esphome/device-builder

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# ESPHome Device Builder Dashboard [![PyPI version](https://img.shields.io/pypi/v/esphome-device-builder.svg)](https://pypi.org/project/esphome-device-builder/) [![codecov](https://codecov.io/gh/esphome/device-builder/branch/main/graph/badge.svg)](https://codecov.io/gh/esphome/device-builder) [![CodSpeed](https://img.shields.io/endpoint?url=https://codspeed.io/badge.json)](https://codspeed.io/esphome/device-builder) > **Status:** stable. The dashboard reached its 1.0 release and ships > as the default builder in the official ESPHome add-on (as of ESPHome > 2026.6.0). Issues > and feedback welcome — please check existing issues / the > [project board](https://github.com/orgs/esphome/projects/7/views/1?filterQuery=project%3A%22device-builder%22) > first, and join the [Discord channel](https://discord.gg/Rf2jWGVjaK) > for live discussion. A new dashboard for [ESPHome](https://github.com/esphome/esphome) — a guided interface for composing device configs, exploring components and boards, managing automations, and pushing firmware updates. ## Try it > Running it behind a reverse proxy? > Skip ahead to [Behind a reverse proxy](#behind-a-reverse-proxy) > for the nginx / `--trusted-domains` setup. The dashboard runs **by default** in the official Home Assistant add-on (as of ESPHome 2026.6.0) and ships as an **opt-in backend** in [ESPHome Desktop](https://github.com/esphome/esphome-desktop). Pick the path that matches how you run ESPHome today: ### Home Assistant add-on As of ESPHome 2026.6.0, the ESPHome add-on (Stable, Beta, or Dev) runs the Device Builder by default; install or update the add-on and open it from the Home Assistant sidebar. The Device Builder ships inside the add-on and serves the dashboard over Home Assistant Ingress, so there's no toggle to set. The add-on's data layout stays the same (`/config/esphome/` for YAMLs, `/data/` for build artefacts) so updating doesn't move or duplicate any state. ### ESPHome Desktop (macOS / Windows / Linux) Install [ESPHome Desktop](https://github.com/esphome/esphome-desktop) v0.7.0 or later, then click the system-tray icon and pick **Backend → ESPHome Builder (stable)** or **ESPHome Builder (beta)**. The daemon restarts under the chosen backend and the tray badge updates to reflect which one is running. Switch back to **Classic ESPHome Dashboard** the same way. > **Windows build location.** On native Windows the dashboard puts its > build tree and PlatformIO toolchain under a short, space-free root, > `C:\esphb\<id8>\` (where `<id8>` is the first 8 characters of the > dashboard id; per-dashboard roots nest under one `C:\esphb` folder), > rather than under your config / profile dir, so deep ESP-IDF build paths > stay under the 260-char `MAX_PATH` limit and clear of spaces in your > profile name (`C:\Users\First Last\…`). The native ESP-IDF toolchain > lives at `C:\esphb\idf`, shared by all dashboards on the machine: its > compiler probes paths reaching ~245 characters below that folder, so the > prefix must stay very short to clear `MAX_PATH`. Nothing here is removed > on uninstall, so a reinstall keeps the warm toolchain; delete `C:\esphb` > by hand to reclaim the disk space. This applies only to native Windows; > running in a Linux Docker container (or the HA add-on) uses the normal > data dir. ### Standalone (PyPI) For developers, headless servers, or anyone running outside the add-on / Desktop / Docker shapes: ```bash python -m venv .venv && source .venv/bin/activate pip install 'esphome-device-builder[esphome]' esphome-device-builder ~/esphome-configs ``` The `[esphome]` extra pulls in the upstream `esphome` package the dashboard needs to compile, flash, and discover devices. The HA add-on / Desktop builds ship `esphome` separately, so the bare `pip install esphome-device-builder` (no extra) is for those contexts only. For the beta channel, pass `--pre` to opt the resolver into prereleases — e.g. `pip install --pre 'esphome-device-builder[esphome]'` for a fresh install, or `pip install --upgrade --pre 'esphome-device-builder[esphome]'` to pull the newest beta on top of an existing install. `--pre` only opts the *current* command into prereleases; rerun the upgrade command to refresh. The server starts on `http://localhost:6052`. Run with `--help` for the full flag set. <details> <summary>Install from a