_template_macro(
macro_name="render_task_status_badge",
macro_content='''
{% macro render_task_status_badge(status, size='small') %}
{% if status == 'completed' %}
<span class="status-badge status-completed {{ size }}">✅ Complete</span>
{% elif status == 'in_progress' %}
<span class="status-badge status-in-progress {{ size }}">🔄 In Progress</span>
{% else %}
<span class="status-badge status-pending {{ size }}">⏳ {{ status|title }}</span>
{% endif %}
{% endmacro %}
''',
description="Renders visual status badges for task states with appropriate icons",
usage_example="{{ render_task_status_badge('completed', 'large') }}",
persist_to_file=True
)
# Immediately use the newly created macro
await send_gmail_message(
html_body="Task Status: {{ render_task_status_badge('completed', 'large') }}"
)DSL-gestützte Makros — dynamische Makros können auch die Google-Chat-Karten-DSL-Notation einbetten, um umfangreiche, strukturierte Karten zu generieren. Die DSL-Symbole definieren das Kartenlayout, während Jinja2 die dynamischen Inhalte übernimmt:
{# workspace_dashboard.j2 — a dynamic macro that outputs a Google Chat card #}
{% macro workspace_dashboard(user_email, stats=None, quick_actions=None) %}
{% set username = user_email.split('@')[0] if user_email else 'User' %}
{% set default_stats = stats or [
{'label': 'Emails', 'value': '12 unread'},
{'label': 'Calendar', 'value': '3 meetings today'},
{'label': 'Tasks', 'value': '5 pending'}
] %}
§[δ×3, ℊ[ǵ×4], §[δ×2, Ƀ[ᵬ×3]]]
Welcome back, {{ username | title }}!
Your Workspace Overview:
{% for stat in default_stats %}
- {{ stat.label }}: {{ stat.value }}
{% endfor %}
Actions:
- Button: Open Gmail → https://mail.google.com
- Button: Open Calendar → https://calendar.google.com
- Button: Open Drive → https://drive.google.com
{% endmacro %}Die DSL-Zeile §[δ×3, ℊ[ǵ×4], §[δ×2, Ƀ[ᵬ×3]]] definiert die Kartenstruktur: ein Abschnitt mit 3 DecoratedText-Widgets, ein Grid mit 4 Elementen und ein verschachtelter Abschnitt mit 2 DecoratedText-Widgets und einer ButtonList mit 3 Schaltflächen. Die Jinja2-Vorlage füllt die Inhalte dynamisch aus – und da sie in templates/dynamic/ gespeichert wird, ist sie sofort für send_dynamic_card und andere Tools verfügbar.
Hauptfunktionen:
⚡ Sofortige Verfügbarkeit: Makros sind direkt nach der Erstellung verfügbar
🎯 Ressourcenintegration: Automatisch über
template://macros/macro_nameverfügbar💾 Optionale Speicherung: Makros zur dauerhaften Verfügbarkeit auf der Festplatte speichern
🔄 Vorlagenverarbeitung: Vollständige Jinja2-Syntaxvalidierung und Fehlerbehandlung
💬 DSL-Integration: Makros können Karten-DSL-Notation für umfangreiche Google-Chat-Karten ausgeben
🚀 Praxisnahe Verwendung
Vorlagen können direkt in Tool-Aufrufen verwendet werden, um eine schöne, strukturierte Ausgabe zu erzielen:
# Send a beautiful email with calendar dashboard
await send_gmail_message(
to="manager@company.com",
subject="Weekly Schedule Update",
html_body="{{ render_calendar_events_dashboard( service://calendar/events, 'My upcoming events') }}",
content_type="mixed"
)
# Generate and send a professional report
await create_doc(
title="Q4 Performance Report",
content="{{ generate_report_doc( report_title='Quarterly Results', company_name='GoogleUnlimited' ) }}"
)📚 Ressourcen zum Vorlagensystem:
🎨 Vorlagenverzeichnis - Vollständige Sammlung von Jinja2-Vorlagen und Makros
💌 Wunderschöne E-Mail-Vorlagen - Rich-HTML-E-Mail-Styling und Themes
🏷️ Gmail-Label-Karten - Interaktive Label-Visualisierung mit Chips
📅 Kalender-Dashboard - Ereigniszeitachse und Terminplanungsansichten
📄 Dokumentvorlagen - Strukturierte Dokumentformatierung
🗂️ Ressourcen-Erkennung
GoogleUnlimited bietet ein leistungsstarkes MCP-Ressourcensystem, das blitzschnellen Datenzugriff ohne API-Aufrufe durch intelligente URI-Muster ermöglicht.

