zenml-pipeline-authoring

name

zenml-pipeline-authoring

description

Author ZenML pipelines: @step/@pipeline decorators, type hints, multi-output steps, dynamic vs static pipelines, artifact data flow, ExternalArtifact, YAML configuration, DockerSettings for remote execution, custom materializers, metadata logging, secrets management, and custom visualizations. Use this skill whenever asked to write a ZenML pipeline, create ZenML steps, make a pipeline work on Kubernetes/Vertex/SageMaker, add Docker settings, write a materializer, create a custom visualization, handle "works locally but fails on cloud" issues, or configure pipeline YAML files. Even if the user doesn't explicitly mention "pipeline authoring", use this skill when they ask to build an ML workflow, data pipeline, or training pipeline with ZenML.

Author ZenML Pipelines

This skill guides pipeline authoring: steps, artifacts, configuration, Docker settings, materializers, metadata, secrets, and visualizations.

Start Here: Interview the User

Do not rush to code. Before writing a single line, thoroughly understand what the user wants to build. The interview is the most important step — a well-scoped pipeline that does 3 things well beats a sprawling one that does 10 things poorly.

For complex or multi-pipeline projects: If the user describes something ambitious (e.g., "build me an end-to-end ML platform with data ingestion, feature engineering, training, evaluation, deployment, monitoring, and retraining"), or if they mention multiple pipelines, invoke the zenml-scoping skill first. It runs a deeper architectural interview that decomposes the system into pipeline units, identifies what doesn't belong in a pipeline at all, and produces a pipeline_architecture.md spec. Once that's done, come back here to build each pipeline one at a time.

For single, focused pipelines: If the user's request is clearly one pipeline (e.g., "build a training pipeline for my CSV data"), proceed with the questions below. If the answers are obvious from context, infer them and proceed. Only ask when genuinely ambiguous.

Q1: Static or dynamic pipeline? Most pipelines are static (fixed DAG). Use dynamic (@pipeline(dynamic=True)) only when the number of steps or their wiring depends on runtime values (e.g., "process N documents where N comes from a query"). See Dynamic Pipelines and references/dynamic-pipelines.md.

Q2: Local or remote orchestrator? If remote (Kubernetes, Vertex AI, SageMaker, AzureML), the Artifact Golden Rule is critical, and you will need Docker Settings. If local-only for now, you can defer those concerns. Ask whether the user already has a stack set up — if not, point them to the ZenML docs for stack setup (this skill does not cover stack creation).

Q3: Any custom Python types? If steps produce or consume types beyond builtins, pandas, numpy, or Pydantic models, you likely need a custom materializer. Note: Pydantic BaseModel subclasses have a built-in materializer — often the simplest alternative to writing a custom materializer.

Q4: Where should the project live? Ask the user where to create the project — a new subfolder, or the current directory. If the current directory is not empty, suggest a new subfolder.

Q5: What are the data sources? Understand where data comes from: local CSV/Parquet files, a database (Snowflake, PostgreSQL), an API, cloud storage? This determines the first step's implementation and whether secrets are needed. If credentials are involved, always use ZenML Secrets — never pass passwords as CLI arguments or in config files.

Q6: Does the user want a small-data development mode? Many users want to iterate quickly with a fraction of the dataset. Plan for a --sample-size or --small CLI flag in run.py.

---

Core Anatomy

Defining steps

A step is a Python function decorated with @step. Type hints on inputs and outputs are required — they control serialization, caching, and dashboard display.

from zenml import step

@step
def train_model(X_train: pd.DataFrame, lr: float = 0.01) -> sklearn.base.BaseEstimator:
    """lr is a parameter (literal value); X_train is an artifact (from upstream step)."""
    model = LogisticRegression(C=1/lr).fit(X_train.drop("target", axis=1), X_train["target"])
    return model

Parameters vs artifacts: If a step input comes from another step's output, it is an artifact. If it is a literal value passed directly (JSON-serializable), it is a parameter. ZenML handles them differently.

Named and multi-output steps

Use Annotated to give outputs stable names. Use Tuple for multiple outputs:

from typing import Annotated, Tuple
from zenml import step
import pandas as pd

@step
def split_data(df: pd.DataFrame, ratio: float = 0.8) -> Tuple[
    Annotated[pd.DataFrame, "train"],
    Annotated[pd.DataFrame, "test"],
]:
    idx = int(len(df) * ratio)
    return df.iloc[:idx], df.iloc[idx:]

Wiring a pipeline

from zenml import pipeline

@pipeline
def training_pipeline(dataset_path: str = "data.csv", lr: float = 0.01) -> None:
    df = load_data(path=dataset_path)
    train, test = split_data(df=df)
    model = train_model(X_train=train, lr=lr)
    evaluate(model=model, X_test=test)

if __name__ == "__main__":
    training_pipeline()

Pipeline parameters (like dataset_path) can be overridden at runtime or via YAML config.

