World Monitor
Real-time global intelligence on conflict, markets, energy, trade, shipping and cyber. 104 tools.
Elixir/OTP runtime where every UI component auto-exposes MCP tools; stdio server: mix mcp.server
选择你使用的 AI 应用,然后复制设置。
通过 3/3 项检查 · 在你的电脑上运行
第一步:你用哪个 AI?
选择你用的应用,步骤会显示在下方。
Claude 暂时无法连接 Raxol
开发者尚未在 MCP 注册表中填写安装方式
ChatGPT 暂时无法连接 Raxol
开发者尚未在 MCP 注册表中填写安装方式
B · 其他 类中能连接 ChatGPT 的其他服务器
从同类中使用较多的里挑选,仅限用地址即可连接、无需密钥的
Claude Code 暂时无法连接 Raxol
开发者尚未在 MCP 注册表中填写安装方式
Cursor 暂时无法连接 Raxol
开发者尚未在 MCP 注册表中填写安装方式
VS Code 暂时无法连接 Raxol
开发者尚未在 MCP 注册表中填写安装方式
它在你的电脑上运行;安装后,工具列表会显示在你的 AI 应用中。
我们检查的是任何人都能看到的信息;我们没有阅读代码。不适用的检查项不计入总数。 · 检查于 2026年11月13日
注册名称已通过 GitHub 账户 DROOdotFOO 验证,该账户拥有此仓库
代码最后更新于今天
使用 MIT
它在你的电脑上运行,没有互联网端点
在你的电脑上运行,改用本地设置
它在你的电脑上运行;我们只能读取互联网端点的工具列表
提问、分享技巧或报告无法使用。按“有帮助”数量排序。
还没有评价
与注册中心里这个分类中所有活跃的服务器比较。只有当发布者拥有该仓库时,星标数才计入。
它在 3 项适用的基础检查中通过了 3 项。我们没有阅读代码。在添加密钥或令牌之前,请先看看这个服务器要求哪些权限,并使用只具备所需权限的密钥。
注册中心没有列出必需的密钥,不过有些服务器会在首次使用时要求你登录。
它在你的电脑上运行。你的 AI 应用会在需要时启动它,数据不会经过作者的服务器(除非它自己调用在线服务)。
GitHub 仓库最后更新于今天,最新版本(2.6.1)于3个月前进入注册中心。
支持 MCP 的应用,例如 Claude Desktop、Claude Code、Cursor 和 VS Code。
同一分类中有:World Monitor, Claude Flow, Windmill
同一分类中其他作者的服务器,按星标数排序。
如何看卡片:↓ 每周下载量i★ GitHub 星标i三大支柱:评价 · 检查 · 使用情况i更新 = 最新版本发布到注册中心的时间i
Real-time global intelligence on conflict, markets, energy, trade, shipping and cyber. 104 tools.
AI orchestration with hive-mind swarms, neural networks, and 87 MCP tools for enterprise dev.
按原文从作者的仓库复制。PopNx MCP 没有审查或背书其内容。HTML、图片和脚本已被移除。链接会离开本站。
Recursively, axol. Forever FOSS.
Write one app. Render it to a terminal, a browser, an SSH session, or an agent.
Your application is a single TEA module (init, update, view) running as an OTP GenServer. Raxol renders that module to four surfaces from one codebase:
+---> Terminal (termbox2 NIF)
| TEA module (GenServer) -+---> Browser (Phoenix LiveView) | +---> SSH (Erlang :ssh) | +---> Agent (MCP tools)
The interesting part is the runtime. Your app gets crash isolation per Component, hot code reload without restart, distributed clustering with CRDTs, and an agent surface where LLMs interact with structured Component trees instead of scraping pixels. Those are BEAM properties, from a VM built for systems that can't go down, can't lose state, and hot-swap code while running.
Bubble Tea, Ratatui, and Textual are excellent renderers. A2UI and AG-UI define agent-UI wire formats. Raxol is the runtime that renders all four surfaces from one source module. See Why OTP for the framework comparison, and Why Raxol for how the runtime compares to Python agent stacks like Hermes and Omnigent.