GitHub release</summary> Every build is published to PyPI, so the install above is the preferred path. The same wheels are mirrored on the [GitHub releases page](https://github.com/esphome/device-builder/releases) — handy as a fallback if PyPI is unreachable. ```bash python -m venv .venv && source .venv/bin/activate # Replace <version> with a release tag (X.Y.Z stable, X.Y.ZbN beta). # ``[esphome] @ <url>`` carries the optional extra through the # direct-URL install so the dashboard finds esphome at startup. pip install "esphome-device-builder[esphome] @ https://github.com/esphome/device-builder/releases/download/<version>/esphome_device_builder-<version>-py3-none-any.whl" esphome-device-builder ~/esphome-configs ``` </details> <details> <summary>From source (contributors)</summary> Requires [uv](https://docs.astral.sh/uv/): ```bash git clone https://github.com/esphome/device-builder cd device-builder script/setup source .venv/bin/activate esphome-device-builder ./configs --log-level debug --dev ``` `--dev` serves `index.html` with `Cache-Control: no-cache` so a re-deployed frontend wheel isn't masked by a browser-cached SPA shell pointing at a now-deleted hashed bundle. Hashed bundles themselves stay `immutable` regardless. Skip `--dev` in production — the browser's default heuristic is fine when you're not rebuilding every few minutes. </details> ### Standard ESPHome container image As of ESPHome 2026.6.0, the standard `ghcr.io/esphome/esphome` image bundles the Device Builder and runs it as the dashboard; there's no env var or extra setup. The image's default command (`dashboard /config`) launches `esphome-device-builder` against your config dir: ```bash docker run -p 6052:6052 -v "$PWD":/config ghcr.io/esphome/esphome ``` The dashboard serves `/config` on port 6052. Every other subcommand (`compile`, `run`, `logs`, ...) still runs the classic `esphome` CLI, so direct command-line use is unchanged. ## Username / password authentication The three install paths each handle network reach and the auth gate differently. The Home Assistant add-on runs ingress-only with no password under the new preview, so access goes through the HA sidebar and port `6052` stays unbound; ESPHome Desktop binds only to `127.0.0.1`, so there's nothing on the LAN to authenticate against in the first place; the standalone PyPI install binds `0.0.0.0:6052`, is LAN-reachable by default, and prints a startup banner warning that there is no auth gate until you configure one. Configuring a username and password is only wired up for the standalone install today. The HA add-on doesn't ship a knob for it (see below for the rationale, this is by design) and Desktop is localhost-only, so the knob doesn't add anything there. The backend itself accepts credentials anywhere it runs; it's the packaging around the HA add-on and Desktop that doesn't pass any in. ### Home Assistant add-on On the Home Assistant add-on, the dashboard is reached through Home Assistant itself: you open it from the HA sidebar in your browser, and the Home Assistant Companion App opens it the same way. Both paths come in over Home Assistant Ingress, so the dashboard is already protected by your Home Assistant login; there's no separate username or password to configure for the add-on, and port `6052` stays unbound to keep the dashboard off the LAN by default. This is the supported way to use the add-on. The classic dashboard also let you forward your Home Assistant username and password through the supervisor `/auth` endpoint to gate an exposed port `6052`; that endpoint has no rate limiting or lockout, so it turned the dashboard into an open brute-force target against every account on the Home Assistant instance, and we don't carry that path forward (see [device-builder issue #85](https://github.com/esphome/device-builder/issues/85)). The classic dashboard's other option, "Disable external authentication" (`leave_front_door_open`), is honored. With it on *and* port `6052` mapped in the add-on's Network options, the dashboard binds the port on the LAN with no authentication at all, for example so the VS Code ESPHome plugin can reach it. Both opt-ins are required, matching the classic add-on; the dashboard logs a loud banner because this leaves the dashboard wide open to anyone on your network. Turn the option off, or unmap the port, for ingress-only access. For password-gated LAN access