Yes. The README explicitly positions --slim for basic browser tasks and provides an example combining it with --headless.

• “Getting started” says to use --slim when only basic browser tasks are needed.
• The example configuration includes "--slim", "--headless", confirming support for a smaller tool set and headless Chrome.
• “Requirements” lists Node.js LTS, the current stable Chrome version or newer, and npm, matching your environment.
• The full mode includes tracing, network inspection, and console diagnostics, so slim avoids exposing capabilities that basic tasks do not need.

The README does not enumerate exactly which tools slim removes. It also provides no benchmark for startup time, memory usage, or agent-call cost between slim and full modes.

Yes. The README explicitly states that a standalone CLI is available without an MCP client, so your lack of Claude, Cursor, or another MCP client is not a blocker.

• The project introduction says: “A CLI is also provided for use without MCP.” This is a direct statement of standalone usage.
• “Requirements” lists Node.js LTS, the current stable Chrome version or newer, and npm, matching your environment.
• “Key features” describes Chrome DevTools tracing and performance insights, network analysis, screenshots, console inspection, and Puppeteer’s automatic waiting.
• Official support is limited to Google Chrome and Chrome for Testing. Other Chromium browsers may work but are not guaranteed.

The README body does not show concrete CLI subcommands, argument examples, or a complete feature-parity list with MCP mode. It therefore confirms the usage direction but not that every DevTools capability is exposed identically through the CLI.

Yes. The README explicitly recommends building an integrated browser subagent on top of Chrome DevTools for agents and lists the advanced runtime modes you need.

• “Integrating as a browser subagent” recommends using the project for an in-product browser subagent and links to the Gemini CLI browser-agent implementation.
• “Advanced Usage” explicitly covers concurrent sessions, persistent user-data directories, and connecting to an already running Chrome instance.
• “Configuration” mentions --headless, --isolated, and WebSocket connections, showing that the project supports more than one-off local interaction.
• MCP decouples browser capabilities from a specific AI client, while a CLI is also available without an MCP client.

However, the README does not specify concurrency limits, isolation strength, permissions for shared Chrome instances, or multi-tenant security boundaries. Those gaps matter if the product serves untrusted users.

Yes. It is designed for this workflow because it exposes a live Chrome browser and Chrome DevTools through MCP, enabling a modify–run–observe–fix loop.

• The “Key features” section says Puppeteer automatically waits for action results, which helps with asynchronous page state after interactions.
• The same section includes network-request analysis, screenshots, browser-console inspection, and source-mapped stack traces.
• “Getting started” explicitly names Antigravity, Claude, Cursor, and Copilot and shows MCP client configuration.

The README does not specify success rates for pop-ups, CAPTCHAs, authentication flows, or complex cross-origin pages. It also does not document a deterministic assertion system, so those capabilities cannot be assumed from the tool list alone.

It depends. The project can combine lab traces with CrUX data in one performance workflow, but the README defines important external-request and interpretation boundaries.

• “Key features” says it records Chrome DevTools traces and extracts actionable performance insights.
• “Disclaimers” says performance tools may send trace URLs to the Google CrUX API to fetch real-user experience data, presenting field data alongside lab data.
• The CrUX request can be disabled with --no-performance-crux when external data transfer is not allowed.
• Project insights state that local network conditions, machine resources, browser version, and page state affect traces, so a trace cannot represent every real user environment.

It is suitable as a performance-diagnosis aid, not as a complete production monitoring or population-statistics system. The README does not specify CrUX fields, freshness, coverage, or fallback behavior when the API fails.

It depends. The README provides switches for both categories of collection, but compliance still depends on the CI environment and any other outbound-request policies.

• “Usage statistics” says Google collects tool-call success rates, latency, and environment information by default. --no-usage-statistics opts out, and setting the CI environment variable also disables collection.
• “Disclaimers” says performance tools may send trace URLs to the Google CrUX API; --no-performance-crux disables that behavior.
• “Update checks” says the server periodically checks the npm registry by default; CHROME_DEVTOOLS_MCP_NO_UPDATE_CHECKS disables those checks.
• “Requirements” still require Node.js LTS, Chrome, and npm, so CI must permit those runtimes and browser processes.

The README does not provide one setting that disables every outbound connection, nor does it document whether other network requests exist. Full offline operation therefore cannot be guaranteed from the README.