Raxol is a runtime for agents as much as for humans. Every interactive Component automatically exposes MCP tools (Button gives click, TextInput gives type_into/clear/get_value), and a focus lens filters to roughly 15 relevant tools per interaction. Where A2UI and AG-UI define how agents talk to UIs at the wire level, raxol generates the UI and the agent surface from one Component tree: same source, two projections.
import Raxol.MCP.Test
import Raxol.MCP.Test.Assertions
session = start_session(MyApp)
session |> type_into("search", "elixir") |> click("submit") |> assert_component("results", fn c -> c[:content] != nil end) |> stop_session()
mix mcp.server starts the MCP server on stdio for Claude Code integration, and mix raxol.code is an interactive terminal coding agent (the axol face) with every mutating tool call gated by an ALLOW/ASK/DENY authorization engine. See the Coding Agent.
Code is the coding-agent product, in two hands-on surfaces: mix raxol.code is the interactive terminal TUI (the axol face ≡··≡), and mix raxol.p is its headless twin (prompt in on argv, answer to stdout, contract events to stderr) for pipes and CI. Every mutating tool call is gated by an ALLOW/ASK/DENY authorization engine. From a clone, one setup command and one launch:
(cd packages/raxol_agent && mix deps.get) # once
bin/raxol-code # the TUI, your cwd as the workspace
No API key configured? The TUI opens on a provider wizard instead of failing. /inspect (or mix raxol.inspect from packages/raxol_agent) shows every config source the agent will use in the current directory.
Sessions are durable. Each session journals its events to disk, so --continue and --resume restore the model context and the scrollback together, --replay prints a transcript straight from the journal (--to-offset N stops at an offset), /rewind drops back to an earlier turn, and /share mints a signed 24-hour link to a read-only transcript that follows the session live (needs RAXOL_SHARE_SECRET and a host mounting Raxol.Agent.Code.ShareLive).
The same TUI serves over SSH: mix raxol.code --ssh --ssh-tenants /srv/tenants hosts many users from one daemon, each behind their own public key with their own cwd jail, session store, and spending identity (ssh @your-host -p 2222 is the whole client). Single-tenant (--authorized-keys) and hosted deployment (RAXOL_SSH_CODE=true) are in Coding Agent.
Two unattended surfaces run the same agent. bin/raxol-acp (or mix raxol.acp) serves it over the Agent Client Protocol on stdio, for editors that spawn an agent themselves; Raxol.Agent.Harness.McpTools registers harness_start_session, harness_send_prompt, harness_read_transcript, and harness_list_sessions with the MCP registry, so a session started by an MCP client resumes later in the TUI. The ACP surface runs the full toolset with every sensitive call gated on a session/request_permission round trip, fail-closed on the decision: a client that refuses, times out, or does not implement permissions denies the write and keeps reading. The MCP surface stays read-only: write_file, edit_file, and bash are absent where nobody is there to answer an approval prompt.
Every one of those surfaces sits on the Harness, the agent-session engine: a durable event journal (Raxol.Agent.Journal), a typed event/command contract (Raxol.Agent.Contract), and surface state that is a pure fold over the event stream (Raxol.Harness.Projection), with staged interrupt, steer, and spend/blast-radius gates underneath. The same engine can supervise external agent CLIs (claude, cursor) as readily as Raxol's own loop. See Harness architecture.