Step invocation IDs

When you call a step multiple times in one pipeline, ZenML auto-suffixes the name (scale, scale_2). Override with my_step(id="custom_id").

Project structure

Every pipeline project MUST follow this layout. This is non-negotiable — it produces clean, maintainable projects:

my_pipeline_project/
├── steps/                    # One file per step
│   ├── load_data.py
│   ├── preprocess.py
│   ├── train_model.py
│   └── evaluate.py
├── pipelines/
│   └── training.py           # Pipeline definition(s)
├── materializers/            # Custom materializers (if any)
│   └── my_data_materializer.py
├── visualizations/           # HTML/CSS templates for dashboard visualizations
│   └── metrics_report.html
├── configs/                  # One YAML config per environment
│   ├── dev.yaml
│   ├── staging.yaml
│   └── prod.yaml
├── run.py                    # CLI entry point (argparse, not click)
├── README.md                 # How to run, what stacks to use, etc.
└── pyproject.toml            # Dependencies — always pyproject.toml, not requirements.txt

Key rules:

• One step per file in a steps/ directory — not all steps in one steps.py.
• Separate pipeline definition from execution — pipeline in pipelines/, execution in run.py.
• Always create a README.md (not summary.md) explaining how to run the pipeline, what stacks it supports, and any setup needed. Link to the relevant ZenML docs pages (e.g., dynamic pipelines docs) rather than embedding lengthy explanations. Do NOT include stack registration or setup instructions — just say "assumes you have a ZenML stack configured" and link to https://docs.zenml.io for stack setup.
• Always use pyproject.toml for dependency declarations. Do NOT create requirements.txt alongside it — use one or the other, and pyproject.toml is the right choice.
• run.py uses argparse (not click) — click can conflict with ZenML's own click dependency.
• Run zenml init at the project root to set the source root explicitly — this prevents import failures when code runs inside containers.
• For uv/pyproject.toml package discovery, package data, and remote wheel inclusion pitfalls, see references/runtime-portability-and-approvals.md.

pyproject.toml template

Always use this as the starting point for pyproject.toml:

[project]
name = "my-pipeline-project"
version = "0.1.0"
requires-python = ">=3.12"
dependencies = [
    "zenml>=0.93",
    "pandas>=2.0",
    # Add pipeline-specific dependencies here
]

[project.optional-dependencies]
dev = [
    "pytest",
    "ruff",
    "mypy",
]

Key version constraints:

• Python >= 3.12 — ZenML's modern features and type annotations benefit from 3.12+.
• ZenML >= 0.93 — this is the minimum for current features. For dynamic pipelines, require >= 0.91 at absolute minimum (but 0.93 is safer).
• Don't pin dev tool versions (pytest, ruff, mypy) — just list them without version constraints so users get the latest.
• Prefer uv in README instructions: uv pip install -e ".[dev]" for faster and more reliable resolution. If uv is unavailable in the user's environment, use pip install -e ".[dev]".

README template notes

The README should include:

• How to install: Prefer uv pip install -e ".[dev]" and zenml integration install <name> --uv when supported. If uv is unavailable, use pip equivalents. Omit -y so users can review prompts.
• How to run: python run.py --config configs/dev.yaml
• What stacks it supports (just name them, don't explain how to register them)
• Link to specific orchestrator docs — not just generic https://docs.zenml.io. For example, if targeting Vertex AI, link to the Vertex AI orchestrator page and the GCP service connector page. Encourage users to use service connectors for authentication rather than manual credential management.
• A simple ASCII DAG visualization of the pipeline flow is a nice touch:

  load_data --> preprocess --> train_model --> evaluate
  

run.py CLI template

Every run.py should offer these flags:

import argparse
from pipelines.training import training_pipeline

def main():
    parser = argparse.ArgumentParser(description="Run the training pipeline")
    parser.add_argument("--config", default="configs/dev.yaml", help="Path to YAML config")
    parser.add_argument("--no-cache", action="store_true", help="Disable caching")
    parser.add_argument("--sample-size", type=int, default=None,
                        help="Use only N rows (for quick local iteration)")
    args = parser.parse_args()

    pipeline_instance = training_pipeline.with_options(
        config_path=args.config,
        enable_cache=not args.no_cache,
    )
    pipeline_instance(sample_size=args.sample_size)

if __name__ == "__main__":
    main()

The sample_size parameter is passed as a pipeline parameter so the data-loading step can slice the dataset.

