本文へ移動
cccskills
無料GitHub で公開

pulumi-arm-to-pulumi

Convert or migrate Azure ARM (Azure Resource Manager) templates, Bicep templates, or code to Pulumi, including importing existing Azure resources. This skill MUST be loaded whenever a user requests migration, conversion, or import of ARM templates, Bicep templates, ARM code, Bicep code, or Azure resources to Pulumi.

インストール方法を見る

含まれるファイル(3)

  • SKILL.md22.3 KB
  • agents/openai.yaml238 B
  • arm-import.md13.4 KB

SKILL.md(原文)

インストールする前に、エージェントに与えられる指示の中身を確認できます。

IMPORTANT: PLAN ADJUSTMENT REQUIRED

If you have already generated a migration plan before loading this skill, you MUST:

  1. Review your existing plan against the workflows and requirements in this skill
  2. Identify any gaps, missing steps, or incorrect assumptions
  3. Update and revise your plan to align with this skill's guidance
  4. Communicate the adjusted plan to the user before proceeding

CRITICAL SUCCESS REQUIREMENTS

The migration output MUST meet all of the following:

  1. Complete Resource Coverage

    • Every ARM template resource MUST:
      • Be represented in the Pulumi program OR
      • Be explicitly justified in the final report.
  2. Successful Deployment

    • The produced Pulumi program must be structurally valid and capable of a successful pulumi preview (assuming proper config).
  3. Zero-Diff Import Validation (if importing existing resources)

    • After import, pulumi preview must show:
      • NO updates
      • NO replaces
      • NO creates
      • NO deletes
    • Any diffs must be resolved using the Preview Resolution Workflow. See arm-import.md.
  4. Final Migration Report

    • Always output a formal migration report suitable for a Pull Request.
    • Include:
      • ARM → Pulumi resource mapping
      • Provider decisions (azure-native vs azure)
      • Behavioral differences
      • Missing or manually required steps
      • Validation instructions

WHEN INFORMATION IS MISSING

If a user-provided ARM template is incomplete, ambiguous, or missing artifacts, ask targeted questions before generating Pulumi code.

If there is ambiguity on how to handle a specific resource property on import, ask targeted questions before altering Pulumi code.

MIGRATION WORKFLOW

Follow this workflow exactly and in this order:

1. INFORMATION GATHERING

1.1 Verify Azure Credentials

Running Azure CLI commands (e.g., az resource list, az resource show). Requires initial login using ESC and az login

  • If the user has already provided an ESC environment, use it.
  • If no ESC environment is specified, ask the user which ESC environment to use before proceeding with Azure CLI commands.

Setting up Azure CLI using ESC:

  • ESC environments can provide Azure credentials through environment variables or Azure CLI configuration
  • Login to Azure using ESC to provide credentials, e.g: pulumi env run {org}/{project}/{environment} -- bash -c 'az login --service-principal -u "$ARM_CLIENT_ID" --tenant "$ARM_TENANT_ID" --federated-token "$ARM_OIDC_TOKEN"'. ESC is not required after establishing the session
  • Verify credentials are working: az account show
  • Confirm subscription: az account list --query "[].{Name:name, SubscriptionId:id, IsDefault:isDefault}" -o table

For detailed ESC information: Load the pulumi-esc skill by calling the tool "Skill" with name = "pulumi-esc"

1.2 Analyze ARM Template Structure

ARM templates do not have the concept of "stacks" like CloudFormation. Read the ARM template JSON file directly:

# View template structure
cat template.json | jq '.resources[] | {type: .type, name: .name}'

# View parameters
cat template.json | jq '.parameters'

# View variables
cat template.json | jq '.variables'

Extract:

  • Resource types and names
  • Parameters and their default values
  • Variables and expressions
  • Dependencies (dependsOn arrays)
  • Nested templates or linked templates
  • Copy loops (iteration constructs)
  • Conditional deployments (condition property)

Documentation: ARM Template Structure

1.3 Build Resource Inventory (if importing existing resources)

If the ARM template has already been deployed and you're importing existing resources:

# List all resources in a resource group
az resource list \
  --resource-group <resource-group-name> \
  --output json

# Get specific resource details
az resource show \
  --ids <resource-id> \
  --output json

# Query specific properties using JMESPath
az resource show \
  --ids <resource-id> \
  --query "{name:name, location:location, properties:properties}" \
  --output json

Documentation: Azure CLI Documentation

2. CODE CONVERSION (ARM → PULUMI)

IMPORTANT: ARM to Pulumi conversion requires manual translation. There is NO automated conversion tool for ARM templates. You are responsible for the complete conversion.