The agent subsystems ship as standalone packages:
raxol_payments): wallets, ledger-enforced spending limits, and transparent auto-pay when an agent hits an HTTP 402, across five protocols (x402, MPP, Xochi cross-chain, Permit2, Riddler).raxol_earn): the sell side. Declare an offering, implement two callbacks, and a buyer agent discovers it, escrows funds, and settles on-chain through the Virtuals ACP job lifecycle (request, negotiation, transaction, evaluation, completed), one supervised process per job. Pre-alpha.raxol_agent): a solved task becomes a reusable SKILL.md. A background reviewer runs on a cheap model after each turn, writing durable memory and new skills without spending the live turn's latency or context.raxol_gateway): one adapter contract to many chat platforms, process-per-chat sessions, DM pairing for authorization, and /handoff to move a conversation across platforms with its history intact.raxol_agent_client_protocol): Elixir/OTP implementation of the Agent Client Protocol: the JSON-RPC 2.0 wire protocol between code editors and AI coding agents (the protocol Zed and a growing ecosystem speak). Bidirectional agent/client roles, pluggable transports (stdio, in-process), and durable resumable sessions (offset-based reattach/replay) as a vendor extension. Zero raxol-internal deps. Pre-alpha.# mix.exs
def deps do [{:raxol, "~> 2.7"}] end
Or generate a new project:
mix raxol.new my_app
With Nix, nix develop drops you into a shell with the full BEAM and NIF toolchain (no local Elixir install required):
nix develop github:DROOdotFOO/raxol # dev shell with elixir, erlang, NIF + speech deps
Nothing to install: raxol.io runs the same catalog in a browser, one LiveView per demo. That surface is this repo's web/ app; see web/README.md to run it yourself. In a terminal:
git clone https://github.com/DROOdotFOO/raxol.git
cd raxol && mix deps.get mix raxol.playground # 42 live demos, browse/search/filter
The flagship demo is a live BEAM dashboard with scheduler utilization, memory sparklines, and a process table:
mix run examples/demo.exs
See examples/README.md for the full learning path, including agent examples, swarm demos, and the REPL.
Headless environment (CI, containers, agents)? The whole build-and-test path needs no tty:
mix local.hex --force # fresh machines and CI: install Hex without a prompt
mix deps.get mix compile # termbox2 NIF needs make + a C compiler SKIP_TERMBOX2_TESTS=true MIX_ENV=test mix test --exclude slow --exclude integration --exclude docker MIX_ENV=test mix raxol.rate # RATE: render-determinism golden suite
Prerequisites, the quality gate, and constrained-sandbox notes are in Development.
Full frame in 5.0ms on Apple M1 (Elixir 1.20 / OTP 29), 31% of the 60fps budget.
| What | Time |
|---|---|
| Full frame (create + fill + diff) | 5.0 ms |
| Tree diff (100 nodes, 1 changed) | 32 us |
| Cell write (single) | 1.4 us |
| Buffer create (80x24) | 0.32 us |
| Emulator ingest (parse + apply, plain) | 1.7 ms |
| Memory per 80x24 buffer | 2 KB |
Measured 2026-08-07 at fce2465bb with mix run bench/suites/comparison/framework_comparison.exs (full mode). The ingest row is the whole emulator path (parse plus state application), not the standalone ANSI lexer, which handles plain text in under a microsecond (mix raxol.bench parser).
Unix/macOS backend uses a termbox2 NIF; Windows uses a pure Elixir driver (usable, not yet tuned). See the benchmark suite.
Start with the documentation index, or jump to:
Working from source needs Elixir/OTP (versions in mise.toml) and a C toolchain: the termbox2 NIF compiles with make and cc (on Debian/Ubuntu, apt-get install build-essential). nix develop provides all of it in one shell. Every command below runs headless: no terminal is required for the build, the test suite, or the golden checks.
git clone https://github.com/DROOdotFOO/raxol.git
cd raxol mix local.hex --force # fresh machines and CI: install Hex without a prompt mix deps.get mix compile # builds the termbox2 NIF SKIP_TERMBOX2_TESTS=true MIX_ENV=test mix test --exclude slow --exclude integration --exclude docker MIX_ENV=test mix raxol.rate # RATE: render-determinism golden suite mix raxol.check # full gate: format, compile, credo, dialyzer, security, docs, rate, test mix raxol.check --quick # skip dialyzer mix raxol.demo # built-in demos (needs a terminal)
SKIP_TERMBOX2_TESTS=true excludes the tests that need a real local terminal (pty lifecycle, timing-sensitive suites); CI sets the same variable. Plain mix test without the exclude flags also runs integration suites that need external services (the workflow ch