---

The Artifact Golden Rule

Data must enter and move through the pipeline as artifacts, not as local file paths.

This is the single most important concept for cloud portability. When running on a remote orchestrator, each step runs in a separate container on a separate machine. There is no shared filesystem between steps.

What goes wrong

# ANTI-PATTERN: works locally, fails on cloud
@step
def preprocess(input_path: str) -> str:
    df = pd.read_csv(input_path)           # Reads from local disk
    output_path = "/tmp/processed.csv"
    df.to_csv(output_path)
    return output_path                      # Next step can't access /tmp on a different pod

@step
def train(data_path: str) -> None:
    df = pd.read_csv(data_path)             # FileNotFoundError on cloud!

The correct pattern

# CORRECT: data flows as artifacts
@step
def preprocess(input_path: str) -> pd.DataFrame:
    return pd.read_csv(input_path)          # ZenML serializes the DataFrame to the artifact store

@step
def train(data: pd.DataFrame) -> None:
    ...                                     # ZenML loads it from the artifact store — works everywhere

The first step in a pipeline is typically the one that bridges external data into the artifact world. All downstream steps receive artifacts, never file paths.

---

Dynamic Pipelines

Use dynamic pipelines when the DAG shape depends on runtime values. They are experimental and have restricted orchestrator support (Local, LocalDocker, Kubernetes, Vertex, SageMaker, AzureML). Always link to the dynamic pipelines documentation (https://docs.zenml.io/how-to/steps-pipelines/dynamic-pipelines) in the README since these APIs can be tricky to get right.

Minimal example

from zenml import pipeline, step

@step
def get_count() -> int:
    return 3

@step
def process(index: int) -> None:
    print(f"Processing {index}")

@pipeline(dynamic=True)
def my_dynamic_pipeline() -> None:
    count = get_count()
    count_data = count.load()       # .load() gets actual Python value
    for idx in range(count_data):
        process(index=idx)

The critical distinction: .load() vs .chunk()

Method	Returns	Use for
.load()	Actual Python data	Decisions, control flow, iteration
.chunk(index=i)	A DAG edge reference	Wiring to downstream steps

You typically need both: .load() to iterate/decide, .chunk() to wire the DAG:

items = produce_list()
for i, val in enumerate(items.load()):   # load to iterate
    if val > threshold:
        chunk = items.chunk(index=i)      # chunk to wire
        process(chunk)

Fan-out with .map() and parallel execution with .submit()

For map/reduce patterns, .map() fans out over a collection. For explicit parallelism, .submit() returns a future.

See references/dynamic-pipelines.md for the complete API: .map(), .product(), .submit(), unmapped(), .unpack(), runtime modes, orchestrator support table, and limitations.

---

Injecting External Data

When data originates outside the pipeline (a local file, a database, an API), you need to bridge it into the artifact system.

Pattern A: ExternalArtifact(value=...)

Upload data inline when defining the pipeline. Simple but disables caching for the consuming step:

from zenml import ExternalArtifact, pipeline, step
import pandas as pd

@step
def train(data: pd.DataFrame) -> None:
    ...

@pipeline
def my_pipeline() -> None:
    df = pd.read_csv("local_data.csv")
    train(data=ExternalArtifact(value=df))

Pattern B: Pre-upload + UUID reference (for remote orchestrators)

For dynamic pipelines on remote orchestrators, the pipeline function runs inside the orchestrator pod — it cannot read your local filesystem. Pre-upload the data, then reference it by UUID:

# run.py (client-side, runs on your machine)
from zenml.artifacts.utils import save_artifact
import pandas as pd

df = pd.read_csv("local_data.csv")
art = save_artifact(data=df, name="my_dataset")
print(art.id)  # Pass this UUID to the pipeline

# pipeline.py (runs inside the orchestrator pod)
from zenml.client import Client
from uuid import UUID

@pipeline
def my_pipeline(dataset_id: str) -> None:
    artifact = Client().get_artifact_version(UUID(dataset_id))
    train(data=artifact)

Important: ExternalArtifact(id=...) is rejected by the current validator. Use Client().get_artifact_version() instead.

