特斯拉灯光秀技能

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安装这个技能

特斯拉灯光秀技能 — 为 AI 编程助手设计的领域技能模块。支持 Claude Code、Codex、WorkBuddy、OpenClaw、QClaw、Hermes Agent 全平台。

一句话选型结论

按资料字段整理

特斯拉灯光秀技能是AI 工具类的 Agent Skill,安装方式未标注,权限级别未标注,许可证不明确,有可直接复制的安装命令。技能本质是给模型读的说明书,效果取决于模型与客户端;装完先用一个小任务验证,再放进正式流程。

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安装

未标注
在支持 Skills 的客户端里执行,装完问一句「你有哪些技能」验证
skillhub install user_3c6cb52e/tesla-lightshow-skill
  1. 1
    确认客户端支持

    确认你的客户端支持 Skills(Claude、Codex、Cursor 等),并升级到较新的版本。

  2. 2
    拿到技能文件

    执行上面的命令安装;也可以把仓库里的 SKILL.md 手动放进客户端的 skills 目录。

  3. 3
    刷新技能列表

    重新打开客户端,或刷新技能列表,让新放进来的技能被加载。

  4. 4
    验证是否生效

    问一句「你有哪些技能」,确认列表里出现它,再拿一个小任务试跑。

技能档案

AI 工具
字段来自技能仓库与公开索引,中文说明由本站标注
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许可证未说明许可证不明确,商用前请自行确认条款
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最近核验未标注上游最后核验时间 · 数据更新 1791680607
正文体量14.9 KBSKILL.md 原文大小,越大说明说明书写得越细

典型使用场景

3 类
按分类整理的常见用法,具体以 SKILL.md 为准
组合多个 AI 能力

把写作、检索、总结串成一条流程。

搭工作流

把固定流程做成可重复调用的步骤。

做提示词与评测

整理提示词并对比输出效果。

选择建议

装之前先看这几条
按条目字段给出的判断,不替你决定用不用

值得选的地方

  • 有可直接复制的安装命令,不用自己翻文档找入口。

先想清楚的地方

  • 没有标注权限级别,实际能做什么要装好后确认。
  • 许可证不明确,商用或二次分发前先到仓库确认条款。
  • 没有做站内核验,内容以作者仓库为准。
  • 技能只是说明书,实际效果取决于模型与客户端,装完先用小任务试一遍。

更适合

  • 需要在AI 工具场景里给模型补一套做法的人。
  • 愿意先读一遍 SKILL.md、确认它会让模型做什么的人。

不太适合

  • 对许可证要求很严、必须明确可商用的人。
  • 只想装完就自动变强、不打算看说明书的人。

同类对比

6 个同类
同分类里挑最接近的几条,字段以各自详情页为准
技能权限级别安装方式累计安装宿主客户端安装命令
特斯拉灯光秀技能当前 未标注权限 未标注 未标注 未标注 有
执行计划 只读 GitHub 仓库 151.5 万 Codex、Claude、Cursor 有
Playwright MCP 测试 浏览器控制 ClawHub 市场 136.5 万 OpenClaw 有
完成前的验证 未标注权限 GitHub 仓库 131.9 万 Codex、Claude、Cursor 有
子 Agent 驱动开发 只读 GitHub 仓库 131.2 万 Codex、Claude、Cursor 有
前端设计 执行命令 GitHub 仓库 125.6 万 Codex、Claude、Cursor 有

SKILL.md 全文

14.9 KB
模型实际读到的说明书原文,来自技能仓库

Tesla Light Show Generator

Turn any .wav file into a compelling, model-tailored Tesla custom light show. The output is a validator-clean FSEQ v2.0 uncompressed binary (.fseq) paired with the original audio, ready to put in a LightShow/ folder on a USB drive.

Inputs and model selection

The skill needs two things:

  1. A path to a .wav file (must be 44.1 kHz — warn the user if it is not; output will still be written but may drift on the vehicle).
  2. The Tesla model. If the user didn't state it in the prompt, ask which of these they have — do not guess:
    - Model 3 (pre-2024, no interior accent lights)
    - Model 3 Highland (2024+ refresh, has interior accent lights)
    - Model S
    - Model X
    - Model Y
    - Cybertruck

Accept natural variations ("cybertruck", "model s 2022", "3", "Y", "x", "plaid x", "highland", "2024 model 3", "new model 3", etc.) and map them to the six values.

About Model 3 Highland: the 2024+ refresh added a five-segment interior LED accent strip (left front, center front, right front, left rear, right rear) plus keeps the full-RGB center front display. We unlock these with the model_3_highland compose target which generates a 200-channel show. A 200-channel Highland show still plays on older Model 3s — the firmware simply ignores the channels the car's hardware doesn't have, so it's fully backward-compatible.