🎯 Ressourcen-URI-Muster
Muster | Zweck | Beispiel | Rückgabe |
| Benutzer-Authentifizierungsstatus |
| Profil + Auth-Status |
| Verfügbare Dienstlisten |
| [Filter, Labels] |
| Alle Elemente in der Liste |
| Alle Gmail-Labels |
| Details zu bestimmten Elementen |
| INBOX-Label-Details |
| Aktuelle Elemente |
| Aktuelle Drive-Dateien |
| Semantische Suche |
| Relevante Antworten |
🏗️ Zentrale Ressourcendateien
resources/user_resources.py: Authentifizierung, Profile, Sitzungsverwaltung (1.812 Zeilen)resources/service_list_resources.py: Diensterkennung über TagBasedResourceMiddleware (446 Zeilen)middleware/qdrant_core/resources.py: KI-gestützte Suche und Analytik (319 Zeilen)
⚡ Blitzschneller Zugriff
# Instant Gmail labels (no API call needed)
labels = await access_resource("service://gmail/labels")
# Current user info from session
user = await access_resource("user://current/email")
# Semantic search across all tool responses
results = await access_resource("qdrant://search/gmail errors today")
# Recent calendar events
events = await access_resource("recent://calendar")📚 Dokumentation zum Ressourcensystem:
🗂️ Benutzerressourcen - Authentifizierung, Profile und Sitzungsverwaltung (1.812 Zeilen)
🏷️ Dienstlisten-Ressourcen - Diensterkennung über TagBasedResourceMiddleware (446 Zeilen)
🧠 Qdrant-Kernressourcen - KI-gestützte Suche und Analytik (319 Zeilen)
📋 Leitfaden zu Ressourcenmustern - Vollständige URI-Muster-Referenz und Verwendungsbeispiele
🧪 Test-Framework
GoogleUnlimited enthält umfassende Tests mit Client-Tests, die die MCP-Nutzung exakt so validieren, wie ein LLM sie erleben würde, sowie zusätzliche Test-Suiten. 559 Tests bestehen mit einer Erfolgsquote von 100 %.
🎯 Fokus der Client-Tests

Die Client-Tests sind die wichtigste Komponente – sie bieten deterministische Tests von MCP-Operationen mit echter Ressourcenintegration und standardisierten Mustern über alle 92+ Tools und 9 Google-Dienste. Diese Tests validieren sowohl die explizite E-Mail-Authentifizierung als auch die Middleware-Injektionsmuster.
🚀 Schnelle Testbefehle
# 🧪 Run all client tests (primary test suite)
uv run pytest tests/client/ -v
# 📧 Test specific service
uv run pytest tests/client/ -k "gmail" -v
# 🔐 Authentication required tests
uv run pytest tests/client/ -m "auth_required" -v🔬 Integration echter Ressourcen-IDs
Das Test-Framework ruft echte IDs aus Dienstressourcen für realistische Tests ab:
# Available fixtures for real resource testing
real_gmail_message_id # From service://gmail/messages
real_drive_document_id # From service://drive/items
real_calendar_event_id # From service://calendar/events
real_photos_album_id # From service://photos/albums
real_forms_form_id # From service://forms/forms
real_chat_space_id # From service://chat/spaces🔄 CI/CD-Pipeline
Automatisierte Tests und Veröffentlichung über GitHub Actions:
CI-Workflow: Wird bei jedem PR und Push auf main ausgeführt
Python 3.11- und 3.12-Matrix-Tests
Linting mit
ruff checkund Formatierung mitruff formatAusführung der vollständigen Test-Suite
TestPyPI-Veröffentlichung: Automatisierte Paketveröffentlichung für Tests
📚 Testressourcen:
📋 Leitfaden zum Client-Test-Framework - Vollständige Client-Test-Dokumentation und -Muster
🧪 Verzeichnis der Client-Tests - Echte Ressourcen-Integrationstests für deterministische MCP-Validierung
🤖 MCP-Client-Integration - Erfahren Sie mehr über MCP-Client-Muster und -Nutzung
🔐 Authentifizierungsmuster - Validierungstests für E-Mail- vs. Middleware-Injektion
🔒 Sicherheit & Authentifizierung
GoogleUnlimited implementiert Sicherheit auf Unternehmensniveau mit OAuth 2.1 + PKCE, erweiterter Sitzungsverwaltung und umfassenden Prüffunktionen.