instead, run the standalone PyPI install on the same network with its own dashboard-managed password. ### Standalone (PyPI) Set the credentials through environment variables before launching the dashboard: ```bash export ESPHOME_USERNAME=admin export ESPHOME_PASSWORD='<pick a strong password>' esphome-device-builder ~/esphome-configs ``` Both values must be set together; setting only one fails the credential check at startup. The env var names are `ESPHOME_USERNAME` and `ESPHOME_PASSWORD`, not the legacy dashboard's bare `USERNAME` / `PASSWORD`, because the bare names collide with the OS-supplied `$USERNAME` on Windows and most login shells. The `--username` / `--password` CLI flags are still accepted for parity with the legacy dashboard's CLI, but please avoid `--password` in particular: command-line arguments show up in process listings (`ps` output on Linux / macOS, Task Manager on Windows, plus `/proc/<pid>/cmdline` on Linux unless `hidepid` is locked down), so another local user on the host can usually read the dashboard password. Use the env vars instead (or a `.env` / systemd `EnvironmentFile=` that's only readable by the dashboard's user). ## Behind a reverse proxy The dashboard rejects browser WebSocket handshakes whose `Origin` doesn't match the server's `Host` header. When a proxy fronts the dashboard under a different hostname (nginx, Caddy, Traefik, nginx-proxy-manager, ...), the browser sends `Origin: https://dashboard.example.com` but the upstream sees `Host: localhost:6052` — those don't match and the handshake gets 403'd. Same gate, same fix, regardless of whether the dashboard has a password set; it applies to every public-site deployment. Two ways to make it work: 1. **Configure the proxy to forward the public Host** (cleanest): ```nginx location / { proxy_pass http://localhost:6052; proxy_http_version 1.1; proxy_set_header Host $host; proxy_set_header Upgrade $http_upgrade; proxy_set_header Connection "upgrade"; proxy_set_header X-Forwarded-For $proxy_add_x_forwarded_for; proxy_set_header X-Forwarded-Proto $scheme; proxy_read_timeout 86400s; # keep WS connections alive } ``` With `proxy_set_header Host $host;`, the dashboard sees `Host: dashboard.example.com` (the hostname the browser asked for), `Origin` matches, and the handshake passes. 2. **If the proxy rewrites Host** (default nginx, some load-balancer setups), add the public hostname to `--trusted-domains`: ```bash esphome-device-builder /config \ --trusted-domains dashboard.example.com,proxy.example.com ``` Or via the env var (`$ESPHOME_TRUSTED_DOMAINS`, same name the legacy dashboard used): ```bash ESPHOME_TRUSTED_DOMAINS=dashboard.example.com esphome-device-builder /config ``` The list is comma-separated, case-insensitive, port-tolerant. IPv6 addresses work bracketed or bare (`::1` and `[::1]` both match). Use `*` as the only entry to disable the Host restriction entirely (handy when the Host varies per request — but then operator-supplied auth becomes the only gate). ### Listening on a UNIX socket (`--socket`) Instead of a TCP port, the public site can listen on a UNIX socket — the usual choice when a reverse proxy runs on the same host and you don't want the dashboard reachable over TCP at all: ```bash esphome-device-builder /config --socket /run/esphome/dashboard.sock ``` `--host` and `--port` are then ignored for binding but still feed the dashboard's mDNS advertisement, so point them at where the proxy ultimately listens. The socket file is created with the default permissions your process `umask` yields; the dashboard does not manage its mode. **Put the socket in a directory readable only by the dashboard and the proxy** (for example a dedicated `/run/esphome/` owned by the dashboard user with the proxy's user granted access via group or ACL) — directory permissions are the reliable access control here, since socket-file mode bits are not enforced on every platform. Anything that can connect to the socket gets the same surface a TCP client would, gated by the same auth and `Origin`/`Host` checks. nginx upstream example: ```nginx proxy_pass http://unix:/run/esphome/dashboard.sock; ``` ### Subpath mounts (X-Forwarded-Prefix) If you run the standalone dashboard behind an HTTP reverse proxy (nginx, Traefik, Caddy, nginx-proxy-manager, …) at a subpath (for example `https://example.com/esphome/`), the proxy must forward the mount prefix to the backend