TheQuery Gateway for Supabase

  

Empower your integrated development environment to safely run DML/DDL operations, manage your entire PostgreSQL instance, interface with the Management Plane API, and handle user identity functions with integrated guardrails.

🎉 Evolution: Supabase MCP Server to TheQuery Gateway

I am pleased to announce the transition of Supabase MCP Server toward thequery.dev!

While ambitious future plans are underway, I want to clearly state my foundational promises: - Core functionality remains perpetually complimentary - FOSS principles guide my development path. - Enhanced capabilities will be delivered via premium tiers - Existing features will never be artificially restricted. - Exclusive benefits for the initial 2,000 adopters - Secure your special advantage by joining early!

Anticipating Major Release v4 Soon!

👉 Secure Early Access at thequery.dev

Navigator

Setup Guide • Capabilities Matrix • Diagnostics • Release Notes

✨ Core Capabilities

• 💻 Interoperable with Cursor, Windsurf, Cline, and other MCP clients utilizing the stdio specification.
• 🔐 Granular control over SQL execution contexts: read-only vs. read-write privileges.
• 🔍 Validation of SQL queries at runtime, complete with associated risk scoring.
• 🛡️ A hierarchical defense system for database interactions: Tier 1 (Safe), Tier 2 (Write Access), and Tier 3 (Destructive).
• 🔄 Reliable management of database sessions, supporting both ephemeral and pooled connections.
• 📝 Automated tracking and versioning for all modifications to the database schema.
• 💻 Comprehensive interface for managing your Supabase environment via the Management API.
• 🧑‍💻 Management of user identities utilizing Supabase Auth Admin functionalities via the Python SDK bindings.
• 🔨 Provisioned utility functions designed to optimize the interaction between Cursor/Windsurf and the MCP protocol.
• 📦 Effortless deployment and environment configuration via modern Python distribution mechanisms (uv, pipx, etc.).

Getting Started

Prerequisites

To install the gateway server, ensure the following runtime dependency is present: - Python version 3.12 or newer

If leveraging the uv installer, confirm its successful installation.

PostgreSQL Dependency Clarification

PostgreSQL development headers are no longer required for the gateway itself, thanks to the adoption of asyncpg. However, if you intend to run a local Supabase stack, PostgreSQL remains a necessary component:

MacOS

brew install postgresql@16

Windows - Obtain and install PostgreSQL version 16 or higher from https://www.postgresql.org/download/windows/ - During setup, select both "PostgreSQL Server" and "Command Line Tools".

Step 1. Deployment

Support for direct package installation was integrated starting from v0.2.0. Employ your preferred Python package manager:

# If pipx is available (Recommended method)
pipx install supabase-mcp-server

# If uv is managing dependencies
uv pip install supabase-mcp-server

pipx is suggested as it isolates dependencies for each application.

Alternatively, manual installation involves cloning the repository and executing pipx install -e . from the root directory.

Source Code Installation

For local development or direct inspection:

uv venv
# Unix-like systems
source .venv/bin/activate
# Windows (CMD)
.venv\Scripts\activate
# Install package in editable mode
uv pip install -e .

Deployment via Smithery.ai

Instructions for integrating this gateway with Smithery.ai clients are documented here.

Step 2. Environment Context Setup

The Supabase Gateway demands specific configuration parameters to establish connectivity to your remote database, authorize access to the Management API, and utilize the Auth Admin SDK.

Configuration via Environment Variables

The server prioritizes the following environment variables for configuration:

Variable	Mandatory	Default Value	Purpose
SUPABASE_PROJECT_REF	Essential	127.0.0.1:54322	The unique identifier for your Supabase project (or local host/port)
SUPABASE_DB_PASSWORD	Essential	postgres	Credentials for database access
SUPABASE_REGION	Essential*	us-east-1	The specific AWS region hosting your Supabase deployment
SUPABASE_ACCESS_TOKEN	Optional	None	Personal Access Token for invoking Management APIs
SUPABASE_SERVICE_ROLE_KEY	Optional	None	Service Role Key required for Auth Admin SDK invocations

Local Default Note: The default settings are tailored for an active local Supabase environment. Remote deployments necessitate explicit specification of SUPABASE_PROJECT_REF and SUPABASE_DB_PASSWORD.