🛡️ Authentifizierungsabläufe
🌐 MCP-Inspector-OAuth: MCP-Spezifikationskonform mit dynamischer Client-Registrierung
🖥️ Direkter Server-OAuth: Webbasierte Authentifizierung für den direkten Zugriff
🔧 Entwicklungs-JWT: Testmodus mit generierten Tokens
📁 Erweiterte Datei-Anmeldedaten: Dauerhafte Speicherung mit Verschlüsselungsoptionen
🔑 Benutzerdefinierte OAuth-Clients: Eigene OAuth-Anmeldedaten verwenden mit automatischem Fallback
🪪 Pro-Benutzer-API-Schlüssel: Einzelne Schlüssel, die beim Abschluss der OAuth-Authentifizierung generiert werden, mit Isolierung der Anmeldedaten
✨ Sicherheitsfunktionen
🔐 OAuth 2.1 + PKCE: Moderne Authentifizierung mit Schlüsselnachweis-Austausch (unterstützt öffentliche Clients)
🔑 Pro-Benutzer-API-Schlüssel: Eindeutige, widerrufbare Schlüssel pro Benutzer mit Nur-Hash-Speicherung und timing-sicherer Suche
🛡️ Isolierung der Anmeldedaten: Zugriffskontrolle basierend auf der Authentifizierungsherkunft verhindert die Vererbung von Anmeldedaten zwischen Benutzern
🔗 Kontoverknüpfung: Bidirektionale Kontoverknüpfung für den Mehrkonten-Zugriff mit Pro-Benutzer-Schlüsseln
🔒 Krypto-gebundene Verschlüsselung: Abgeleitete HKDF-SHA256-Verschlüsselungsschlüssel, die an
MCP_API_KEYgebunden sind🔒 Sitzungsisolierung: Multi-Tenant-Unterstützung zur Verhinderung von Datenlecks
🏷️ 27+ API-Umfänge: Granulare Berechtigungsverwaltung über alle Dienste hinweg
📊 Prüfprotokollierung: Vollständige Sicherheitsereignisverfolgung mit Authentifizierungsherkunft
🔐 AES-256-Verschlüsselung: Speicherung von Anmeldedaten mit Unterstützung für die Migration von Legacy-Schlüsseln
🔄 Drei-Ebenen-Fallback: Robuste Persistenz der Anmeldedaten über Server-Neustarts hinweg (State Map → UnifiedSession → Context Storage)
🧹 Entfernung sensibler Daten: Auth-Metadaten werden aus Qdrant-Embeddings vor der Speicherung entfernt
⚙️ Sicherheitskonfiguration
# 🔒 Security settings in .env
CREDENTIAL_STORAGE_MODE=FILE_ENCRYPTED
SESSION_SECRET_KEY=your-secret-key
SESSION_TIMEOUT_MINUTES=30
ENABLE_AUDIT_LOGGING=true
GMAIL_ALLOW_LIST=trusted@example.com📚 Ressourcen zur Sicherheitsdokumentation:
🛡️ Unified-OAuth-Architektur - Vollständige Sicherheitsarchitektur und Authentifizierungsdesign
🔐 OAuth-2.1-+-PKCE-Implementierung - Moderne Authentifizierung mit Schlüsselnachweis-Austausch
🏠 Leitfaden zur Sitzungsverwaltung - Multi-Tenant-Unterstützung und Sitzungsisolierung
🔒 Verschlüsselung & Speicherung - AES-256-Verschlüsselung von Anmeldedaten und maschinenspezifische Schlüssel
📊 Prüfprotokollierungssystem - Vollständige Sicherheitsereignisverfolgung und -überwachung
🚀 Bereit, Ihre Google-Workspace-Integration zu revolutionieren?
📚 Dokumentation • 🔧 Konfiguration • 🎯 API-Referenz • 🧪 Tests
Available Tools
7 toolsexecuteExecuteA
Run sandboxed Python that calls this server's Google Workspace tools via await call_tool(tool_name, params), chaining calls in one block.
Use when: you know which tools to call. To find tool names first use search or tags; for exact parameters use get_schema; to look up past results instead, use semantic_search.
Behavior: each call_tool runs the real tool immediately — sends, edits, and deletes take effect; there is no dry-run.
Use return to produce output; prefer returning the final answer from a single block.
Only call_tool(tool_name: str, params: dict) -> Any is available in scope. Unknown tool names raise NotFoundError; disallowed syntax raises SandboxError.
SANDBOX RESTRICTIONS — these produce SandboxError, avoid them:
sorted_(items, key=lambda x: x['k'])→ lambda args fail; use builtins likekey=lenor sort manuallyimportonly covers a small stdlib subset (e.g. json); no third-party modules — prefer the built-in helpers listed below
Built-in helpers (import is not available — use these instead):
now(tz_offset=0)→ current datetime string (UTC by default)today(tz_offset=0)→ current date 'YYYY-MM-DD' (UTC by default)days_ago(n, tz_offset=0)→ ISO datetime string N days agohours_ago(n, tz_offset=0)→ ISO datetime string N hours agoformat_date(iso_str, fmt='%Y-%m-%d %H:%M')→ formatted dateparse_date(iso_str)→ normalized ISO datetimetimestamp()→ current unix timestamp (int)to_json(obj, indent=None)→ JSON stringfrom_json(s)→ parsed objecturl_encode(s)→ URL-encoded stringurl_decode(s)→ URL-decoded stringurl_join(base, *parts)→ joined URL pathquery_string(params)→ URL query string from dictre_find(pattern, text)→ list of matchesre_match(pattern, text)→ boolre_sub(pattern, repl, text)→ substituted stringtruncate(text, n=80)→ truncated with '...'dedent(text)→ remove common leading whitespacewrap_text(text, width=72)→ word-wrap to widthpad_left(s, width, char=' ')→ right-justify / zero-padpad_right(s, width, char=' ')→ left-justifyjoin(items, sep=', ')→ joined stringhtml_escape(s)→ HTML-safe stringsqrt(n),ceil(n),floor(n)→ mathround_(n, digits=2),abs_(),min_(),max_(),sum_()→ mathsorted_(items, key=None, reverse=False)→ sorted listunique(items)→ deduplicated list (preserves order)flatten(lists)→ flat list from nested listscounter(items)→ dict of {item: count}chunk(items, size)→ list of chunkszip_(*iterables)→ zipped as list of listsdict_get(d, 'a.b.c', default=None)→ nested dict accessmd5(s),sha256(s)→ hash hex digestsgather_tools(calls)→ run multiple tool calls sequentially;callsis a list of[tool_name, params]pairs, returns list of results (assign to variable, then index:r = await gather_tools([...]); a, b = r[0], r[1])sleep(seconds)→ async sleep
