Pulumi Component
PulumiOfficialPublished by Pulumi
- Skill
- Guidelines
- Cloud and DevOps
- Apache-2.0
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AutoGineer summary
Written by AutoGineer from the skill’s own files, not by the author
This skill provides a structured approach to building ComponentResource classes in Pulumi. It covers the essential anatomy of a component, best practices for designing input interfaces, strategies for managing outputs, and patterns for composition. It also details the requirements for making components consumable across multiple programming languages and how to distribute them within an organization using the Pulumi private registry or Git-based workflows.
What it does
- Defines the required structure for ComponentResource classes including URNs and output registration.
- Provides patterns for designing clean, type-safe, and composable input interfaces.
- Explains how to expose only necessary outputs while hiding internal implementation details.
- Outlines the requirements for enabling multi-language support for shared components.
- Details methods for distributing components via private registries or Git repositories.
- Offers design patterns for handling defaults, conditional resource creation, and provider passthrough.
When to use it
- When you need to group related infrastructure resources into a reusable, logical unit.
- When refactoring complex inline infrastructure code into maintainable components.
- When you need to share infrastructure abstractions across different teams or programming languages.
- When you want to publish internal infrastructure patterns to a private registry for organizational use.
Advantages
- Reduces code duplication by encapsulating common infrastructure patterns.
- Improves maintainability by grouping related resources into a single logical node.
- Enables consistent infrastructure standards across an organization.
- Supports multi-language environments, allowing teams to use the same components in their preferred language.
Usage examples
- “How do I structure a new Pulumi ComponentResource for an S3 bucket?”
- The agent provides a class template extending ComponentResource, showing how to set the parent option, define inputs, and call registerOutputs.
- “How can I make my TypeScript component usable by Python developers?”
- The agent explains the multi-language packaging requirements, including the PulumiPlugin.yaml configuration and the necessary entry point setup.
- “What is the best way to handle optional configuration in a component?”
- The agent demonstrates using default values within the constructor and how to design the args interface to support optional inputs.
Install
Download the skill as a ZIP:
https://autogineer.com/agent-skills/pulumi/pulumi-component/downloadUnzip it into the cross-client skills folder of your project:
mkdir -p .agents/skills && unzip pulumi-component.zip -d .agents/skills
Documentation by Pulumi
Authoring Pulumi Components
A ComponentResource groups related infrastructure resources into a reusable, logical unit. Components make infrastructure easier to understand, reuse, and maintain. Components appear as a single node with children nested underneath in pulumi preview/pulumi up output and in the Pulumi Cloud console.
This skill covers the full component authoring lifecycle. For general Pulumi coding patterns (Output handling, secrets, aliases, preview workflows), use the pulumi-best-practices skill instead.
When to Use This Skill
Invoke this skill when:
Creating a new ComponentResource class
Designing the args interface for a component
Making a component consumable from multiple Pulumi languages
Publishing or distributing a component package
Refactoring inline resources into a reusable component
Debugging component behavior (missing outputs, stuck creating, children at wrong level)
Component Anatomy
Every component has four required elements:
Extend ComponentResource and call
super()with a type URNAccept standard parameters: name, args, and
ComponentResourceOptionsSet
parent: thison all child resourcesCall
registerOutputs()at the end of the constructor
TypeScript
import * as pulumi from "@pulumi/pulumi";
import * as aws from "@pulumi/aws";