using the `X-Forwarded-Prefix` header so the server can render the SPA's `<base href>` correctly per request. The header value does not need a trailing slash — the server normalises the prefix internally. Minimal nginx example: ```nginx location /esphome/ { proxy_pass http://localhost:6052/; proxy_http_version 1.1; proxy_set_header Host $host; proxy_set_header Upgrade $http_upgrade; proxy_set_header Connection "upgrade"; proxy_set_header X-Forwarded-For $proxy_add_x_forwarded_for; proxy_set_header X-Forwarded-Proto $scheme; proxy_set_header X-Forwarded-Prefix /esphome; proxy_read_timeout 86400s; } ``` Notes: - Home Assistant ingress deployments do not need this because the supervisor sets `X-Ingress-Path` automatically; the dashboard prefers `X-Ingress-Path` when present. - Traefik and Caddy provide equivalent ways to forward or strip prefixes (look for `X-Forwarded-Prefix` or `stripPrefix`-style options in their docs). - For the exact precedence and normalization logic, see `_resolve_base_href()` in the backend source: https://github.com/esphome/device-builder/blob/main/esphome_device_builder/device_builder.py CLI tools and the Home Assistant integration omit `Origin` entirely, so they're never affected — the gate is browser-only. The HA Ingress site (the `--ingress-host` listener the supervisor proxies to) skips both checks because the supervisor handles auth upstream. It binds only loopback plus the supervisor gateway (`127.0.0.1` + `172.30.32.1`), never all interfaces, and a peer guard rejects any source other than loopback or the supervisor (`172.30.32.2`) — so the no-auth site is never reachable from the LAN or another add-on even though the add-on runs host-network. This matches the legacy add-on's nginx `allow`/`deny` ACL. See [docs/ARCHITECTURE.md § Authentication](docs/ARCHITECTURE.md#authentication) for the deep dive on the trust model. ## Send builds to another dashboard Compiling ESPHome firmware is CPU-heavy, especially for ESP-IDF targets. If your dashboard runs on a low-power host, say the Home Assistant add-on on a Raspberry Pi or HA Green, you can pair it to a beefier dashboard on the same LAN, for example ESPHome Desktop running on a workstation, and offload compiles there. The firmware bytes still install from the original dashboard; only the build runs elsewhere. Remote build is designed for dashboards on the same local network. Running the peer link across a VPN, Tailscale, or any slow or high-latency uplink is best effort: it may work, but the timing assumptions favor LAN-class throughput, slow links aren't a design target, and issues that only reproduce over a slow link won't be pursued. Two roles: - **Build server**, the dashboard that lends its CPU. Surfaced under **Settings → Build server**. Accepts pair requests, compiles incoming jobs, returns artefacts. - **Send builds**, the dashboard that delegates compiles. Surfaced under **Settings → Send builds**. Lists dashboards the LAN discovered and the ones you've paired with. A single dashboard can play both roles at once. The Home Assistant add-on defaults to send-only, since it doesn't accept inbound build jobs without opt-in, which is the sensible default for a typically-shared host; ESPHome Desktop and standalone installs default to both roles on. ### Pairing in four steps The receiving dashboard only accepts new pair requests while its **Pairing requests** screen is open — open that screen *before* clicking Pair on the sending side, and keep it open until you've clicked Accept. Step 2 is the prerequisite, not the wrap-up. 1. Start both dashboards on the same subnet, or with a working mDNS reflector between subnets. Outside the Home Assistant add-on, a dashboard advertises itself over mDNS as soon as it starts, independently of whether **Build server** is enabled. The receiver's peer-link port lands in the same TXT record only once **Build server** is enabled and the listener has bound; a dashboard without **Build server** enabled still appears in **Known dashboards** but can't be paired with until the receiving side flips that toggle. (HA add-on instances stay silent on the network; two add-on dashboards on the same LAN need the manual-entry flow below.) ![Enabling Build server on the receiving dashboard](https://raw.githubusercontent.com/esphome/device-builder/main/docs/images/toggle-on-remote-build.gif) 2. **On the receiving dashboard**, open **Settings → Pairing requests**. This opens the pairing window; the receiver will refuse any pair request that arrives while this screen isn't mounted. The window shows as **Open** alongside a countdown, and **Extend** restarts it if you run out of time. Leave the screen open through step 4. 