| Name | Required | Description | Default |
|---|---|---|---|
| code | Yes | Python async code to execute tool calls via call_tool(name, arguments) |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
There are no annotations, so the description carries the full burden, and it does so thoroughly. It discloses that each call_tool runs the real tool immediately with sends/edits/deletes taking effect and no dry-run, plus sandbox restrictions, error types, and disallowed syntax. This is substantial behavioral context beyond what the schema provides.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is long but well-structured with clear sections: use-when, behavior, sandbox restrictions, and built-in helpers. Core usage and side effects are front-loaded, and every block provides actionable information rather than filler.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given that annotations and an output schema are absent, the description is remarkably complete. It covers selection criteria, invocation syntax, execution environment, side effects, error modes, restrictions, and helper APIs, so an agent can use this tool without needing additional documentation.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
The schema already describes the single `code` parameter at 100% coverage, but the description adds far more semantic value: valid async syntax, `call_tool` signature, use of `return`, restrictions on `import`, sandbox errors, and a full list of available built-in helpers. This gives the agent everything needed to construct valid code.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description names a precise verb and resource: running sandboxed Python that calls this server's Google Workspace tools via `await call_tool(tool_name, params)` and chaining calls in one block. It also distinguishes itself clearly from discovery/search siblings by framing this as the execution step once tool names are known.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
It gives an explicit 'Use when' condition: when you know which tools to call. It also names alternatives for other cases: `search` or `tags` for finding tool names, `get_schema` for exact parameters, and `semantic_search` for past results, providing clear routing to sibling tools.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
fetch_documentFetch DocumentA
Preview one stored tool response by its Qdrant point ID.
Use when: inspecting a hit returned by semantic_search. To find
point IDs in the first place, use semantic_search; for the full
untruncated content, call the fetch tool inside an execute block.
Behavior: read-only. Returns: tool name, service, timestamp, user, argument count, and the first 500 characters of stored content. Errors: 'Document not found' for unknown or expired point IDs.
| Name | Required | Description | Default |
|---|---|---|---|
| point_id | Yes | Qdrant point ID (UUID) from a search result | |
| user_google_email | No | User's Google email (auto-injected by middleware) |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description fully carries the behavioral disclosure burden. It states 'Behavior: read-only', describes the exact return fields including the 500-character truncation, and documents the error condition 'Document not found' for unknown or expired IDs. This is unusually transparent for a tool description.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is concise, well-organized with labeled sections, and front-loads the core purpose. Every sentence adds useful content, and there is no redundant repetition of schema or annotation details.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Despite having no output schema, the description enumerates the return fields and truncation behavior, making the tool's output predictable. It also covers errors, read-only behavior, and usage context, making the description complete for an agent to select and invoke the tool correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the schema already documents both parameters clearly. The description adds context around the point_id's role in previewing a stored response, but does not need to add more because the parameter semantics are fully captured in the schema.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description states a specific action ('Preview one stored tool response') and identifies the resource by 'Qdrant point ID', clearly distinguishing this from sibling search and execute tools. It also explicitly indicates what it is not for, such as full untruncated content, which further sharpens purpose.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The 'Use when' section directly instructs to use this tool when inspecting a hit from semantic_search, and explicitly points to alternatives for finding point IDs and retrieving full content. This is exemplary routing guidance that leaves no ambiguity about when to use this tool versus siblings.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_schemaGet SchemaA
Get parameter schemas for named tools before calling them via execute. Use when: you already have tool names (from search or tags) and need exact parameters. Not for discovery — use search for that. Returns: per-tool parameter markdown ('detailed', default), names + descriptions ('brief'), or full JSON schemas ('full'); unknown names are reported under 'Tools not found'.