🚨 CRITICAL REGION ALERT: For cloud-hosted Supabase environments, setting SUPABASE_REGION to match your project's actual hosting location is MANDATORY. Mismatches here often manifest as "Tenant or user not found" errors. Check the Supabase console under Project Settings to confirm the region.

Connection Modalities

Database Linkage

• The gateway establishes connections via the transaction pooling endpoint of your Supabase PostgreSQL instance.
• Local setups default to a direct linkage at 127.0.0.1:54322.
• Remote deployments utilize the standardized pooler address format: postgresql://postgres.[project_ref]:[password]@aws-0-[region].pooler.supabase.com:6543/postgres

⚠️ Constraint: Session-based pooling is explicitly unsupported. The architecture mandates transaction pooling for optimal MCP server performance.

Management API Linkage

• Requires the presence of SUPABASE_ACCESS_TOKEN.
• Targets the official Supabase Management API endpoint: https://api.supabase.com.
• Functionality is restricted to remote Supabase instances (incompatible with local setups).

Auth Admin SDK Linkage

• Requires the presence of SUPABASE_SERVICE_ROLE_KEY.
• Connects to http://127.0.0.1:54321 for local execution.
• Connects to https://[project_ref].supabase.co for remote deployments.

Configuration Discovery Hierarchy

The server searches for credentials in the following sequence (highest precedence first):

1. Environment Variables: Directly sourced from the execution shell environment.
2. Local .env File: A configuration file located in the current working directory (active only when running from source).
3. Global Configuration File:
4. Windows: %APPDATA%\supabase-mcp\.env
5. macOS/Linux: ~/.config/supabase-mcp/.env
6. Inherent Defaults: The local development settings, if no other source provides configuration.

⚠️ Package Install Warning: When deployed via pipx or uv, local .env files within your project structure are ignored. Configuration must be supplied via environment variables or the global configuration file.

Establishing Configuration Context

Option 1: Client-Specific Configuration (Preferred)

Inject environment variables directly into the configuration settings of your MCP client (refer to client-specific guides in Step 3). This method centralizes context management with the client environment.

Option 2: Global Configuration File

Instantiate a universal .env file to serve all gateway instances:

# Directory creation (Unix)
mkdir -p ~/.config/supabase-mcp
# Directory creation (PowerShell)
mkdir -Force "$env:APPDATA\supabase-mcp"

# File initialization and editing
# Unix
nano ~/.config/supabase-mcp/.env
# Windows
notepad "$env:APPDATA\supabase-mcp\.env"

Populate the file with your credentials:

SUPABASE_PROJECT_REF=your-project-ref
SUPABASE_DB_PASSWORD=your-db-password
SUPABASE_REGION=us-east-1
SUPABASE_ACCESS_TOKEN=your-access-token
SUPABASE_SERVICE_ROLE_KEY=your-service-role-key

Option 3: Project-Specific Context (Source Install Only)

If operating the server directly from cloned source code, a .env file in the project root adheres to the same format as above.

Locating Supabase Project Metadata

• Project Identifier: Extracted from the unique segment in your dashboard URL: https://supabase.com/dashboard/project/<project-ref>
• Database Credential: Established during initial project provisioning or found under Project Settings → Database.
• Access Token: Generated in the Supabase dashboard at Account Settings → Tokens.
• Service Role Key: Accessible in Project Settings → API → Project API Keys.

Supported Deployment Regions

The gateway recognizes all officially provisioned Supabase regions:

• us-west-1 - US West (N. California)
• us-east-1 - US East (N. Virginia) - Default
• us-east-2 - US East (Ohio)
• ca-central-1 - Canada (Central)
• eu-west-1 - Western Europe (Ireland)
• eu-west-2 - Western Europe (London)
• eu-west-3 - Western Europe (Paris)
• eu-central-1 - Central Europe (Frankfurt)
• eu-central-2 - Central Europe (Zurich)
• eu-north-1 - Northern Europe (Stockholm)
• ap-south-1 - South Asia (Mumbai)
• ap-southeast-1 - Southeast Asia (Singapore)
• ap-northeast-1 - Northeast Asia (Tokyo)
• ap-northeast-2 - Northeast Asia (Seoul)
• ap-southeast-2 - Oceania (Sydney)
• sa-east-1 - South America (São Paulo)

Known Constraints

• Self-Hosted Incompatibility: Explicitly supports only official Supabase.com deployments and local emulation.
• Connection String Restriction: Custom PostgreSQL connection strings are not accepted.
• Pooling Type Limitation: Transaction pooling is the sole supported database connection method.
• API/SDK Availability: Management API and Auth Admin SDK features require a live, remote Supabase project context.

