OpenChrome
Related Servers
Alternatives to OpenChrome
No user-submitted related servers found.
Related Servers
- AlicenseNot gradedqualityBmaintenanceEnables AI agents to control a real, authenticated Chrome browser through native tools for navigation, DOM interaction, form filling, scraping, screenshots, and human-in-the-loop checkpoints while minimizing tokens and latency.MIT
- AlicenseNot gradedqualityBmaintenanceEnables AI coding agents to control and inspect a live Chrome browser for reliable automation, in-depth debugging, performance analysis, and high-speed batched or parallel workflows.1,924,448 npmApache 2.0
- AlicenseBqualityDmaintenanceEnables AI agents to fully control Google Chrome: navigate, click, fill forms, inspect DevTools, and manage tabs with parallel execution and session isolation.246 npmMIT
- AlicenseBqualityFmaintenanceEnables AI agents to directly control your real Chrome browser with full context including login sessions, cookies, and open tabs. It provides tools for page scanning, JavaScript execution, CDP control, screenshots, and physical mouse/keyboard input for authentic browser automation.20245MIT
- AlicenseBqualityAmaintenanceEnables AI agents and developers to automate real Chrome/Chromium browsers through the Chrome DevTools Protocol, with token-efficient snapshots, multi-action batching, shadow DOM traversal, system-page control, extension management, and network/WebSocket inspection.811MIT
- AlicenseNot gradedqualityAmaintenanceEnables AI agents to drive a real Chrome browser for autonomous web tasks, using fast typed decisions with calibrated confidence, human-in-the-loop questions, safety gates, and full debug traces.237 npm5MIT
TDQS
Scored across 122 tools
Multiple overlapping tool families create real confusion: three separate task/run systems (oc_task_*, oc_task_run_*, oc_run_*) have nearly identical start/get/list/cancel verbs, and several page-reading tools (read_page, inspect, page_content, extract_data, oc_observe) have fuzzy boundaries. Element location is split across find, query_dom, vision_find, oc_query, and oc_observe, while interact/act/computer require careful reading to distinguish. Detailed descriptions help, but the sheer number of near-duplicate surfaces will cause misselection.
The oc_ prefixed tools follow a reasonably consistent verb_noun pattern (oc_task_run_start, oc_session_snapshot), but the legacy non-prefixed tools mix conventions wildly: some are verb_noun (read_page, fill_form), others noun_verb (page_screenshot, page_reload), and several are bare nouns (computer, network, storage, cookies, memory). The confusingly similar oc_task_run_* vs oc_task_* prefixes and odd names like javascript_tool and batch_paginate further erode consistency.
122 tools is far beyond any reasonable scope for a browser automation server. There are multiple redundant subsystems (three task/run ledgers, at least five page-reading tools, three performance analyzers, two network capture tools) that inflate the surface without adding proportionate capability. This is a textbook case of tool sprawl that will overwhelm agents and add selection latency.
The browser automation domain is very thoroughly covered — navigation, reading, interaction, forms, network, performance, crawling, screenshots, and workflows all have extensive support with no obvious dead ends or missing core operations. If anything, completeness is over-achieved at the cost of coherence; the sprawl means completeness is high but at the expense of the other dimensions.