What the skill produces

For each song it produces two files in the user's current directory (or an output/ subdir, ask if unclear):

  • <basename>.fseq — the binary light-show sequence.
  • <basename>.wav — a copy of the audio (Tesla requires a filename-matched audio file to live in the same directory).

The .fseq has:

  • Magic bytes PSEQ, version 2.0, uncompressed.
  • Frame rate 50 fps (step time 20 ms).
  • 48 channels for Model 3 / S / Y shows.
  • 200 channels for Cybertruck shows (activates front/rear light bars, offroad bar, interior RGB).
  • Duration exactly matching the source audio, clipped to 4 h max.

The validator script in light-show/validator.py MUST accept the output (channel count 48 or 200, compression 0, frames × step ≤ 4 h).

How to generate a show

Work in the project directory. The scripts live in this skill's scripts/ folder.

Step 1 — analyze the audio

python3 skill/scripts/analyze_audio.py <path/to/song.wav> /tmp/<basename>.json

This writes a JSON timeline sampled at 20 ms. The analyzer is
stereo-aware — it preserves L/R all the way through the FFT and
extracts features that depend on the stereo field (panning, width,
mid/side). That lets the composer do things like "fire the right-side
markers because the hi-hats are panned right in this bar".

Features emitted (all arrays are 0..1 unless noted; one value per 20 ms frame):

  • Energy (global): rms, bass (20–200 Hz), low_mid (200–800), mid (800–3200), high (3200+), mel[32] (log-spaced)
  • Energy (per-section): rms_local, bass_local, mid_local, high_local — re-normalised within each detected section so quiet verses preserve their own dynamic range
  • Mid/Side: mid_energy, side_energy, stereo_width (0 = mono, 1 = fully wide)
  • Panning (−1 = hard left, +1 = hard right): pan_bass, pan_mid, pan_high, pan_overall
  • HPSS: perc_rms, perc_onset, harm_rms
  • Broadband: onset, brightness
  • Chroma / harmony: chroma[12], key_tonic (0..11), key_mode (0=minor, 1=major)
  • Beats + downbeats: beat_frames, beat_confidence (0.7..2.5), downbeat_frames, strong_beat_frames, tempo_bpm, meter (3 or 4), beat_agreement_pct
  • Structure: segments — list of {"start", "end", "label", "energy", "index"} with labels intro/verse/chorus/bridge/outro
  • Drops: drop_frames
  • Metadata: analyzer_stack — list of libraries in use (e.g. ["librosa", "madmom"])

Optional libraries (auto-detected)

The analyzer works with pure numpy but uses three optional libraries
when they're installed. Install any or all for a quality boost:

pip3 install librosa      # chroma, CQT, segmentation, fallback beat tracker
pip3 install madmom       # excellent beat + downbeat tracker
pip3 install scipy        # faster HPSS (pure-numpy fallback exists)

librosa + madmom cross-check: when both are installed, the
analyzer runs both beat trackers and cross-checks. Beats confirmed by
both (±40 ms) get confidence 2.0, madmom-only beats get 1.0,
librosa-only get 0.7, and any beat that coincides with a strong
percussive onset gets a further +0.5 bonus. This means the composer
can gate its biggest hits on high-confidence beats only — the
strong_beat_frames list is derived from real downbeats (madmom) when
available, not "every 4th beat" guesses.

Structural segmentation: uses librosa's self-similarity + agglomerative
clustering on a chroma+MFCC feature stack. Segment count adapts to
song length (3–5 for short, 4–7 for medium, 5–9 for long). Labels are
inferred heuristically: low-energy first/last segments become intro/outro,
the highest-energy segments become choruses, medium segments between
choruses become bridges, and the rest are verses. The composer uses
the detected sections to place the narrative arc — the climax now
lands on the song's actual highest-energy chorus instead of at a fixed
55–85% time window.

All three libraries are permissive / OSI-approved licences
(BSD / ISC / MIT-equivalent) — free for any use.

Step 2 — compose the show

python3 skill/scripts/compose_show.py --analysis /tmp/<basename>.json \
  --model {model_3|model_3_highland|model_s|model_x|model_y|cybertruck} --out <basename>.fseq

Normalize the model argument to one of: model_3, model_3_highland, model_s, model_x, model_y, cybertruck.

The composer binds audio features to model-appropriate channels (see references/model_capabilities.md and references/channel_map.md). It respects closure actuation limits and pre-opens liftgates/charge ports in time for dances at drops.

