소스 정보
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- nodetool-ai/nodetool
- 최근 소스 활동
- 2026년 6월 9일 09:08
- 감지된 SKILL.md 언어
- 영어
- 스타
- 501
- 포크
- 76
설치 방법
기본적으로 소스를 먼저 확인하는 Prompt가 선택됩니다. 직접 명령으로 전환하거나 로컬 사본을 다운로드할 수도 있습니다.
소스 파일 검토
설치 여부를 결정하기 전에 SKILL.md와 SkillsMP에 표시된 보조 파일을 읽어 보세요.
메뉴
기본적으로 소스를 먼저 확인하는 Prompt가 선택됩니다. 직접 명령으로 전환하거나 로컬 사본을 다운로드할 수도 있습니다.
설치 여부를 결정하기 전에 SKILL.md와 SkillsMP에 표시된 보조 파일을 읽어 보세요.
SOC 직업 분류 기준
Codex 또는 Claude로 설치 이 Prompt를 복사해 Codex, Claude 또는 다른 어시스턴트에 붙여 넣으면 Skill 페이지를 검토하고 설치를 진행할 수 있습니다.
직접 명령은 검토 Prompt를 거치지 않습니다. 실행하기 전에 소스를 확인하세요.
npx skills add https://github.com/nodetool-ai/nodetool --skill flash명령은 한 줄로 유지됩니다. 복사하기 전에 가로로 스크롤해 전체 내용을 확인하세요.
로컬 사본을 원하시나요? SkillsMP에서 현재 제공할 수 있는 파일을 다운로드하세요.
SKILL.md 표시 중
Produce a whole campaign in NodeTool rather than one video — entity sheets for a product and model, a set of still campaign frames, several short social cuts and a long film, all on one locked grade. Use when the user asks for a launch kit, a campaign, an asset pack, a content set, "a bunch of assets", or names several deliverables in different aspect ratios from one product. Not for a single video (use product-commercial or ugc-video).
Direct a polished product film in NodeTool — pack shots, macro hero spots, luxury commercials, brand films on location, with or without talent. Use when the user wants an ad that looks shot on a camera rather than a phone, mentions a pack shot, hero shot, product film, brand spot, cyclorama or studio lighting, or names a product as the subject of a multi-shot video. Not for self-filmed or creator-style pieces (use ugc-video).
Direct video where a written voiceover drives the picture — faceless explainers, narrated b-roll, documentary segments, tutorials, corporate and educational video with no on-camera talent. Use when the user asks for an explainer, a voiceover video, a narrated piece, a faceless video, or says the script comes first. Also use when spoken words must time the cut. Not for talking-head or creator video (use ugc-video).
| name | flash |
| description | runpod-flash SDK and CLI for deploying AI workloads on Runpod serverless GPUs/CPUs. |
| user-invocable | true |
Write code locally, test with flash run (dev server at localhost:8888), and flash automatically provisions and deploys to remote GPUs/CPUs in the cloud. Endpoint handles everything.
pip install runpod-flash # requires Python >=3.10
# auth option 1: browser-based login (saves token locally)
flash login
# auth option 2: API key via environment variable
export RUNPOD_API_KEY=your_key
flash init my-project # scaffold a new project in ./my-project
flash run # start local dev server at localhost:8888
flash run --auto-provision # same, but pre-provision endpoints (no cold start)
flash build # package artifact for deployment (500MB limit)
flash build --exclude pkg1,pkg2 # exclude packages from build
flash deploy # build + deploy (auto-selects env if only one)
flash deploy --env staging # build + deploy to "staging" environment
flash deploy --app my-app --env prod # deploy a specific app to an environment
flash deploy --preview # build + launch local preview in Docker
flash env list # list deployment environments
flash env create staging # create "staging" environment
flash env get staging # show environment details + resources
flash env delete staging # delete environment + tear down resources
flash undeploy list # list all active endpoints
flash undeploy my-endpoint # remove a specific endpoint
One function = one endpoint with its own workers.
from runpod_flash import Endpoint, GpuGroup
@Endpoint(name="my-worker", gpu=GpuGroup.AMPERE_80, workers=5, dependencies=["torch"])
async def compute(data):
import torch # MUST import inside function (cloudpickle)
return {"sum": torch.tensor(data, device="cuda").sum().item()}
result = await compute([1, 2, 3])
Multiple HTTP routes share one pool of workers.
from runpod_flash import Endpoint, GpuGroup
api = Endpoint(name="my-api", gpu=GpuGroup.ADA_24, workers=(1, 5), dependencies=["torch"])
@api.post("/predict")
async def predict(data: list[float]):
import torch
return {"result": torch.tensor(data, device="cuda").sum().item()}
@api.get("/health")
async def health():
return {"status": "ok"}
Deploy a pre-built Docker image and call it via HTTP.