| Name | Required | Description | Default |
|---|---|---|---|
| tools | Yes | List of tool names to get schemas for | |
| detail | No | 'brief' for names and descriptions, 'detailed' for parameter schemas as markdown, 'full' for complete JSON schemas | detailed |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description carries the full burden. It discloses the output formats for each detail mode and the unknown-name handling behavior ('reported under Tools not found'). It does not explicitly state side effects, but the read-only nature is strongly implied by the verb 'get' and the schema-fetching purpose.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is compact, front-loaded with the core purpose, and uses clear logical sections ('Use when', 'Not for discovery', 'Returns'). Every sentence earns its place without redundancy.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
The description is complete for a tool with no output schema and no annotations. It covers the main purpose, usage conditions, output formats, defaults, and error handling for unknown tool names. No critical operational gap remains for an agent deciding how to call this tool.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Input schema coverage is 100%, so the baseline is 3. The description mostly restates what the schema already says about 'detail' and 'tools'; it adds minor value with 'per-tool parameter markdown' and unknown-name behavior, but does not substantially deepen parameter understanding beyond the schema.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description states a specific verb and resource: 'Get parameter schemas for named tools before calling them via execute.' It clearly differentiates from the sibling search tool by framing this as a pre-execute lookup step, not a discovery mechanism.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description explicitly states when to use the tool ('when you already have tool names... and need exact parameters'), when not to use it ('Not for discovery'), and names the alternative ('use search for that'). This gives an agent unambiguous routing guidance.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
searchSearchA
Find this server's Google Workspace tools by keyword (BM25 over names, descriptions, and tags). Use when: you don't know the exact tool name yet. To browse by category use tags; once you have names, use get_schema for parameters, then execute to call them. To search past results rather than tools, use semantic_search. Returns: matching tools as names + descriptions ('brief', default), parameter markdown ('detailed'), or complete JSON definitions ('full'). An empty result means no keyword match — retry with different terms.
| Name | Required | Description | Default |
|---|---|---|---|
| tags | No | Filter to tools with any of these tags before searching | |
| limit | No | Maximum number of results to return | |
| query | Yes | Search query to find available tools | |
| detail | No | 'brief' for names and descriptions, 'detailed' for parameter schemas as markdown, 'full' for complete JSON schemas | brief |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description carries the full burden of behavioral disclosure. It does this well by revealing the BM25 ranking mechanism, the three return detail modes, the default 'brief' mode, and the meaning of an empty result ('no keyword match — retry with different terms'). This gives an agent a clear behavioral model beyond what the schema states.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is compact and well-structured. The primary purpose is stated first, followed by explicit usage guidance, sibling routing, and return behavior. Every sentence earns its place; there is no filler or repetition of schema details.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
For a search tool with no annotations and no output schema, the description is thorough: it explains what is searched, when to use it, how to route to alternatives, what the return values look like in each detail mode, and how to interpret empty results. Nothing critical is missing for safe and correct invocation.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the schema already documents all parameters clearly. The description adds a little context around the detail parameter's output modes, but most of what it says about parameters mirrors the schema. This meets the baseline but does not go substantially beyond it.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description states a clear verb and resource: 'Find this server's Google Workspace tools by keyword,' and specifies the search mechanism (BM25 over names, descriptions, and tags). It also distinguishes the tool from siblings like tags and semantic_search, so an agent can immediately tell what this tool is for.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description gives explicit when-to-use guidance: 'Use when: you don't know the exact tool name yet.' It also names alternatives and the conditions for choosing them, such as using tags to browse by category, get_schema for parameters, execute to call, and semantic_search for past results. This is exemplary routing guidance.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
semantic_searchSemantic SearchA
Search the Qdrant vector store of this server's past tool responses and card templates.
Use when: looking up previous results, usage history, or analytics ('service:gmail last week', 'tool:search recent', 'overview'). For discovering tools to call, use search; to preview one stored document, pass its point ID to fetch_document.
Modes: semantic text similarity; service/tool history queries; analytics ('overview', 'usage stats'); filter_dsl for structured filters; positive/negative point IDs for recommendation; query_dsl for fusion/discover/order-by; prefetch_dsl for multi-stage retrieval.
Behavior: read-only against the local Qdrant instance; no Google APIs are called. Returns: scored rows 'score service/tool timestamp id:'. Errors: 'Search failed' when Qdrant is unreachable; 'No results' when nothing clears score_threshold (default 0.3 — lower it to widen the net).