3. **On the sending dashboard**, open **Settings → Send builds → Known dashboards**, find the receiver in the list, and click **Pair**. **Confirm receiver** opens with the receiver's identity fingerprint, a name for your own paired-receivers list, and the name this dashboard introduces itself by; click **Send pair request**. **Pair request sent** then shows this dashboard's own **fingerprint** rendered as an emoji grid. Leave it on screen for step 4. Hex bytes are tucked behind a **Show hex bytes** disclosure if you prefer that form, but the emoji grid is the primary verification surface. ![Sending a pair request from the sending dashboard](https://raw.githubusercontent.com/esphome/device-builder/main/docs/images/initiate-build-server-pairing.gif) 4. Back on the receiving dashboard's still-open **Pairing requests** screen, the new request now shows up with the sender's name and originating IP — click **Review**. Compare the **OOB fingerprint** in that dialog against the grid the sending dashboard is still showing; the two must match for the pairing to be safe to accept. Then click **Accept**. The pairing persists on both sides and survives restarts. ![Reviewing and accepting the pair request](https://raw.githubusercontent.com/esphome/device-builder/main/docs/images/review-accept-pair-request.gif) Once accepted, the receiver appears under **Paired build servers** on the sending dashboard marked **Connected**, with the ESPHome version each side runs: ![A connected build server on the sending dashboard](https://raw.githubusercontent.com/esphome/device-builder/main/docs/images/successful-pairing.png) If a dashboard you expected to show up doesn't appear in **Known dashboards**, run `esphome-device-builder-discover` on the sending host before troubleshooting the UI. The CLI browses the same mDNS service the dashboard does and prints what it sees, including the receiver's peer-link port and identity fingerprint: ``` Status |Name |Address:Port |Server |ESPHome |RB Port |Pin (sha256) -------+-----+--------------------+---------+----------+--------+-------------- ONLINE |mac |192.168.1.75:6052 |0.1.0b39 |2026.4.5 |6055 |3968ef58… ``` If the receiver shows up in the CLI but not in the UI, the discovery layer is fine and the gap is somewhere downstream; if neither side sees the other, mDNS isn't crossing the network (different subnet without a reflector, container without host networking, firewall blocking 5353/udp). After pairing, clicking Install on a device automatically routes through the paired receiver as soon as one is online. The scheduler prefers an idle receiver, but if every paired receiver is busy it queues the install behind the in-flight work rather than silently building locally; that keeps the toolchain warm and the artefacts coming from one place. The install dialog shows a "Building on `{receiver}`" sub-line so you can see which side is doing the work. You can override per-install via the **Build locally instead** link in the install dialog, or disable auto-routing entirely from **Settings → Send builds → Auto-route installs to remote build**. ### Manual entry (no mDNS) If the dashboards are on different subnets, or if either side is running as the Home Assistant add-on (which doesn't advertise itself on mDNS), use the **Pair with another dashboard** section beneath **Known dashboards**. Open the receiving dashboard's **Pairing requests** screen first (same prerequisite as the discovered-dashboard flow above), then click **Pair with a build server** on the sending side, type the receiver's hostname and port, and submit; the pairing flow runs identically to the discovered-dashboard case from there. The peer-link is a WebSocket served at `/remote-build/peer-link` over TCP port 6055 by default; if a reverse proxy or firewall sits between the two dashboards it needs to allow WebSocket upgrades on that path. The wire is Noise-encrypted regardless of how you reach it, and the emoji-fingerprint comparison still gates pairing the same way. ### Headless build server (`--remote-build-only`) A machine whose only job is lending CPU can run as a dedicated build server with no dashboard UI: ``` esphome-device-builder --remote-build-only /var/lib/esphome-builder ``` The config-dir argument holds the server's identity and build state — keep it persistent. On first run it prints a fingerprint and a **one-time pairing key** to the console: ``` 📌 🍎 🐙 ☎️ 🚀 🌏 🐰 ... 