Step 3. Operationalization

This gateway is designed for compatibility with any Model Context Protocol (MCP) client supporting the stdio interface. Verification confirms functionality with: - Cursor - Windsurf - Cline - Claude Desktop

Furthermore, smithery.ai provides deployment pathways for integrating this gateway with the aforementioned clients.

Refer to the client-specific integration guides below:

Cursor Integration

Navigate to Settings → Features → MCP Servers, then establish a new server entry:

# Assign any logical identifier
name: supabase
type: command
# If installed via pipx
command: supabase-mcp-server
# If installed via uv
command: uv run supabase-mcp-server
# Fallback: Use the absolute path (Strongly recommended)
command: /full/path/to/supabase-mcp-server  # Determine path via 'which supabase-mcp-server' (Unix) or 'where supabase-mcp-server' (Windows)

Successful configuration is indicated by a green connection status icon and the visibility of the server's exposed toolset.

Windsurf Integration

In the Windsurf interface, navigate to Cascade → Click the wrench icon → Configure. Populate the structure:

{
    "mcpServers": {
      "supabase": {
        "command": "/Users/username/.local/bin/supabase-mcp-server",  // Update this path
        "env": {
          "SUPABASE_PROJECT_REF": "your-project-ref",
          "SUPABASE_DB_PASSWORD": "your-db-password",
          "SUPABASE_REGION": "us-east-1",  // Optional; defaults to us-east-1
          "SUPABASE_ACCESS_TOKEN": "your-access-token",  // Optional; for management interface
          "SUPABASE_SERVICE_ROLE_KEY": "your-service-role-key"  // Optional; for Auth Admin SDK
        }
      }
    }
}

A green connection indicator and the presence of the clickable Supabase server in the available list confirm proper setup.

Claude Desktop Integration

Claude Desktop utilizes a JSON structure for MCP server definitions. Follow these steps for deployment:

1. Locate Executable Full Path (Essential): ```bash # Unix which supabase-mcp-server

# Windows where supabase-mcp-server `` Copy the resulting absolute path (e.g.,/Users/username/.local/bin/supabase-mcp-server`).

1. Configure in Claude Desktop:
2. Launch Claude Desktop.
3. Access Settings → Developer -> Edit Config MCP Servers.
4. Insert the following JSON block:

json { "mcpServers": { "supabase": { "command": "/full/path/to/supabase-mcp-server", // Substitute with the path from step 1 "env": { "SUPABASE_PROJECT_REF": "your-project-ref", "SUPABASE_DB_PASSWORD": "your-db-password", "SUPABASE_REGION": "us-east-1", // Optional "SUPABASE_ACCESS_TOKEN": "your-access-token", // Optional "SUPABASE_SERVICE_ROLE_KEY": "your-service-role-key" // Optional } } } }

⚠️ Claude Path Requirement: Unlike other clients, Claude Desktop strictly mandates the absolute, fully qualified path to the binary. Simple command invocation (supabase-mcp-server) will likely trigger an "spawn ENOENT" failure.

Successful integration yields the Supabase gateway listed among available services in Claude Desktop.

Cline Integration

Cline similarly employs a JSON configuration mechanism. To deploy the Supabase gateway:

1. Determine Absolute Executable Location (Crucial Step): ```bash # Unix which supabase-mcp-server

# Windows where supabase-mcp-server `` Record the full path (e.g.,/Users/username/.local/bin/supabase-mcp-server`).

1. Configure within Cline:
2. Open the Cline extension in VS Code.
3. Navigate to the "MCP Servers" tab in the sidebar.
4. Select "Configure MCP Servers," which opens cline_mcp_settings.json.
5. Augment the configuration with this structure:

json { "mcpServers": { "supabase": { "command": "/full/path/to/supabase-mcp-server", // Replace with the path identified in step 1 "env": { "SUPABASE_PROJECT_REF": "your-project-ref", "SUPABASE_DB_PASSWORD": "your-db-password", "SUPABASE_REGION": "us-east-1", // Optional "SUPABASE_ACCESS_TOKEN": "your-access-token", // Optional "SUPABASE_SERVICE_ROLE_KEY": "your-service-role-key" // Optional } } } }

Success is verified by a green indicator next to the Supabase entry in the Cline panel and a status message at the panel's footer confirming "supabase MCP server connected."