DSL filter symbols: D_5=DatetimeRange, ʄ=FieldCondition, ƒ=Filter, F_6=FilterSelector, ℏ=HasIdCondition, I_2=IsEmptyCondition, I_0=IsNullCondition, ɱ=MatchAny, ṁ=MatchText, M_0=MatchTextAny, ☆=MatchValue, ř=Range Query-DSL symbols: Å=AcornSearchParams, C_14=ContextExamplePair, ¢=ContextPair, C_0=ContextQuery, D_6=DiscoverInput, D_2=DiscoverQuery, D_4=DiscoverRequest, D_21=DiscoverRequestBatch, ℱ=Fusion, φ=FusionQuery, ø=OrderBy, ɵ=OrderByQuery, ¶=Prefetch, ʔ=QuantizationSearchParams, R_12=RecommendGroupsRequest, R_2=RecommendInput, R_4=RecommendQuery, R_5=RecommendRequest, R_18=RecommendRequestBatch, R_10=RecommendStrategy, ♦=SearchParams Example: ƒ{must=[ʄ{key="tool_name", match=☆{value="send_dynamic_card"}}]} MatchAny: ƒ{must=[ʄ{key="tool_name", match=ɱ{any=["tool_a", "tool_b"]}}]}
| Name | Required | Description | Default |
|---|---|---|---|
| limit | No | Maximum results to return | |
| query | Yes | Search query — natural language, 'service:gmail recent', 'overview', 'id:<point_id>', or semantic text when filter_dsl is set | |
| dry_run | No | If true with filter_dsl, parse and validate DSL without executing the query | |
| query_dsl | No | Query DSL for recommend, discover, fusion, or order-by queries | |
| collection | No | Qdrant collection to search. Default: mcp_tool_responses | |
| filter_dsl | No | Qdrant DSL filter notation for precise filtering (see docstring for symbols) | |
| prefetch_dsl | No | Multi-stage prefetch DSL for hierarchical search strategies | |
| score_threshold | No | Minimum similarity score (0.0-1.0) | |
| user_google_email | No | User's Google email (auto-injected by middleware) | |
| negative_point_ids | No | Point IDs to use as negative examples for recommendation search | |
| positive_point_ids | No | Point IDs to use as positive examples for recommendation search |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
No annotations are provided, so the description carries the full behavioral burden. It explicitly states the tool is read-only, that no Google APIs are called, the exact return row format, the two error messages ('Search failed', 'No results'), and the effect of score_threshold. This is far more transparent than typical tool descriptions.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is well-structured and front-loaded: purpose, use-when, modes, behavior, returns, errors, then reference material. It is long, but the DSL symbol tables and examples earn their place because the schema refers to 'see docstring for symbols.' A minor redundancy between the 'Modes' section and the query parameter description prevents a perfect score.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
For a complex 11-parameter tool with no output schema and no annotations, this description is remarkably complete: it covers return shape, error behavior, default threshold semantics, DSL syntax, example queries, sibling routing, and parameter mode mappings. An agent has nearly everything needed to invoke it correctly and interpret the response.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema coverage is 100%, giving a baseline of 3, but the description adds substantial meaning beyond the schema: a DSL symbol legend, a worked filter_dsl example, a MatchAny example, mapping of query_dsl/filter_dsl/prefetch_dsl to modes, explanation of positive/negative point IDs, and guidance to lower score_threshold. This meaningfully helps an agent construct parameters correctly.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
Description opens with a specific verb and resource: 'Search the Qdrant vector store of this server's past tool responses and card templates.' It also names sibling tools and clarifies what they do instead, so an agent can distinguish semantic_search from search and fetch_document without ambiguity.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The 'Use when' section explicitly lists trigger conditions: looking up previous results, usage history, or analytics, with concrete query examples. It also provides exclusion guidance: 'For discovering tools to call, use search; to preview one stored document, pass its point ID to fetch_document.' This is exactly the when/when-not context an agent needs.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
tagsTagsA
List this server's tool tags (service areas like gmail, drive, docs, photos) with tool counts. Use when: browsing what capability areas exist before a targeted lookup. For keyword lookup use search; for parameters of known tools use get_schema. Returns: '- tag (N tools)' lines at detail='brief' (default), or every tool listed under each tag at detail='full'.
| Name | Required | Description | Default |
|---|---|---|---|
| detail | No | Level of detail: 'brief' for tag names and counts, 'full' for tools listed under each tag | brief |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
No annotations are provided, so the description carries the full burden, and it does well: it specifies the exact output shape at default detail ('- tag (N tools)' lines) and the change at detail='full'. It clearly frames the operation as a non-mutating listing.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
Three compact sentences front-load the core action and use case before return details. There is no filler or unnecessary repetition of schema content.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
For a simple list tool with one optional schema-defined parameter and no output schema, the description covers purpose, routing, default behavior, and return format. Nothing material needed to invoke it correctly is missing.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
The input schema already fully documents the single parameter with its enum, default, and per-value meaning, so the baseline is 3. The description adds the concrete output format for brief detail and confirms what full detail returns, which is a small but meaningful addition.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
States a precise action ('List this server's tool tags...') with resource and scope, plus concrete examples of categories like gmail, drive, docs, and photos. The mention of tool counts and the overview nature distinguishes it from sibling tools such as search and get_schema.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
Explicitly states the intended use case ('browsing what capability areas exist before a targeted lookup') and names alternatives for adjacent cases: 'For keyword lookup use search; for parameters of known tools use get_schema.' This gives an agent clear routing guidance.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
tool_activityTool ActivityA
Show usage analytics for this server's tools: call counts, error rates, last-used times.
Use when: answering 'what has been used or failing lately'. To read an individual response, pass a sample point ID to fetch_document; to discover tools to call, use search instead.