8MC5-KAXV-NN6N-PWAA ``` To pair, on your main dashboard open **Settings → Send builds → Pair with a build server**, enter the headless server's hostname and peer-link port (default 6055), and Continue. Check the emoji fingerprint matches the console; the dialog detects it's a headless server and shows a pairing-key field — enter the printed key and send. That's it — the server pairs and starts serving builds. Re-run the server if you don't pair within the window it prints. `--allow-pairing-source <IP>` optionally restricts which address may pair. ### Install coverage Remote build runs the compile on a paired receiver for **every install type** — OTA over Wi-Fi or Ethernet, and serial / USB-attached flashes — across every chip family ESPHome's OTA component supports: ESP32, ESP8266, RP2040 / RP2350, the LibreTiny family (BK72xx, RTL87xx, LN882x), and the nRF52 line. For a serial install the receiver compiles the full bootloader / partitions / firmware image set and ships it back; the USB flash itself still runs on the sending host, since that's where the device is plugged in. Receiver / sender ESPHome-version drift is governed by a **version-match policy** on the sending side (Settings → Send builds): `any`, `release` (major version must match), `exact`, or `exact_required` — the last refuses to build rather than falling back to a local compile when no version-compatible receiver is paired. ## Version history The dashboard keeps a local, git-backed history of your device configs. Every change to a YAML in the config directory is committed automatically shortly after it lands on disk, whether the edit came from the dashboard, an external editor, a script, or an AI agent working in the directory. The history powers viewing, diffing, and restoring earlier versions of a config, including bringing back a deleted one. Today those are exposed as the `version_history/*` commands in [docs/API.md](docs/API.md); a recovery UI in the dashboard is planned. Recording starts now precisely so that when that UI ships, your history is already there. **Why it's on by default.** A history only helps if it already exists the moment you need it, and that moment is always right after the bad edit or the accidental delete, never before. Making it opt-in would protect exactly the people who least need it: those who already knew the feature existed. For everyone else, the first bad edit would also be the moment they learn there was no history. So it stays on, quietly, like a backup should. **What it does on disk:** - If the config directory isn't inside any git repository, one is created for it, with a `.gitignore` that keeps `secrets.yaml` out of history. - If the directory sits inside a larger repository rooted higher up, such as a git-tracked `/config`, Device Builder leaves that repository alone: it creates and commits nothing there, logs why once, and version history stays off. - If the directory already is a git repository of its own, it is adopted rather than re-initialised. Automatic commits are scoped to exactly the files that changed, so your own staged work is never swept into one, and your `.gitignore` is never modified. Device Builder's own machine state (sidecars, keys, pairing files) is kept out of history via the repo-local `.git/info/exclude`. - Your secrets file is never committed. - Commits are authored as `ESPHome Device Builder <device-builder@esphome.io>`, with hooks and commit signing skipped (`--no-verify`, `-c commit.gpgsign=false`). This is deliberate: these commits happen unattended in the background, and an unattended commit must never hang on a signing passphrase prompt or trip an interactive hook. The identity is passed per invocation; your global and per-repo git configuration is never written to. - If `git` isn't installed, the feature quietly stays off. **Turning it off.