See references/external-data.md for additional patterns including register_artifact().

---

YAML Configuration

Separate environment-specific settings from pipeline code using YAML config files.

Minimal example

# configs/dev.yaml
enable_cache: false
parameters:
  dataset_path: "data/small.csv"
  lr: 0.05
steps:
  train_model:
    settings:
      resources:
        cpu_count: 2

training_pipeline.with_options(config_path="configs/dev.yaml")()

Configuration precedence (highest to lowest): Runtime Python code > Step-level YAML > Pipeline-level YAML > Defaults.

Always use separate config files per environment (configs/dev.yaml, configs/staging.yaml, configs/prod.yaml) — never a single config.yaml. Generate a template with zenml pipeline build-configuration my_pipeline > config_template.yaml.

Prefer with_options() (returns a copy) over configure() (mutates in place).

See references/yaml-config.md for the complete YAML schema and multi-env pattern.

---

Docker Settings

When running on remote orchestrators, ZenML builds Docker images for each step. Use DockerSettings to control what goes into those images.

Common patterns

from zenml.config import DockerSettings

# Install pip packages
docker = DockerSettings(
    requirements=["scikit-learn>=1.0", "pandas>=2.0"],
    apt_packages=["libgomp1"],
    environment={"PYTHONUNBUFFERED": "1"},
)

@pipeline(settings={"docker": docker})
def my_pipeline() -> None:
    ...

Step-level overrides

Apply different settings per step with @step(settings={"docker": DockerSettings(parent_image="pytorch/pytorch:2.2.0-cuda11.8-cudnn8-runtime", requirements=["transformers"])}).

Key fields: requirements (pip packages), required_integrations (ZenML integrations), apt_packages (system packages), environment (build-time env vars), runtime_environment (runtime env vars), parent_image (custom base image), python_package_installer ("uv" default or "pip"), prevent_build_reuse (force fresh builds for debugging).

See references/docker-settings.md for the full field catalog and YAML equivalents. For Apple Silicon/ARM development targeting AMD64 Linux/Kubernetes, remote package inclusion, and Kubernetes pod troubleshooting, see references/runtime-portability-and-approvals.md and the Kubernetes troubleshooting section.

---

Metadata Logging

Log metadata from within steps to track metrics, parameters, and results in the ZenML dashboard. This is essential for production pipelines — every training step, evaluation step, and data quality step should log relevant metadata.

Basic usage (inside a step)

from zenml import step
from zenml.utils.metadata_utils import log_metadata

@step
def train_model(X_train: pd.DataFrame, y_train: pd.Series) -> sklearn.base.BaseEstimator:
    model = LogisticRegression().fit(X_train, y_train)
    log_metadata({"accuracy": model.score(X_train, y_train), "n_samples": len(X_train)})
    return model

When called with only metadata inside a step, it automatically attaches to the current step.

Nested metadata (creates separate cards in the dashboard)

Use nested dicts — each top-level key becomes its own card: log_metadata({"model_metrics": {"accuracy": 0.95, "f1": 0.90}, "data_stats": {"n_samples": 5000}}).

Log metadata in every data loading step (row count, source), preprocessing step (rows removed), training step (all metrics, hyperparams), and evaluation step (test metrics, thresholds).

---

Secrets Management

When a pipeline needs credentials (database passwords, API keys, cloud tokens), never pass them as CLI arguments, config file values, or environment variables in code. Use the ZenML secret store:

# One-time setup (CLI)
zenml secret create db_credentials --host=db.example.com --username=admin --password=secret123

from zenml import step
from zenml.client import Client

@step
def load_from_database(query: str) -> pd.DataFrame:
    secret = Client().get_secret("db_credentials")
    host = secret.secret_values["host"]
    username = secret.secret_values["username"]
    password = secret.secret_values["password"]
    # Use credentials to connect...

This works on any orchestrator — the secret store is centralized in the ZenML server.

---

Custom Types and Materializers

When do you need a custom materializer?