Diagnostics

Guidance for resolving common installation and operational hurdles: - Installation Sanity Check: Execute supabase-mcp-server directly from the command line to confirm successful binary invocation. Failures here indicate installation integrity issues. - Protocol Context Validation: If the prior check succeeds, the server is running; focus shifts to ensuring the client IDE is pointing to the correct executable command/path within its settings. - "No Tools Available" Diagnosis: If Cursor reports "Client closed - no tools available" despite a valid installation: - Obtain the fully qualified path using which supabase-mcp-server (Unix) or where supabase-mcp-server (Windows). - Substitute the simple command name with this absolute path in your client's configuration. - Example absolute paths: /Users/username/.local/bin/supabase-mcp-server or C:\Users\username\.local\bin\supabase-mcp-server.exe - Credential Provisioning: Verify that environment variables are correctly populated, either via client-specific JSON/settings or within the designated global .env files (~/.config/supabase-mcp/.env or %APPDATA%\supabase-mcp\.env). - Log Examination: The server maintains a detailed operational journal: - Log File Locations: - Unix: ~/.local/share/supabase-mcp/mcp_server.log - Windows: %USERPROFILE%\.local\share\supabase-mcp\mcp_server.log - Review logs using standard terminal utilities for insights into connection status, configuration parsing, and execution results: ```bash # Unix cat ~/.local/share/supabase-mcp/mcp_server.log