interface StaticSiteArgs {
indexDocument?: pulumi.Input<string>;
errorDocument?: pulumi.Input<string>;
}
class StaticSite extends pulumi.ComponentResource {
public readonly bucketName: pulumi.Output<string>;
public readonly websiteUrl: pulumi.Output<string>;
constructor(name: string, args: StaticSiteArgs, opts?: pulumi.ComponentResourceOptions) {
// 1. Call super with type URN: <package>:<module>:<type>
super("myorg:index:StaticSite", name, {}, opts);
// 2. Create child resources with parent: this
const bucket = new aws.s3.Bucket(`${name}-bucket`, {}, { parent: this });
const website = new aws.s3.BucketWebsiteConfigurationV2(`${name}-website`, {
bucket: bucket.id,
indexDocument: { suffix: args.indexDocument ?? "index.html" },
errorDocument: { key: args.errorDocument ?? "error.html" },
}, { parent: this });
// 3. Expose outputs as class properties
this.bucketName = bucket.id;
this.websiteUrl = website.websiteEndpoint;
// 4. Register outputs -- always the last line
this.registerOutputs({
bucketName: this.bucketName,
websiteUrl: this.websiteUrl,
});
}
}
// Usage
const site = new StaticSite("marketing", {
indexDocument: "index.html",
});
export const url = site.websiteUrl;Python
import pulumi
import pulumi_aws as aws
class StaticSiteArgs:
def __init__(self,
index_document: pulumi.Input[str] = "index.html",
error_document: pulumi.Input[str] = "error.html"):
self.index_document = index_document
self.error_document = error_document
class StaticSite(pulumi.ComponentResource):
bucket_name: pulumi.Output[str]
website_url: pulumi.Output[str]
def __init__(self, name: str, args: StaticSiteArgs,
opts: pulumi.ResourceOptions = None):
super().__init__("myorg:index:StaticSite", name, None, opts)
bucket = aws.s3.Bucket(f"{name}-bucket",
opts=pulumi.ResourceOptions(parent=self))
website = aws.s3.BucketWebsiteConfigurationV2(f"{name}-website",
bucket=bucket.id,
index_document=aws.s3.BucketWebsiteConfigurationV2IndexDocumentArgs(
suffix=args.index_document,
),
error_document=aws.s3.BucketWebsiteConfigurationV2ErrorDocumentArgs(
key=args.error_document,
),
opts=pulumi.ResourceOptions(parent=self))
self.bucket_name = bucket.id
self.website_url = website.website_endpoint
self.register_outputs({
"bucket_name": self.bucket_name,
"website_url": self.website_url,
})
site = StaticSite("marketing", StaticSiteArgs())
pulumi.export("url", site.website_url)Type URN Format
The first argument to super() is the type URN: <package>:<module>:<type>.
| Segment | Convention | Example |
|---|---|---|
| package | Organization or package name | myorg, acme, pkg |
| module | Usually index | index |
| type | PascalCase class name | StaticSite, VpcNetwork |
Full examples: myorg:index:StaticSite, acme:index:KubernetesCluster
registerOutputs Is Required
Why: Without registerOutputs(), the component appears stuck in a "creating" state in the Pulumi console and outputs are not persisted to state.
Wrong:
class MyComponent extends pulumi.ComponentResource {
public readonly url: pulumi.Output<string>;
constructor(name: string, args: MyArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:MyComponent", name, {}, opts);
const bucket = new aws.s3.Bucket(`${name}-bucket`, {}, { parent: this });
this.url = bucket.bucketRegionalDomainName;
// Missing registerOutputs -- component stuck "creating"
}
}Right:
class MyComponent extends pulumi.ComponentResource {
public readonly url: pulumi.Output<string>;
constructor(name: string, args: MyArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:MyComponent", name, {}, opts);
const bucket = new aws.s3.Bucket(`${name}-bucket`, {}, { parent: this });
this.url = bucket.bucketRegionalDomainName;
this.registerOutputs({ url: this.url });
}
}Derive Child Names from the Component Name
Why: Hardcoded child names cause collisions when the component is instantiated multiple times.
Wrong:
// Collides if two instances of this component exist
const bucket = new aws.s3.Bucket("my-bucket", {}, { parent: this });Right:
// Unique per component instance
const bucket = new aws.s3.Bucket(`${name}-bucket`, {}, { parent: this });Designing the Args Interface
The args interface is the most impactful design decision. It defines what consumers can configure and how composable the component is.