from runpod_flash import Endpoint, GpuGroup, PodTemplate
server = Endpoint(
name="my-server",
image="my-org/my-image:latest",
gpu=GpuGroup.AMPERE_80,
workers=1,
env={"HF_TOKEN": "xxx"},
template=PodTemplate(containerDiskInGb=100),
)
# LB-style
result = await server.post("/v1/completions", {"prompt": "hello"})
models = await server.get("/v1/models")
# QB-style
job = await server.run({"prompt": "hello"})
await job.wait()
print(job.output)
Connect to an existing endpoint by ID (no provisioning):
ep = Endpoint(id="abc123")
job = await ep.runsync({"input": "hello"})
print(job.output)
| Parameters | Mode |
|---|---|
name= only | Decorator (your code) |
image= set | Client (deploys image, then HTTP calls) |
id= set | Client (connects to existing, no provisioning) |
Endpoint(
name="endpoint-name", # required (unless id= set)
id=None, # connect to existing endpoint
gpu=GpuGroup.AMPERE_80, # single GPU type (default: ANY)
gpu=[GpuGroup.ADA_24, GpuGroup.AMPERE_80], # or list for auto-select by supply
cpu=CpuInstanceType.CPU5C_4_8, # CPU type (mutually exclusive with gpu)
workers=5, # shorthand for (0, 5)
workers=(1, 5), # explicit (min, max)
idle_timeout=60, # seconds before scale-down (default: 60)
dependencies=["torch"], # pip packages for remote exec
system_dependencies=["ffmpeg"], # apt-get packages
image="org/image:tag", # pre-built Docker image (client mode)
env={"KEY": "val"}, # environment variables
volume=NetworkVolume(...), # persistent storage
gpu_count=1, # GPUs per worker
template=PodTemplate(containerDiskInGb=100),
flashboot=True, # fast cold starts
execution_timeout_ms=0, # max execution time (0 = unlimited)
)
gpu= and cpu= are mutually exclusiveworkers=5 means (0, 5). Default is (0, 1)idle_timeout default is 60 secondsflashboot=True (default) -- enables fast cold starts via snapshot restoregpu_count -- GPUs per worker (default 1), use >1 for multi-GPU modelsNetworkVolume(name="my-vol", size=100) # size in GB, default 100
PodTemplate(
containerDiskInGb=64, # container disk size (default 64)
dockerArgs="", # extra docker arguments
ports="", # exposed ports
startScript="", # script to run on start
)
Returned by ep.run() and ep.runsync() in client mode.
job = await ep.run({"data": [1, 2, 3]})
await job.wait(timeout=120) # poll until done
print(job.id, job.output, job.error, job.done)
await job.cancel()
| Enum | GPU | VRAM |
|---|---|---|
ANY | any | varies |
AMPERE_16 | RTX A4000 | 16GB |
AMPERE_24 | RTX A5000/L4 | 24GB |
AMPERE_48 | A40/A6000 | 48GB |
AMPERE_80 | A100 | 80GB |
ADA_24 | RTX 4090 | 24GB |
ADA_32_PRO | RTX 5090 | 32GB |
ADA_48_PRO | RTX 6000 Ada | 48GB |
ADA_80_PRO | H100 PCIe (80GB) / H100 HBM3 (80GB) / H100 NVL (94GB) | 80GB+ |
HOPPER_141 | H200 | 141GB |
| Enum | vCPU | RAM | Max Disk | Type |
|---|---|---|---|---|
CPU3G_1_4 | 1 | 4GB | 10GB | General |
CPU3G_2_8 | 2 | 8GB | 20GB | General |
CPU3G_4_16 | 4 | 16GB | 40GB | General |
CPU3G_8_32 | 8 | 32GB | 80GB | General |
CPU3C_1_2 | 1 | 2GB | 10GB | Compute |
CPU3C_2_4 | 2 | 4GB | 20GB | Compute |
CPU3C_4_8 | 4 | 8GB | 40GB | Compute |
CPU3C_8_16 | 8 | 16GB | 80GB | Compute |
CPU5C_1_2 | 1 | 2GB | 15GB | Compute (5th gen) |
CPU5C_2_4 | 2 | 4GB | 30GB | Compute (5th gen) |
CPU5C_4_8 | 4 | 8GB | 60GB | Compute (5th gen) |
CPU5C_8_16 | 8 | 16GB | 120GB | Compute (5th gen) |
from runpod_flash import Endpoint, CpuInstanceType
@Endpoint(name="cpu-work", cpu=CpuInstanceType.CPU5C_4_8, workers=5, dependencies=["pandas"])
async def process(data):
import pandas as pd
return pd.DataFrame(data).describe().to_dict()
from runpod_flash import Endpoint, GpuGroup, CpuInstanceType
@Endpoint(name="preprocess", cpu=CpuInstanceType.CPU5C_4_8, workers=5, dependencies=["pandas"])
async def preprocess(raw):
import pandas as pd
return pd.DataFrame(raw).to_dict("records")
@Endpoint(name="infer", gpu=GpuGroup.AMPERE_80, workers=5, dependencies=["torch"])
async def infer(clean):
import torch
t = torch.tensor([[v for v in r.values()] for r in clean], device="cuda")
return {"predictions": t.mean(dim=1).tolist()}
async def pipeline(data):
return await infer(await preprocess(data))
import asyncio
results = await asyncio.gather(compute(a), compute(b), compute(c))
await.dependencies=[].image=/id= = client. Otherwise = decorator.gpu=[GpuGroup.ADA_24, GpuGroup.AMPERE_80]) and set workers=5 or higher. The platform only auto-switches GPU types based on supply when max workers is at least 5.runsync timeout is 60s -- cold starts can exceed 60s. Use ep.runsync(data, timeout=120) for first requests or use ep.run() + job.wait() instead.