# Windows (PowerShell)
Get-Content "$env:USERPROFILE\.local\share\supabase-mcp\mcp_server.log"
```

If resolution remains elusive or documentation appears inaccurate, please report the issue via the issue tracker.

MCP Inspector Utility

For advanced debugging, the MCP Inspector provides deep visibility into server operations. If deployed from source, invoke supabase-mcp-inspector from the repository directory to launch an inspection instance.

📝 Note: Invoking supabase-mcp-inspector after package installation may exhibit unpredictable behavior; this interaction will be validated and corrected in the subsequent release.

Capability Matrix

Database Interaction Tools

Since version 0.3+, the gateway offers comprehensive database management tools layered with intrinsic safety measures:

• SQL Command Dispatch: Execute raw PostgreSQL statements subject to risk scoring.

• Triple-Layer Safety Protocol:

  • safe: Queries restricted to data retrieval (SELECT) - always permitted.
  • write: Commands altering data (INSERT, UPDATE, DELETE) - mandate escalation to unsafe mode.
  • destructive: Commands modifying schema (DROP, CREATE) - require unsafe mode activation AND explicit multi-step validation.

• Syntax Analysis & Verification:

• Leverages the official PostgreSQL parser (pglast) for precise structural assessment, yielding clear pre-execution advisories.

• Automated Schema Versioning:

• All schema-modifying transactions are automatically cataloged into versioned migration artifacts.

• Naming conventions are generated contextually based on the operation type and target object.

• Safety Enforcement Mechanisms:

• Default operation mode permits only non-mutating reads (SAFE).
• All statements are wrapped within transaction boundaries via asyncpg.

• High-hazard operations mandate a two-phase confirmation workflow.

• Exposed Functions:

• get_schemas: Inventory of schemas, including size metrics and object counts.
• get_tables: Catalog of tables, foreign tables, and views with associated metadata.
• get_table_schema: Detailed structural introspection (columns, constraints, relational mapping).
• execute_postgresql: Direct execution against the database engine.
• confirm_destructive_operation: Executes high-risk operations following a client-side approval signal.
• retrieve_migrations: Fetches recorded migration histories, supporting filtering and paging.
• live_dangerously: Function to toggle the operational context between safe (read-only) and unsafe (write/destroy).

Management Plane API Interfaces

Since v0.3.0, the gateway provides secure ingress to the Supabase Management API, governed by consistent safety protocols:

• Exposed Functions:
• send_management_api_request: Dispatches arbitrary HTTP requests to the Supabase Management API, automatically injecting project context.
• get_management_api_spec: Retrieves the augmented API specification, enriched with risk profiles:
  • Supports query modes: filtering by service domain, specific URI path/method, or retrieval of all endpoints.
  • Includes explicit risk evaluation data for every endpoint.
  • Details parameter schemas and expected response structures.
  • Assists Language Models in grasping the full scope of Management API capabilities.
• get_management_api_safety_rules: Fetches all defined safety constraints with easily interpretable rationales.

• live_dangerously: Toggles the global safety state (safe/unsafe).

• Safety Directives:

• Leverages the same centralized safety manager as database operations for uniform governance.
• Operations are classified by inherent hazard level:
  • safe: Retrieval operations (GET) - always permitted.
  • unsafe: State-modifying operations (POST, PUT, PATCH, DELETE) - require unsafe enablement.
  • blocked: Irreversible operations (e.g., project termination) - strictly forbidden.
• Default safe mode prevents accidental state alteration.
• Safety rules are applied via precise path-based regular expression matching.

Note: Management API and Auth Admin SDK functions are operational exclusively with cloud-hosted Supabase projects; local development instances do not support these features.

Auth Identity Management Interfaces

Initially conceived as a broad Python SDK wrapper, the focus narrowed to Auth Admin operations due to their frequent manual execution for test user provisioning. This streamlines user creation via simple LLM prompts.

Since v0.3.6, direct invocation of Supabase Auth Admin SDK primitives is supported: - Includes utility functions: - get_auth_admin_methods_spec: Fetches the documentation interface for all available Auth Admin tools. - call_auth_admin_method: Executes Auth Admin functions with correct argument binding. - Implemented Methods: - get_user_by_id: Fetch specific user records. - list_users: Paginated retrieval of user sets. - create_user: Provision a new user entity. - delete_user: Erase a user record by ID. - invite_user_by_email: Trigger an email invitation workflow. - generate_link: Create specialized authentication links. - update_user_by_id: Modify existing user attributes. - delete_factor: Remove a user's registered security factor (SDK status: pending implementation).

Rationale for SDK Use Over Raw SQL for Auth

Utilizing the Auth Admin SDK offers significant benefits over constructing and executing direct SQL on the auth schema: - Functional Completeness: Enables crucial non-SQL operations like user invitations and MFA link generation. - Reliability: Provides superior consistency compared to crafting ad-hoc SQL for sensitive identity schema interactions. - Usability: Method-based calls feature superior inherent validation and standardized error reporting.

• Output Format:
  • Methods yield structured Python objects instead of raw dictionary outputs.
  • Object properties are accessible via direct attribute access (e.g., user.id instead of user["id"]).
• Contextual Caveats & Limitations:
  • UUID Validation: Most ID-centric functions enforce strict UUID formatting and report specific validation failures if violated.
  • Email Delivery Prerequisite: Functions like invite_user_by_email and generate_link depend on SMTP settings being correctly configured within the Supabase project for successful execution.
  • Link Specificity: Link generation behavior varies: signup links function irrespective of user existence, whereas magiclink and recovery links require an existing user record.
  • Error Reporting: The gateway relays detailed error messages directly from the Supabase API, which may differ from dashboard feedback.
  • API Parity: Some API endpoints (e.g., factor deletion) may be exposed but lack complete SDK implementation.