Wrap Properties in Input<T>
Why: Input<T> accepts both plain values and Output<T> from other resources. Without it, consumers must unwrap outputs manually with .apply().
Wrong:
interface WebServiceArgs {
port: number; // Forces consumers to unwrap Outputs
vpcId: string; // Cannot accept vpc.id directly
}Right:
interface WebServiceArgs {
port: pulumi.Input<number>; // Accepts 8080 or someOutput
vpcId: pulumi.Input<string>; // Accepts "vpc-123" or vpc.id
}Keep Structures Flat
Avoid deeply nested arg objects. Flat interfaces are easier to use and evolve.
// Prefer flat
interface DatabaseArgs {
instanceClass: pulumi.Input<string>;
storageGb: pulumi.Input<number>;
enableBackups?: pulumi.Input<boolean>;
backupRetentionDays?: pulumi.Input<number>;
}
// Avoid deep nesting
interface DatabaseArgs {
instance: {
compute: { class: pulumi.Input<string> };
storage: { sizeGb: pulumi.Input<number> };
};
backup: {
config: { enabled: pulumi.Input<boolean>; retention: pulumi.Input<number> };
};
}No Union Types
Union types break multi-language SDK generation. Python, Go, and C# cannot represent string | number.
Wrong:
interface MyArgs {
port: pulumi.Input<string | number>; // Fails in Python, Go, C#
}Right:
interface MyArgs {
port: pulumi.Input<number>; // Single type, works everywhere
}If you need to accept multiple forms, use separate optional properties:
interface StorageArgs {
sizeGb?: pulumi.Input<number>; // Specify size in GB
sizeMb?: pulumi.Input<number>; // Or specify size in MB
}No Functions or Callbacks
Functions cannot be serialized across language boundaries.
Wrong:
interface MyArgs {
nameTransform: (name: string) => string; // Cannot serialize
}Right:
interface MyArgs {
namePrefix?: pulumi.Input<string>; // Configuration instead of callback
nameSuffix?: pulumi.Input<string>;
}Use Defaults for Optional Properties
Set sensible defaults inside the constructor so consumers only configure what they need:
interface SecureBucketArgs {
enableVersioning?: pulumi.Input<boolean>; // Defaults to true
enableEncryption?: pulumi.Input<boolean>; // Defaults to true
blockPublicAccess?: pulumi.Input<boolean>; // Defaults to true
}
class SecureBucket extends pulumi.ComponentResource {
constructor(name: string, args: SecureBucketArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:SecureBucket", name, {}, opts);
const enableVersioning = args.enableVersioning ?? true;
const enableEncryption = args.enableEncryption ?? true;
const blockPublicAccess = args.blockPublicAccess ?? true;
// Apply defaults...
}
}
// Consumer only overrides what they need
const bucket = new SecureBucket("data", { enableVersioning: false });Exposing Outputs
Expose Only What Consumers Need
Components often create many internal resources. Expose only the values consumers need, not every internal resource.
Wrong:
class Database extends pulumi.ComponentResource {
// Exposes everything -- consumers see implementation details
public readonly cluster: aws.rds.Cluster;
public readonly primaryInstance: aws.rds.ClusterInstance;
public readonly replicaInstance: aws.rds.ClusterInstance;
public readonly subnetGroup: aws.rds.SubnetGroup;
public readonly securityGroup: aws.ec2.SecurityGroup;
public readonly parameterGroup: aws.rds.ClusterParameterGroup;
// ...