Situation	Materializer needed?
Step returns int, str, float, bool, dict, list	No — built-in
Step returns pd.DataFrame, np.ndarray	No — built-in
Step returns a Pydantic BaseModel	No — built-in. Prefer this path for custom types
Step returns a pathlib.Path (file or directory)	No — built-in PathMaterializer handles it. Archives directories as .tar.gz, copies single files. Great for model checkpoints, data folders, or any file-based artifact
Step returns a custom dataclass	Convert to Pydantic BaseModel — it has a built-in materializer, validation, and JSON serialization. Only write a custom materializer if you specifically need a non-JSON format
Step returns a complex domain object	Yes
You want a stable format (JSON/Parquet) instead of cloudpickle	Yes

Zero-effort visualizations

Return special string types for instant dashboard visualizations — no materializer needed:

from zenml.types import HTMLString, MarkdownString, CSVString

@step
def report(metrics: dict) -> HTMLString:
    # For polished HTML, load from a separate template file rather than inline strings
    html_path = Path(__file__).parent.parent / "visualizations" / "metrics_report.html"
    template = html_path.read_text()
    return HTMLString(template.format(**metrics))

Visualization quality: Keep HTML templates in a visualizations/ directory as separate .html files (optionally with embedded CSS). This makes them easy to edit and preview in a browser. Avoid writing raw HTML strings inside Python — it produces ugly, hard-to-maintain visualizations. Include proper CSS styling for a polished dashboard appearance.

Minimal custom materializer

import json, os
from typing import Any, Type
from zenml.enums import ArtifactType
from zenml.materializers.base_materializer import BaseMaterializer

class MyDataMaterializer(BaseMaterializer):
    ASSOCIATED_TYPES = (MyData,)
    ASSOCIATED_ARTIFACT_TYPE = ArtifactType.DATA

    def save(self, data: MyData) -> None:
        path = os.path.join(self.uri, "data.json")
        with self.artifact_store.open(path, "w") as f:   # Always use self.artifact_store.open()
            json.dump(data.to_dict(), f)

    def load(self, data_type: Type[Any]) -> MyData:
        path = os.path.join(self.uri, "data.json")
        with self.artifact_store.open(path, "r") as f:
            return MyData(**json.load(f))

Use self.artifact_store.open() (not plain open()) so it works with S3, GCS, and Azure Blob — not just local filesystems.

Assign it: @step(output_materializers=MyDataMaterializer).

See references/materializers.md for visualizations, metadata extraction, and registration options.

---

Logging

ZenML automatically captures print() and standard logging module output from within steps — no special setup needed. Logs are stored in the artifact store and visible in the dashboard.

import logging
from zenml import step

logger = logging.getLogger(__name__)

@step
def train_model(data: pd.DataFrame) -> Model:
    logger.info(f"Training on {len(data)} samples")  # Captured by ZenML
    print("Starting training...")                      # Also captured
    ...

Key points:

• Only logs from the main thread are captured. If you spawn threads, use contextvars.copy_context() to propagate ZenML's logging context.
• For remote runs, set logging verbosity via DockerSettings: DockerSettings(environment={"ZENML_LOGGING_VERBOSITY": "DEBUG"}).
• Disable step log storage with @step(enable_step_logs=False) or ZENML_DISABLE_STEP_LOGS_STORAGE=true.
• To view logs in the dashboard with a remote artifact store, you need a configured service connector.

---

Retry Configuration

For flaky external services or transient cloud errors, use StepRetryConfig(max_retries=3, delay=10, backoff=2) on @step(retry=...) or @pipeline(retry=...). YAML equivalent uses retry: at step or top level. See ZenML docs for hooks (on_failure, on_success).

---

Post-Creation Enhancements

After the pipeline is scaffolded and working, offer these enhancements. Each is optional — ask the user which they want before adding them.

Tags (add by default)

Always add tags to pipelines and key artifacts — they make filtering and organization much easier in the dashboard. Use @pipeline(tags=["training", "v1"]) and ArtifactConfig(tags=["dataset"]) on step outputs. Cascade tags (Tag(name="experiment-42", cascade=True)) automatically propagate to all artifact versions created during the run.

Model Control Plane

Track the pipeline's artifacts under a named model for versioning, promotion, and cross-pipeline artifact sharing. Use @pipeline(model=Model(name="my_model", tags=["classification"])). This enables model promotion (staging → production) and artifact exchange between training and inference pipelines. See references/post-creation.md for full patterns. For human approval gates before promotion, see references/runtime-portability-and-approvals.md.

Scheduling

Run the pipeline on a recurring schedule. Use Schedule(cron_expression="0 2 * * *") or Schedule(interval_second=3600) with pipeline.with_options(schedule=schedule). Not all orchestrators support scheduling — Kubernetes, Vertex AI, SageMaker, AzureML, Airflow, and Kubeflow do; Local and SkyPilot do not. See references/post-creation.md for the orchestrator support table and management commands.