Behavior: read-only aggregation over the Qdrant response store. Returns: a text dashboard grouped by tool_name or user_email, with sample point IDs per group. Errors: 'Analytics failed' when the response store is unreachable.
| Name | Required | Description | Default |
|---|---|---|---|
| limit | No | Maximum groups to show | |
| group_by | No | Group results by 'tool_name' or 'user_email' | tool_name |
| user_google_email | No | User's Google email (auto-injected by middleware) |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
No annotations are provided, so the description carries the full burden. It discloses read-only behavior ('read-only aggregation over the Qdrant response store'), return format ('text dashboard... with sample point IDs per group'), and an error condition ('Analytics failed' when the response store is unreachable). It does not mention authentication or rate limits, but for this tool the provided behavioral details are substantive.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is well structured with labeled segments ('Use when', 'Behavior', 'Returns', 'Errors'), front-loads the core purpose, and every sentence adds distinct value. No filler or redundancy.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Despite having no output schema and no annotations, the description provides enough context for correct invocation: what it returns (text dashboard), how it groups, what error to expect, and when to use alternatives. All three optional parameters are already covered by the schema, so nothing needed for this tool is missing.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so every parameter is already documented in the schema. The description mentions grouping by tool_name or user_email, which mirrors the group_by schema description, but does not add new semantic detail beyond that. Baseline 3 is appropriate when the schema handles parameter documentation.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description opens with a specific verb and resource ('Show usage analytics for this server's tools: call counts, error rates, last-used times'), and later explicitly contrasts with fetch_document and search, distinguishing its purpose. An agent can immediately tell what this tool does and how it differs from siblings.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
Contains explicit 'Use when' guidance ('answering what has been used or failing lately'), plus clear redirections: 'pass a sample point ID to fetch_document' and 'use search instead'. This leaves no ambiguity about when to select this tool over alternatives.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
Tool Schema Changelog
Recent tool additions, removals, and schema changes observed during successful MCP inspections.
6 tool updates
v3.0.0- Changed
fetch_document1 field changed- changed
Output schema / (root)Previous value: -{ - "properties": { - "result": { - "type": "string" - } - }, - "required": [ - "result" - ], - "type": "object", - "x-fastmcp-wrap-result": true -}New value: +null
- Changed
get_schema1 field changed- changed
Output schema / (root)Previous value: -{ - "properties": { - "result": { - "type": "string" - } - }, - "required": [ - "result" - ], - "type": "object", - "x-fastmcp-wrap-result": true -}New value: +null
- Changed
search1 field changed- changed
Output schema / (root)Previous value: -{ - "properties": { - "result": { - "type": "string" - } - }, - "required": [ - "result" - ], - "type": "object", - "x-fastmcp-wrap-result": true -}New value: +null
- Changed
semantic_search1 field changed- changed
Output schema / (root)Previous value: -{ - "properties": { - "result": { - "type": "string" - } - }, - "required": [ - "result" - ], - "type": "object", - "x-fastmcp-wrap-result": true -}New value: +null
- Changed
tags1 field changed- changed
Output schema / (root)Previous value: -{ - "properties": { - "result": { - "type": "string" - } - }, - "required": [ - "result" - ], - "type": "object", - "x-fastmcp-wrap-result": true -}New value: +null
- Changed
tool_activity1 field changed- changed
Output schema / (root)Previous value: -{ - "properties": { - "result": { - "type": "string" - } - }, - "required": [ - "result" - ], - "type": "object", - "x-fastmcp-wrap-result": true -}New value: +null
103 tool updates
v2.3.2- Removed
add_questions_to_form - Removed
add_slide - Removed
bulk_calendar_operations - Removed
check_drive_auth - Removed
cleanup_qdrant_data - Removed
compose_dynamic_email - Removed
create_calendar - Removed
create_doc - Removed
create_drive_file - Removed
create_event - Removed
create_form - Removed
create_gmail_filter - Removed
create_photos_album - Removed
create_presentation - Removed
create_sheet - Removed
create_spreadsheet - Removed
create_template_macro - Removed
delete_event - Removed
delete_gmail_filter - Removed
download_gmail_attachment - Removed
draft_gmail_forward - Removed
draft_gmail_message - Removed
draft_gmail_reply - Added
execute - Removed
export_and_download_presentation - Removed
fetch - Added
fetch_document - Removed
format_sheet_range - Removed
forward_gmail_message - Removed
get_doc_content - Removed
get_drive_file_content - Removed
get_event - Removed
get_form - Removed
get_form_response - Removed
get_gmail_filter - Removed
get_gmail_message_content - Removed
get_gmail_messages_content_batch - Removed
get_gmail_thread_content - Removed
get_people_contact_group_members - Removed
get_photo_details - Removed
get_photos_library_info - Removed
get_presentation_info - Removed
get_response_details - Added
get_schema - Removed
get_spreadsheet_info - Removed
get_tool_analytics - Removed
health_check - Removed
list_album_photos - Removed
list_calendars - Removed
list_docs_in_folder - Removed
list_drive_items - Removed
list_events - Removed
list_form_responses - Removed
list_gmail_filters - Removed
list_gmail_labels - Removed
list_messages - Removed
list_people_contact_labels - Removed