Step 3 — copy the wav next to the fseq

Tesla requires the audio file next to the .fseq with the same basename. Either copy, symlink, or tell the user to do so — default: copy.

cp <path/to/song.wav> <basename>.wav

Step 4 — validate

The upstream validator ends with an interactive input("Press Enter to exit...")
call (meant for the Windows drag-and-drop .exe). When Claude runs it
non-interactively, stdin is closed so input() raises EOFError and
the script returns exit code 1 even when the .fseq passes validation.
Always redirect stdin and judge by the output line, not the exit code:

python3 light-show/validator.py <basename>.fseq < /dev/null 2>&1 | head -n 2

Success = the first output line is:
Found <N> frames, step time of 20 ms for a total duration of <H:MM:SS.ffffff>.

Failure = the first line is an error such as
Unknown file format, expected FSEQ v2.0,
Expected 48 or 200 channels, got <X>,
Expected file format to be V2 Uncompressed, or
Expected total duration to be less than 4 hours, got <T>.

A trailing EOFError: EOF when reading a line traceback is expected and
harmless
— it only means the "Press Enter to exit..." prompt couldn't
read from an empty stdin. Ignore it.

If you prefer to suppress the traceback entirely:

python3 light-show/validator.py <basename>.fseq < /dev/null 2>/dev/null \
  | grep -E '^(Found|Unknown|Expected|WARNING)' || true

If the validator prints a real error (not the EOFError), fix it before
declaring success
— a non-clean file will not play on the vehicle.

Step 5 — report

Tell the user:
- Where the files are
- Duration, tempo, channel count
- A short written description of the choreography highlights (which lights fire on which musical features — they will appreciate the intent)
- How to install: put both files under a LightShow/ folder on a FAT32/exFAT USB drive (not NTFS, no TeslaCam/ folder), then Toybox → Light Show → Schedule Show.

Channel binding rules (summary)

Full tables are in references/channel_map.md and references/model_capabilities.md. Quick reference for composition:

  • Kick / bass-heavy beats (detected via perc_onset + bass >= mid) → Main beams (outer + inner), front turn signals, all Ch4-6 simultaneously, brake lights, Cybertruck bed lights. On climax kicks also: license + reverse.
  • Snare / mid-heavy beats → Signature, Channels 4-6, rear turn signals, front fog (non-CT), tail lights. Model X adds rear fog.
  • Hi-hats / high-band onsets → Side markers + side repeaters. Stereo-aware: pan_high < -0.15 → left side only; > +0.15 → right side only; near-center → both. Both-side in climax also lights license + aux park.
  • Stereo opening moments — jumps in side_energy or stereo_width above a 3 s baseline → brief fog + aux park wash (mimics a reverb tail or strings spreading out).
  • Sustained loudness (RMS) → Interior RGB wash (CT only in 200-ch), Cybertruck light bar brightness envelope.
  • Climax peak (guaranteed — loudest sustained 2 s in 55–85% of track, independent of drop detection) → Liftgate opens 14 s before, mirror 3-flap, charge port Dance (rainbow), full-front blast, model-specific reveal (S door handles / X falcon + front doors).
  • Audio-detected drops outside climax → Mini front-light blast, no closures (stays subordinate to the climax).
  • Brightness / spectral centroid → Hue mapping for interior RGB (warm when dark, cool when bright).
  • Yellow blinker layer — front turn signals alternate L↔R on 2× beat subdivisions in build, 4× in climax (the signature "yellow blinker" pattern).
  • Narrative arc — intro (0–15%) soft outer-beam ramps only; build (15–55%) every-other-beat; climax (55–85%) full density; outro (85–100%) long 2 s breathing ramps.
  • Use ramping variants (70/80/90%) on Model 3 / Y / Cybertruck where smooth fades read better than boolean snaps.