Pipeline Deployment (HTTP serving)

For real-time inference or agent workflows, pipelines can be deployed as persistent HTTP services using pipeline.deploy(deployment_name="my_service"). This replaces the deprecated model deployer components. For advanced deployment patterns and production configuration, see the deployment docs.

See references/post-creation.md for detailed patterns for all of the above.

---

Common Anti-Patterns

Anti-pattern	Symptom	Fix
Pass local file path between steps	FileNotFoundError on cloud	Return data as artifact, not path
Write to /tmp and read in next step	Works locally, fails on K8s	Use artifact outputs
Missing type hints on step	Silent failures, no caching	Add type annotations to all inputs/outputs
cloudpickle for production artifacts	Breaks across Python versions	Write a custom BaseMaterializer
ExternalArtifact(id=...)	ValueError from validator	Use Client().get_artifact_version()
Missing DockerSettings deps	ModuleNotFoundError in container	Add to requirements or required_integrations
Imports inside pipeline function body	Fails in container if module not available	Import at module level
No zenml init at project root	Import errors in remote steps	Run zenml init to set source root
Passwords/secrets in CLI args or config	Security risk, visible in logs	Use Client().get_secret() from ZenML secret store
All steps in one steps.py	Hard to maintain, test, review	One file per step in steps/ directory
No metadata logging in train/eval steps	No metrics visible in dashboard	Add log_metadata() calls
Single config.yaml for all environments	Config drift, manual editing	Separate configs/dev.yaml, configs/prod.yaml
Using click for run.py CLI	Version conflicts with ZenML	Use argparse instead
Missing or wrong dep file (requirements.txt instead of / alongside pyproject.toml)	Unclear deps, no Python version pin, no dev deps	Use pyproject.toml only with zenml>=0.93, requires-python>=3.12, and [project.optional-dependencies] for dev tools
Inline HTML strings in Python	Ugly visualizations, hard to edit	Use separate .html template files
Defaulting to pip install when uv is available	Slower installs and weaker dependency resolution in many environments	Prefer uv pip install in docs/README; fall back to pip when uv is unavailable
zenml integration install X -y	User can't review prompts; easier to make mistakes	Prefer zenml integration install X --uv (no -y) when available; otherwise run without -y using default installer
Stack registration instructions in README	Users have different stacks; instructions become stale	Just say "assumes a configured ZenML stack" and link to docs
Using dataclass for step outputs	No built-in materializer, requires custom code	Use Pydantic BaseModel — has built-in materializer
No minimum ZenML version in deps	Breaks on older versions missing features	Pin zenml>=0.93 (or >=0.91 minimum for dynamic)
macOS/ARM wheel or local path dependency used in remote image	Works on Apple Silicon, fails in AMD64 Linux/Kubernetes	Publish Linux-compatible wheels or install from package index/build context
Kubernetes pod rejected before Python starts	Forbidden, Pending, ImagePullBackOff, or admission policy errors	Inspect pod events with kubectl describe pod and fix policy/resources/image access
Automatic production promotion hidden inside training code	Hard-to-audit releases	Use explicit CI/CD approval gates or a documented approval checkpoint before promotion

---

Resources

Reference files (detailed guides)

• references/dynamic-pipelines.md — Complete dynamic pipeline API
• references/external-data.md — Data injection patterns
• references/docker-settings.md — Full DockerSettings field catalog
• references/materializers.md — Materializer authoring guide
• references/yaml-config.md — Complete YAML config schema
• references/post-creation.md — Tags, Model Control Plane, scheduling, deployment
• references/runtime-portability-and-approvals.md — uv/package discovery, Apple Silicon → AMD64 builds, Kubernetes troubleshooting, approval gates

ZenML documentation

For topics not covered here (stack setup, experiment tracking, advanced deployment configuration), query the ZenML docs at https://docs.zenml.io.

When linking to docs in generated READMEs, link to specific pages rather than the generic homepage. Common links to include:

• Dynamic pipelines: https://docs.zenml.io/how-to/steps-pipelines/dynamic-pipelines
• Service connectors (for cloud auth): https://docs.zenml.io/how-to/infrastructure-deployment/auth-management
• Orchestrator-specific pages (e.g., Vertex AI, Kubernetes, SageMaker) — search docs for the specific orchestrator name
• Encourage service connectors over manual credential management for cloud stacks