list_photos_albums - Removed
list_spaces - Removed
list_spreadsheets - Removed
make_drive_files_public - Removed
manage_credentials - Removed
manage_drive_files - Removed
manage_gmail_allow_list - Removed
manage_gmail_label - Removed
manage_people_contact_labels - Removed
manage_space - Removed
manage_tools - Removed
modify_event - Removed
modify_gmail_message_labels - Removed
modify_sheet_values - Removed
move_events_between_calendars - Removed
photos_batch_details - Removed
photos_optimized_album_sync - Removed
photos_performance_stats - Removed
photos_smart_search - Removed
publish_form_publicly - Removed
qdrant_search - Removed
read_sheet_values - Removed
reply_to_gmail_message - Added
search - Removed
search_docs - Removed
search_drive_files - Removed
search_gmail_messages - Removed
search_messages - Removed
search_photos - Removed
search_tool_history - Added
semantic_search - Removed
send_dynamic_card - Removed
send_gmail_message - Removed
send_message - Removed
set_form_publish_state - Removed
set_privacy_mode - Removed
share_drive_files - Removed
start_google_auth - Added
tags - Added
tool_activity - Removed
update_form_questions - Removed
update_slide_content - Removed
upload_folder_photos - Removed
upload_photos - Removed
upload_to_drive - Removed
verify_payment
96 tool updates
v2.2.1- First observed
add_questions_to_form - First observed
add_slide - First observed
bulk_calendar_operations - First observed
check_drive_auth - First observed
cleanup_qdrant_data - First observed
compose_dynamic_email - First observed
create_calendar - First observed
create_doc - First observed
create_drive_file - First observed
create_event - First observed
create_form - First observed
create_gmail_filter - First observed
create_photos_album - First observed
create_presentation - First observed
create_sheet - First observed
create_spreadsheet - First observed
create_template_macro - First observed
delete_event - First observed
delete_gmail_filter - First observed
download_gmail_attachment - First observed
draft_gmail_forward - First observed
draft_gmail_message - First observed
draft_gmail_reply - First observed
export_and_download_presentation - First observed
fetch - First observed
format_sheet_range - First observed
forward_gmail_message - First observed
get_doc_content - First observed
get_drive_file_content - First observed
get_event - First observed
get_form - First observed
get_form_response - First observed
get_gmail_filter - First observed
get_gmail_message_content - First observed
get_gmail_messages_content_batch - First observed
get_gmail_thread_content - First observed
get_people_contact_group_members - First observed
get_photo_details - First observed
get_photos_library_info - First observed
get_presentation_info - First observed
get_response_details - First observed
get_spreadsheet_info - First observed
get_tool_analytics - First observed
health_check - First observed
list_album_photos - First observed
list_calendars - First observed
list_docs_in_folder - First observed
list_drive_items - First observed
list_events - First observed
list_form_responses - First observed
list_gmail_filters - First observed
list_gmail_labels - First observed
list_messages - First observed
list_people_contact_labels - First observed
list_photos_albums - First observed
list_spaces - First observed
list_spreadsheets - First observed
make_drive_files_public - First observed
manage_credentials - First observed
manage_drive_files - First observed
manage_gmail_allow_list - First observed
manage_gmail_label - First observed
manage_people_contact_labels - First observed
manage_space - First observed
manage_tools - First observed
modify_event - First observed
modify_gmail_message_labels - First observed
modify_sheet_values - First observed
move_events_between_calendars - First observed
photos_batch_details - First observed
photos_optimized_album_sync - First observed
photos_performance_stats - First observed
photos_smart_search - First observed
publish_form_publicly - First observed
qdrant_search - First observed
read_sheet_values - First observed
reply_to_gmail_message - First observed
search_docs - First observed
search_drive_files - First observed
search_gmail_messages - First observed
search_messages - First observed
search_photos - First observed
search_tool_history - First observed
send_dynamic_card - First observed
send_gmail_message - First observed
send_message - First observed
set_form_publish_state - First observed
set_privacy_mode - First observed
share_drive_files - First observed
start_google_auth - First observed
update_form_questions - First observed
update_slide_content - First observed
upload_folder_photos - First observed
upload_photos - First observed
upload_to_drive - First observed
verify_payment
TDQS
Scored across 7 tools
The tools are mostly separable: tags and search provide different discovery paths, and semantic_search is clearly scoped to past responses. The main ambiguity is that search, semantic_search, and tags all surface tool/response names in slightly different ways, though the descriptions mitigate this by stating when to use each.
All names use lowercase with underscores, but the structural conventions are mixed: standalone verbs (search, execute), nouns (tags, tool_activity), and verb_noun compounds (get_schema, fetch_document) coexist. This is readable, but there is no single consistent naming pattern across the tool set.
Seven tools is an appropriate, well-scoped count for a discovery, schema, execution, history, and analytics server. Each tool carries a distinct responsibility, with no obvious redundancy or bloat.
The tool surface covers the core lifecycle of discovering tools, fetching schemas, executing calls, and retrieving historical results/analytics. Minor gaps exist, such as no dedicated tool for deleting/cleaning stored history or batch management of point IDs, but these are workable around.
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