** Settings → enable **Expert mode** → turn off **Save version history**. (Programmatically: the `version_history_enabled` preference via `config/set_preferences`.) Turning it off stops new commits and creates no repository; an existing history stays readable and restorable. If your config directory lives in a git repository you manage yourself (your own identity, signing, hooks, branch protection) and you don't want automatic commits alongside yours, this toggle is for you. > **Policy note.** The default has been discussed and decided: > version history ships on. New issues asking to flip the default, > or relitigating the commit identity / signing / hook behaviour > described above, will be closed with a pointer to this section. > Bug reports about the feature misbehaving are always welcome. ## Device status and `name_add_mac_suffix` Configs that keep `name_add_mac_suffix: true` are out of scope for status tracking; they show as offline or stay unknown. The option is a provisioning feature: one YAML flashed to a whole batch of devices, each announcing itself as `<name>-<last-6-MAC-digits>` so the units can be told apart out of the box. The dashboard tracks one device per YAML file, keyed on `esphome.name`, so a suffixed broadcast can't be safely linked back to a config — several units may be running the same YAML at once, and guessing promotes an arbitrary unit's address and version onto the card. Adopting the device is the supported path: the adopt flow bakes the suffixed name into `esphome.name` as a literal and turns the option off, which is the intended production state. If you manage the YAML by hand instead, give each device a unique literal name. > **Policy note.** Mapping suffixed broadcasts back to a base-named > config has been discussed and declined > ([issue #2480](https://github.com/esphome/device-builder/issues/2480)). > New issues asking for it will be closed with a pointer to this > section. ## Roadmap - ✅ Standalone backend with WS-first API, persistent compile queue, mDNS device discovery - ✅ Curated board + component catalogs (nightly catalog sync from upstream ESPHome) - ✅ Functional parity with the legacy dashboard (one intentional decline: the HA Supervisor `/auth` POST flow — the new backend's HA add-on path is ingress-only by design, see [issue #85](https://github.com/esphome/device-builder/issues/85)) - ✅ Bundled as the default dashboard in the Home Assistant add-on (Stable, Beta, and Dev channels; as of ESPHome 2026.6.0) - ✅ Backend selector in [ESPHome Desktop](https://github.com/esphome/esphome-desktop) ≥ v0.7.0 (system tray → Backend) - ✅ Bundled in the standalone ESPHome Docker image (`ghcr.io/esphome/esphome` ≥ 2026.6.0; the `dashboard` command runs the Device Builder) - 🗺️ See the [project backlog](https://github.com/orgs/esphome/projects/7/views/1?filterQuery=project%3A%22device-builder%22) for in-progress work and what's planned next ## Documentation - **[docs/ARCHITECTURE.md](docs/ARCHITECTURE.md)** — controllers, event bus, firmware queue, catalog sync, deployment. - **[docs/ARCHITECTURE.md § Remote build](docs/ARCHITECTURE.md#remote-build)**, the internals of the pair flow, peer-link transport, and build scheduler behind the "Send builds" feature above. - **[docs/API.md](docs/API.md)** — every WebSocket command, request/response shapes, event types. - **[esphome_device_builder/definitions/README.md](esphome_device_builder/definitions/README.md)** — board (and component) contributor guide: manifest schema plus the workflow for adding or updating a board (edit the manifest, then run `python script/update_board.py` to regenerate and validate). ## Contributing Contributions welcome — board definitions especially ([definitions/README.md](esphome_device_builder/definitions/README.md)). Every PR needs **exactly one** label from this set so it lands in the right release-notes section: `breaking-change`, `new-feature`, `enhancement`, `bugfix`, `refactor`, `docs`, `maintenance`, `ci`, `dependencies`. CI enforces the rule via [`pr-labels.yaml`](.github/workflows/pr-labels.yaml). Bugs / feature ideas: open an issue and the chooser will route you to the right venue (this repo for dashboard bugs, esphome core for compile/firmware issues, org Discussions for ideas, Discord for chat). ## License Apache-2.0 — Maintained by [Open Home Foundation](https://www.openhomefoundation.io/).

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직업 분류

설명

업데이트

pr-workflow

소프트웨어 개발자

Create pull requests for esphome/device-builder. Use when creating PRs, submitting changes, or preparing contributions.

원문 언어: 영어

2026-05-05

수집된 skill 1개 중 1개를 표시합니다.