}Right:
class Database extends pulumi.ComponentResource {
// Exposes only what consumers need
public readonly endpoint: pulumi.Output<string>;
public readonly port: pulumi.Output<number>;
public readonly securityGroupId: pulumi.Output<string>;
constructor(name: string, args: DatabaseArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:Database", name, {}, opts);
const sg = new aws.ec2.SecurityGroup(`${name}-sg`, { /* ... */ }, { parent: this });
const cluster = new aws.rds.Cluster(`${name}-cluster`, { /* ... */ }, { parent: this });
this.endpoint = cluster.endpoint;
this.port = cluster.port;
this.securityGroupId = sg.id;
this.registerOutputs({
endpoint: this.endpoint,
port: this.port,
securityGroupId: this.securityGroupId,
});
}
}Derive Composite Outputs
Use pulumi.interpolate or pulumi.concat to build derived values:
this.connectionString = pulumi.interpolate`postgresql://${args.username}:${args.password}@${cluster.endpoint}:${cluster.port}/${args.databaseName}`;
this.registerOutputs({ connectionString: this.connectionString });Component Design Patterns
Sensible Defaults with Override
Encode best practices as defaults. Allow consumers to override when they have specific requirements.
interface SecureBucketArgs {
enableVersioning?: pulumi.Input<boolean>;
enableEncryption?: pulumi.Input<boolean>;
blockPublicAccess?: pulumi.Input<boolean>;
tags?: pulumi.Input<Record<string, pulumi.Input<string>>>;
}
class SecureBucket extends pulumi.ComponentResource {
public readonly bucketId: pulumi.Output<string>;
public readonly arn: pulumi.Output<string>;
constructor(name: string, args: SecureBucketArgs = {}, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:SecureBucket", name, {}, opts);
const bucket = new aws.s3.Bucket(`${name}-bucket`, {
tags: args.tags,
}, { parent: this });
// Versioning on by default
if (args.enableVersioning !== false) {
new aws.s3.BucketVersioningV2(`${name}-versioning`, {
bucket: bucket.id,
versioningConfiguration: { status: "Enabled" },
}, { parent: this });
}
// Encryption on by default
if (args.enableEncryption !== false) {
new aws.s3.BucketServerSideEncryptionConfigurationV2(`${name}-encryption`, {
bucket: bucket.id,
rules: [{ applyServerSideEncryptionByDefault: { sseAlgorithm: "AES256" } }],
}, { parent: this });
}
// Public access blocked by default
if (args.blockPublicAccess !== false) {
new aws.s3.BucketPublicAccessBlock(`${name}-public-access`, {
bucket: bucket.id,
blockPublicAcls: true,
blockPublicPolicy: true,
ignorePublicAcls: true,
restrictPublicBuckets: true,
}, { parent: this });
}
this.bucketId = bucket.id;
this.arn = bucket.arn;
this.registerOutputs({ bucketId: this.bucketId, arn: this.arn });
}
}Conditional Resource Creation
Use optional args to gate creation of sub-resources:
interface WebServiceArgs {
image: pulumi.Input<string>;
port: pulumi.Input<number>;
enableMonitoring?: pulumi.Input<boolean>;
alarmEmail?: pulumi.Input<string>;
}
class WebService extends pulumi.ComponentResource {
constructor(name: string, args: WebServiceArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:WebService", name, {}, opts);
const service = new aws.ecs.Service(`${name}-service`, {
// ...service config...
}, { parent: this });
// Only create alarm infrastructure when monitoring is enabled
if (args.enableMonitoring) {
const topic = new aws.sns.Topic(`${name}-alerts`, {}, { parent: this });
if (args.alarmEmail) {
new aws.sns.TopicSubscription(`${name}-alert-email`, {
topic: topic.arn,
protocol: "email",
endpoint: args.alarmEmail,
}, { parent: this });
}
new aws.cloudwatch.MetricAlarm(`${name}-cpu-alarm`, {
// ...alarm config referencing service...
alarmActions: [topic.arn],
}, { parent: this });
}
this.registerOutputs({});
}
}Composition
Build higher-level components from lower-level ones. Each level manages a single concern.