Model-specific reminders

  • Model 3 / Model Y — exploit the ramping on Front Turn, Signature, and Channels 4-6. Prefer ramp_pulse over instant pulses for anything lasting > 200 ms. Aux Park / Side Markers are OR'd together — don't stack them continuously or they won't appear to flash.
  • Model 3 Highland (2024+) — same exterior behaviour as Model 3 (the two are byte-identical for channels 1–46) but the composer also writes channels 176–193 (the six interior RGB surfaces) with chroma-driven colour. Hue follows the dominant pitch class relative to the song's detected key; saturation follows HPSS harmonic richness with a 0.7 floor so the palette stays visually intense; value follows RMS with a 0.35 floor during harmonic content. Minor keys shift the hue wheel ~0.08 toward warmer. Each of the six surfaces gets a small per-surface hue offset so colours spatial-gradient across the cabin. The show is 200 channels but the extra bytes are all zero outside the RGB range, so it plays fine on older Model 3s too.
  • Model S — Signature and Front Turn are boolean only; use crisp hits. Door Handles (4 independent) are a unique accent — pop them 1.2 s before a drop and close 0.5 s after for a cool reveal. 20-actuation budget is generous. No Falcon or Front Doors.
  • Model X — Same boolean headlights as Model S (no ramping on Signature / Front Turn) but with Falcon Doors and Front Doors for the most dramatic choreography of any car. Falcon Doors open in ~20 s and close in ~8 s; Front Doors open in ~22 s and close in ~3 s — schedule Opens ~25 s before a drop so doors are fully open for the Dance/Close beat. Only 6 actuations each per show, use them for headline moments. Model X also has Rear Fog (even in NA) — an extra accent channel the other US cars don't have. No Door Handles (those are S-only).
  • Cybertruck — Generate 200-channel output. Animate the front/rear light bars (curtain, chase, bars, full styles). Brake + Rear Turn are full-brightness controlled: drive them with the RMS envelope instead of 0/100 values. Bed Lights always ramp 500 ms regardless of request.
  • Cybertruck closures — Liftgate is mapped to Powered Frunk; Aux Park is mapped to Frunk Light; Rear Turn Signals are disabled on the car (leave the xLights channels 0). The 48→200 mapping happens in the composer automatically.

Constraints the output must satisfy

  • Channel count: exactly 48 or 200 (validator.py rejects otherwise).
  • Compression type byte: 0 (uncompressed).
  • Max duration: 4 h. Longer audio should be truncated or the user should trim.
  • Sample rate: 44.1 kHz. Warn if not.
  • Frame interval: 20 ms (supported: 15–100 ms, but 20 ms is every example and recommended).
  • Closure actuation limits per show (count only Open/Close/Dance):
  • Liftgate / Frunk ≤ 6, Mirrors ≤ 20, Charge Port ≤ 3, Windows ≤ 6, Door Handles (S) ≤ 20, Front Doors (X) ≤ 6, Falcon Doors (X) ≤ 6.
  • Total dance time ≤ ~30 s per show (thermal).
  • Dance only works when a closure is already open — schedule an Open earlier and leave time per references/channel_map.md (Closure Movement Durations).
  • Don't close windows during the show — music would be muffled.

If something breaks

  • Validator rejects channel count → ensure the writer uses 48 for M3/S/Y and 200 for Cybertruck. No other value is accepted.
  • Validator rejects compression → header byte at offset 20 must be 0.
  • Validator rejects duration → clip the audio or reduce frame count.
  • Show plays but a specific light is stuck on → check the Aux Park / Side Marker OR'ing rules (a single channel staying on keeps the group lit).
  • Dance did nothing → the closure wasn't open before Dance was commanded. Insert an Open at least (durations in closure table) before the Dance effect.

Files in this skill

  • SKILL.md — this file.
  • scripts/analyze_audio.py — audio feature extractor (numpy preferred; pure-Python fallback).
  • scripts/fseq_writer.py — minimal FSEQ v2.0 uncompressed writer + level/command constants.
  • scripts/compose_show.py — binds audio features to Tesla channels per model and writes the .fseq.
  • references/channel_map.md — complete 48/200 channel layout, brightness byte table, closure command bytes.
  • references/model_capabilities.md — per-model capability matrix and production recipes.
  • references/fseq_format.md — binary layout of the FSEQ v2.0 uncompressed header.

常见问题

5 问
答案由本站依据条目字段整理
特斯拉灯光秀技能怎么安装?

在支持 Skills 的客户端里执行:skillhub install user_3c6cb52e/tesla-lightshow-skill。安装方式为未标注。装完刷新技能列表或重开客户端。

特斯拉灯光秀技能支持哪些客户端?

资料没有标注宿主客户端,但只要客户端支持 Skills(Claude、Codex、Cursor 等),一般都能加载。

特斯拉灯光秀技能权限高吗,安全吗?

权限级别为未标注权限。安装前先看它会读取或写入哪些内容。

特斯拉灯光秀技能收费吗?

本站不代收费用,也没有标注具体价格。是否收费取决于技能本身和所用的模型或客户端,正式使用前按作者说明确认。

特斯拉灯光秀技能用什么许可证?

许可证标注为 未说明(许可证不明确)。商用或二次分发前请到仓库确认条款原文。

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技能内容以作者仓库为准;分类、权限级别与许可证状态的中文说明为中文整理,最近核验 未标注。