Monitoring and Observability Tools

The gateway extends monitoring capabilities by exposing interfaces to retrieve Supabase operational logs and analytical data, streamlining diagnostics across the entire stack:

• Exposed Function:

• retrieve_logs: Centralized access point for log streams from all Supabase services.

• Log Streams Available:

• postgres: Database engine event logs.
• api_gateway: Ingress requests handled by the API proxy.
• auth: Identity service activity records.
• postgrest: Logs from the RESTful API layer.
• pooler: Connection pooler status updates.
• storage: Object storage interaction records.
• realtime: WebSocket connection and subscription events.
• edge_functions: Serverless function invocation traces.
• cron: Scheduled task execution results.

• pgbouncer: Specific logs for the PostgreSQL connection multiplexer.

• Filtering Capabilities: Supports temporal filtering, text string searches, specific field filtering, and custom SQL query submission against log metadata.

Eliminates the need to switch contexts or compose complex SQL queries across multiple interfaces for system health verification.

Persistent Tracking for Database Modifications

"With elevated authority comes enhanced accountability." While the execute_postgresql tool, synergized with the live_dangerously mechanism, offers unparalleled database manipulation ease, it also introduces the potential for accidental, irreversible schema destruction via conversational instruction. To mitigate this peril, since v0.3.8, the gateway enforces: - Automatic capture and persistence of migration scripts for every data write or schema modification executed. - Refined operational modes for query dispatch, categorized as: - safe category: Always permitted. Encompasses all read-only operations. - write category: Mandates explicit user enablement of write context. - destructive category: Requires both write context enablement AND a secondary, explicit confirmation step for clients that do not auto-execute tool calls.

Unified Safety Context

Since version 0.3.8, the risk assessment framework has been harmonized across all integrated services (database, API, SDK) via a singular Safety Manager. This ensures consistent governance and a unified control surface for all security parameters.

All dispatched actions (SQL, API calls, SDK methods) are mapped to precise hazard tiers: - Low risk: Operations involving no data or structural mutation (e.g., SELECT statements, GET API calls). - Medium risk: Operations that alter data content but not the underlying structure (e.g., INSERT/UPDATE/DELETE, most PUT/POST API calls). - High risk: Operations causing structural schema modification or potential data eradication (e.g., DROP/TRUNCATE, DELETE API endpoints). - Extreme risk: Actions carrying system-wide irreversible consequences (e.g., project deletion) - inherently blocked.

Safety enforcement logic based on tier: - Low risk actions are executed without prerequisite checks. - Medium risk actions require the unsafe operational mode to be active. - High risk actions require unsafe mode activation PLUS explicit, affirmative user consent. - Extreme risk actions are universally denied.

Confirmation Protocol Mechanics

Any operation classified as High Risk (whether SQL or API-bound) will be intercepted and blocked, even if the unsafe flag is set. Execution necessitates explicit user approval within the client interface for that specific pending operation.

Release Notes

• 📦 Streamlined deployment via standard package managers - ✅ (v0.2.0)
• 🌎 Broadened operational range to support diverse Supabase geographical deployments - ✅ (v0.2.2)
• 🎮 Introduced secure, controlled interaction with the Supabase Management Plane API - ✅ (v0.3.0)
• 👷‍♂️ Enabled execution of both read-only and read-write PostgreSQL commands with integrated safeguards - ✅ (v0.3.0)
• 🔄 Enhanced resilience of connection handling across direct and pooled endpoints - ✅ (v0.3.2)
• 🐍 Integrated support for methods and data structures found in the native Python SDK ecosystem - ✅ (v0.3.6)
• 🔍 Significantly tightened validation procedures for incoming SQL payloads ✅ (v0.3.8)
• 📝 Implemented automatic persistence of database schema evolution records ✅ (v0.3.8)
• 📖 Substantially improved API specification comprehension and utility toolset accessibility ✅ (v0.3.8)
• ✍️ Greater consistency in migration-related toolsets, promoting robust database version control practices ✅ (v0.3.10)

For deeper insight into the future trajectory, consult this GitHub Discussion.

Repository Popularity Trajectory

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== Defining Attributes == In 2011, the United States' National Institute of Standards and Technology (NIST) established five "essential characteristics" defining cloud systems. The precise NIST definitions are as follows:

On-demand self-service: "A consumer possesses the ability to unilaterally procure computing capacity, such as computational time and network space, as required, automatically, without requiring intervention from the service provider for each fulfillment." Ubiquitous Network Accessibility: "Services are available across the network, accessible through standardized interfaces suitable for use by a variety of client devices (e.g., mobile handsets, tablets, personal computers, and workstations)." Resource Consolidation: "The provider's collective computational assets are aggregated to support numerous clients via a multi-tenant architecture, where physical and virtual components are dynamically allocated and reallocated based on fluctuating customer demands." Scalability and Elasticity: "Capabilities can be provisioned and decommissioned flexibly, sometimes automatically, allowing for rapid expansion and contraction to match fluctuating workload requirements. To the end-user, the capacity available for deployment frequently appears boundless and allocatable in any volume at any time." Usage Metering: "Cloud systems employ automated mechanisms to govern and optimize resource consumption by utilizing measurement functions at an appropriate level of service abstraction (e.g., storage consumption, processing cycles, data transfer rates, and active user accounts). Resource utilization is trackable, manageable, and reportable, ensuring transparency for both the supplier and the recipient of the service." As of 2023, the International Organization for Standardization (ISO) has subsequently broadened and refined this list.

== Historical Context ==

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