// Lower-level component
class VpcNetwork extends pulumi.ComponentResource {
public readonly vpcId: pulumi.Output<string>;
public readonly publicSubnetIds: pulumi.Output<string>[];
public readonly privateSubnetIds: pulumi.Output<string>[];
constructor(name: string, args: VpcNetworkArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:VpcNetwork", name, {}, opts);
// ...create VPC, subnets, route tables...
this.registerOutputs({ vpcId: this.vpcId });
}
}
// Higher-level component that uses VpcNetwork
class Platform extends pulumi.ComponentResource {
public readonly kubeconfig: pulumi.Output<string>;
constructor(name: string, args: PlatformArgs, opts?: pulumi.ComponentResourceOptions) {
super("myorg:index:Platform", name, {}, opts);
// Compose lower-level components
const network = new VpcNetwork(`${name}-network`, {
cidrBlock: args.cidrBlock,
}, { parent: this });
const cluster = new aws.eks.Cluster(`${name}-cluster`, {
vpcConfig: {
subnetIds: network.privateSubnetIds,
},
}, { parent: this });
this.kubeconfig = cluster.kubeconfig;
this.registerOutputs({ kubeconfig: this.kubeconfig });
}
}Provider Passthrough
Accept explicit providers for multi-region or multi-account deployments. ComponentResourceOptions carries provider configuration to children automatically:
// Consumer passes a provider for a different region
const usWest = new aws.Provider("us-west", { region: "us-west-2" });
const site = new StaticSite("west-site", { indexDocument: "index.html" }, {
providers: [usWest],
});Children with { parent: this } automatically inherit the provider. No extra code is needed inside the component.
Multi-Language Components
If your component will be consumed from multiple Pulumi languages (TypeScript, Python, Go, C#, Java, YAML), package it as a multi-language component.
Do You Need Multi-Language?
Ask: "Will anyone consume this component from a different language than it was authored in?"
Single-language component (no packaging needed):
Your team uses one language and the component stays within that codebase
The component is internal to a single project or monorepo
No
PulumiPlugin.yamlneeded -- just import the class directly
Multi-language component (packaging required):
Other teams consume your component in different languages
Platform teams building abstractions for developers who choose their own language
YAML consumers need access -- even if you author in TypeScript, YAML programs require multi-language packaging to use your component
Building a shared component library for your organization
Publishing to the Pulumi private registry or public registry is a common reason, but not required for multi-language support
Common mistake: A TypeScript platform team builds components only their TypeScript users can consume. If application developers use Python or YAML, those components are invisible to them without multi-language packaging.
Setup
Create a PulumiPlugin.yaml in the component directory to declare the runtime:
runtime: nodejsOr for Python:
runtime: pythonSerialization Constraints
For multi-language compatibility, args must be serializable. These constraints apply regardless of the authoring language:
| Allowed | Not Allowed |
|---|---|
string, number, boolean | Union types (string | number) |
Input<T> wrappers | Functions and callbacks |
| Arrays and maps of primitives | Complex nested generics |
| Enums | Platform-specific types |
Consuming Multi-Language Components
Consumers install the component with pulumi package add, which automatically downloads the provider plugin, generates a local SDK in the consumer's language, and updates Pulumi.yaml:
# From a Git repository
pulumi package add <git-repo-url>
# From a specific version tag
pulumi package add <git-repo-url>@v1.0.0For fresh checkouts or CI environments, run pulumi install to ensure all package dependencies are available. The consumer does not need to manually generate SDKs.
Authors who publish SDKs to package managers (npm, PyPI, etc.) can optionally use pulumi package gen-sdk to generate language-specific SDKs for publishing. Most component authors do not need this -- pulumi package add handles SDK generation on the consumer side.
Entry Points
Published multi-language components require an entry point that hosts the component provider process. The entry point pattern differs by language.
TypeScript (runtime: nodejs):
Export component classes from index.ts. No separate entry point file is needed. Pulumi introspects exported classes automatically.
// index.ts -- exports are the entry point
export { StaticSite, StaticSiteArgs } from "./staticSite";
export { SecureBucket, SecureBucketArgs } from "./secureBucket";Python (runtime: python):
Create a __main__.py that calls component_provider_host with all component classes:
from pulumi.provider.experimental import component_provider_host
from static_site import StaticSite
from secure_bucket import SecureBucket
if __name__ == "__main__":
component_provider_host(
name="my-components",
components=[StaticSite, SecureBucket],
)Go (runtime: go):
Create a main.go that builds and runs the provider:
package main
import (
"context"
"fmt"
"os"
"github.com/pulumi/pulumi-go-provider/infer"
)
func main() {
p, err := infer.NewProviderBuilder().
WithComponents(
infer.ComponentF(NewStaticSite),
infer.ComponentF(NewSecureBucket),
).
Build()
if err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
if err := p.Run(context.Background(), "my-components", "0.1.0"); err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
}C# (runtime: dotnet):
Create a Program.cs that serves the component provider host:
using System.Threading.Tasks;
class Program
{
public static Task Main(string[] args) =>
Pulumi.Experimental.Provider.ComponentProviderHost.Serve(args);
}For a complete working example across all languages, see https://github.com/mikhailshilkov/comp-as-comp.
Reference: https://www.pulumi.com/docs/iac/using-pulumi/pulumi-packages/
Distribution
Choose a distribution method based on your audience:
| Audience | Method | How |
|---|---|---|
| Same project | Direct import | Standard language import |
| Same organization | Private registry | pulumi package publish to Pulumi Cloud |
| Same organization | Git repository | pulumi package add <repo> with version tags |
| Language ecosystem | Package manager | Publish to npm, PyPI, NuGet, or Maven |
| Public community | Pulumi Registry | Submit via pulumi/registry GitHub repo |
Pulumi Private Registry
The private registry is the centralized catalog for your organization's components. It provides automatic API documentation, version management, and discoverability for all teams.
Publish a component to the private registry:
pulumi package publish https://github.com/myorg/my-component --publisher myorgVersion components using git tags with a v prefix:
git tag v1.0.0
git push origin v1.0.0A README file is required when publishing. Pulumi uses it as the component's documentation page in the registry.
Automate publishing from GitHub Actions using OIDC authentication:
name: Publish Component
on:
push:
tags:
- "v*"
permissions:
id-token: write
contents: read
jobs:
publish:
runs-on: ubuntu-latest
env:
PULUMI_ORG: myorg
steps:
- uses: actions/checkout@v4
with:
fetch-depth: 0
- uses: pulumi/auth-actions@v1
with:
organization: ${{ env.PULUMI_ORG }}
requested-token-type: urn:pulumi:token-type:access_token:organization
- run: pulumi package publish https://github.com/${{ github.repository }} --publisher ${{ env.PULUMI_ORG }}Prerequisites: Configure GitHub OIDC integration with Pulumi Cloud before using this workflow.
The registry supports private GitHub and GitLab repositories. For non-OIDC setups, authenticate with GITHUB_TOKEN or GITLAB_TOKEN environment variables.
The private registry automatically generates SDK documentation for each published component. Enrich the generated docs by adding type annotations to your component's inputs and outputs (JSDoc in TypeScript, docstrings in Python, Annotate() methods in Go).
Reference: https://www.pulumi.com/docs/idp/get-started/private-registry/
Git Repository Distribution
Tag releases for consumers to pin versions:
git tag v1.0.0
git push origin v1.0.0Consumers install with:
pulumi package add https://github.com/myorg/[email protected]Package Manager Distribution
Publish language-specific packages for native dependency management:
npm:
npm publishfor TypeScript/JavaScriptPyPI:
twine uploadfor PythonNuGet:
dotnet nuget pushfor .NETMaven Central: Standard Maven publishing for Java
Reference: https://www.pulumi.com/docs/iac/using-pulumi/pulumi-packages/
Anti-Patterns
| Anti-Pattern | Problem | Fix |
|---|---|---|
Resources inside apply() | Not visible in pulumi preview | Move resource creation outside apply (see pulumi-best-practices practice 1) |
Missing registerOutputs() | Component stuck "creating" | Always call as last line of constructor |
Missing parent: this | Children appear at root level | Pass { parent: this } to all child resources |
| Union types in args | Breaks Python, Go, C# SDKs | Use single types; separate properties for variants |
| Functions in args | Cannot serialize across languages | Use configuration properties instead |
| Hardcoded child names | Collisions with multiple instances | Derive names from ${name}-suffix |
| Over-exposed outputs | Leaks implementation details | Export only what consumers need |
| Single-use component | Unnecessary abstraction overhead | Use inline resources until a pattern repeats |
| Deeply nested args | Hard to use and evolve | Keep interfaces flat with optional properties |
Quick Reference
| Topic | Key Point |
|---|---|
| Type URN | <package>:<module>:<type>, module usually index |
| Constructor | super(type, name, {}, opts) then children then registerOutputs() |
| Child resources | Always { parent: this }, derive name from ${name}-suffix |
| Args interface | Wrap in Input<T>, no unions, no functions, flat structure |
| Outputs | Public readonly Output<T> properties, expose only essentials |
| Defaults | Use ?? operator to apply sensible defaults in constructor |
| Composition | Lower-level components composed into higher-level ones |
| Multi-language | PulumiPlugin.yaml + entry point; consumers use pulumi package add |
| Distribution | Private registry, git tags, package managers, or public Pulumi Registry |
Related Skills
pulumi-best-practices: General Pulumi patterns including Output handling, secrets, and aliases
pulumi-automation-api: Programmatic orchestration for integration testing and multi-stack workflows
pulumi-esc: Centralized secrets and configuration for component deployments
References
Files
- ATTRIBUTION.mdAdded by AutoGineer863 B
- LICENSELicence file added by AutoGineer11.1 KiB
- SKILL.md26.6 KiB
- agents/openai.yaml226 B
- use_cases.yaml1.1 KiB
ATTRIBUTION.md
Attribution
This folder is an unmodified copy of the Agent Skill "pulumi-component", distributed by AutoGineer (https://autogineer.com/agent-skills).
Commit: 82f222a529a499e8005a820000148cc5e28c934c
Published by: Pulumi (https://github.com/pulumi)
Publisher: Pulumi (https://github.com/pulumi)
Licence: Apache License 2.0 (https://github.com/pulumi/agent-skills/blob/82f222a529a499e8005a820000148cc5e28c934c/LICENSE)
Licence evidence: repository licence LICENSE
Retrieved: 2026-11-07
The skill's own files are unmodified copies. AutoGineer is not affiliated with or endorsed by the author or the publisher.
Files added by AutoGineer
ATTRIBUTION.md: this file, written by AutoGineer
LICENSE: copied from LICENSE
Requirements and compatibility
Works with: Claude Code, Claude apps, OpenAI Codex, GitHub Copilot, Cursor, Gemini CLI, Kiro, OpenCode, Goose, Amp, Roo Code, JetBrains Junie, Factory Droid, Devin (ex-Windsurf), Mistral Vibe, OpenHands, Letta
“Works with” means the tool reads the open Agent Skills format; a skill written for one tool may use features others lack.
Needs: Needs a command-line tool, Needs Python, Needs Node.js
Security
No issues found by our static scan· No issues found
A static scan is not a guarantee. Skills are third-party content: review a skill before you let an agent use it.
Attribution and licence
- Published by
- Pulumi
- Publisher
- Pulumi (Official)
- Source
- pulumi/agent-skills · pulumi/skills/pulumi-component · commit 82f222a
- Licence
- Apache License 2.0 (redistribution allowed)
- LICENSE (added by AutoGineer from LICENSE)
- ATTRIBUTION.md (written by AutoGineer)
- Synced
AutoGineer is not affiliated with or endorsed by Pulumi or Pulumi.
Download ZIP
The ZIP holds the skill’s files, its licence files and an ATTRIBUTION.md. Download pulumi-component.zip