Key Conversion Principles

  1. Provider Strategy:

    • Default: Use @pulumi/azure-native for full Azure Resource Manager API coverage
    • Fallback: Use @pulumi/azure (classic provider) when azure-native doesn't support specific features or when you need simplified abstractions

    Documentation:

  2. Language Support:

    • TypeScript/JavaScript: Most common, excellent IDE support
    • Python: Great for data teams and ML workflows
    • C#: Natural fit for .NET teams
    • Go: High performance, strong typing
    • Java: Enterprise Java teams
    • YAML: Simple declarative approach
    • Choose based on user preference or existing codebase
  3. Complete Coverage:

    • Convert ALL resources in the ARM template
    • Preserve all conditionals, loops, and dependencies
    • Maintain parameter and variable logic

ARM Template Conversion Patterns

Basic Resource Conversion

ARM Template:

{
  "type": "Microsoft.Storage/storageAccounts",
  "apiVersion": "2023-01-01",
  "name": "[parameters('storageAccountName')]",
  "location": "[parameters('location')]",
  "sku": {
    "name": "Standard_LRS"
  },
  "kind": "StorageV2",
  "properties": {
    "supportsHttpsTrafficOnly": true
  }
}

Pulumi TypeScript:

import * as pulumi from "@pulumi/pulumi";
import * as azure_native from "@pulumi/azure-native";

const config = new pulumi.Config();
const storageAccountName = config.require("storageAccountName");
const location = config.require("location");
const resourceGroupName = config.require("resourceGroupName");

const storageAccount = new azure_native.storage.StorageAccount("storageAccount", {
    accountName: storageAccountName,
    location: location,
    resourceGroupName: resourceGroupName,
    sku: {
        name: azure_native.storage.SkuName.Standard_LRS,
    },
    kind: azure_native.storage.Kind.StorageV2,
    enableHttpsTrafficOnly: true,
});
ARM Parameters → Pulumi Config

ARM Template:

{
  "parameters": {
    "location": {
      "type": "string",
      "defaultValue": "eastus",
      "metadata": {
        "description": "Location for resources"
      }
    },
    "instanceCount": {
      "type": "int",
      "defaultValue": 2,
      "minValue": 1,
      "maxValue": 10
    },
    "enableBackup": {
      "type": "bool",
      "defaultValue": true
    },
    "secretValue": {
      "type": "securestring"
    }
  }
}

Pulumi TypeScript:

const config = new pulumi.Config();
const location = config.get("location") || "eastus";
const instanceCount = config.getNumber("instanceCount") || 2;
const enableBackup = config.getBoolean("enableBackup") ?? true;
const secretValue = config.requireSecret("secretValue"); // Returns Output<string>
ARM Variables → Pulumi Variables

ARM Template:

{
  "variables": {
    "storageAccountName": "[concat('storage', uniqueString(resourceGroup().id))]",
    "webAppName": "[concat(parameters('prefix'), '-webapp')]"
  }
}

Pulumi TypeScript:

import * as pulumi from "@pulumi/pulumi";

const config = new pulumi.Config();
const prefix = config.require("prefix");
const resourceGroupId = config.require("resourceGroupId");

// Simple variable
const webAppName = `${prefix}-webapp`;

// For uniqueString equivalent, use stack name or generate hash
const storageAccountName = `storage${resourceGroupId}`.toLowerCase();
ARM Copy Loops → Pulumi Loops

ARM Template:

{
  "type": "Microsoft.Network/virtualNetworks/subnets",
  "apiVersion": "2023-05-01",
  "name": "[concat(variables('vnetName'), '/subnet-', copyIndex())]",
  "copy": {
    "name": "subnetCopy",
    "count": "[parameters('subnetCount')]"
  },
  "properties": {
    "addressPrefix": "[concat('10.0.', copyIndex(), '.0/24')]"
  }
}

Pulumi TypeScript:

const config = new pulumi.Config();
const subnetCount = config.getNumber("subnetCount") || 3;

const subnets: azure_native.network.Subnet[] = [];
for (let i = 0; i < subnetCount; i++) {
    subnets.push(new azure_native.network.Subnet(`subnet-${i}`, {
        subnetName: `subnet-${i}`,
        virtualNetworkName: vnet.name,
        resourceGroupName: resourceGroup.name,
        addressPrefix: `10.0.${i}.0/24`,
    }));
}
ARM Conditional Resources → Pulumi Conditionals

ARM Template:

{
  "type": "Microsoft.Network/publicIPAddresses",
  "apiVersion": "2023-05-01",
  "condition": "[parameters('createPublicIP')]",
  "name": "[variables('publicIPName')]",
  "location": "[parameters('location')]"
}

Pulumi TypeScript:

const config = new pulumi.Config();
const createPublicIP = config.getBoolean("createPublicIP") ?? false;

let publicIP: azure_native.network.PublicIPAddress | undefined;
if (createPublicIP) {
    publicIP = new azure_native.network.PublicIPAddress("publicIP", {
        publicIpAddressName: publicIPName,
        location: location,
        resourceGroupName: resourceGroup.name,
    });
}

// Handle optional references
const publicIPId = publicIP ? publicIP.id : pulumi.output(undefined);
ARM DependsOn → Pulumi Dependencies

ARM Template:

{
  "type": "Microsoft.Web/sites",
  "apiVersion": "2023-01-01",
  "name": "[variables('webAppName')]",
  "dependsOn": [
    "[resourceId('Microsoft.Web/serverfarms', variables('appServicePlanName'))]"
  ]
}

Pulumi TypeScript:

// Implicit dependency (preferred)
const webApp = new azure_native.web.WebApp("webApp", {
    name: webAppName,
    resourceGroupName: resourceGroup.name,
    serverFarmId: appServicePlan.id, // Implicit dependency through property reference
});

// Explicit dependency (when needed)
const webApp = new azure_native.web.WebApp("webApp", {
    name: webAppName,
    resourceGroupName: resourceGroup.name,
    serverFarmId: appServicePlan.id,
}, {
    dependsOn: [appServicePlan], // Explicit dependency
});
Nested Templates → Pulumi Component Resources

ARM Template:

{
  "type": "Microsoft.Resources/deployments",
  "apiVersion": "2021-04-01",
  "name": "nestedTemplate",
  "properties": {
    "mode": "Incremental",
    "template": {
      "resources": [...]
    }
  }
}

Pulumi Approach:

Instead of nested templates, use Pulumi ComponentResource to group related resources:

class NetworkComponent extends pulumi.ComponentResource {
    public readonly vnet: azure_native.network.VirtualNetwork;
    public readonly subnets: azure_native.network.Subnet[];

    constructor(name: string, args: NetworkComponentArgs, opts?: pulumi.ComponentResourceOptions) {
        super("custom:azure:NetworkComponent", name, {}, opts);

        const defaultOptions = { parent: this };

        this.vnet = new azure_native.network.VirtualNetwork(`${name}-vnet`, {
            virtualNetworkName: args.vnetName,
            resourceGroupName: args.resourceGroupName,
            location: args.location,
            addressSpace: {
                addressPrefixes: [args.addressPrefix],
            },
        }, defaultOptions);

        this.subnets = args.subnets.map((subnet, i) =>
            new azure_native.network.Subnet(`${name}-subnet-${i}`, {
                subnetName: subnet.name,
                virtualNetworkName: this.vnet.name,
                resourceGroupName: args.resourceGroupName,
                addressPrefix: subnet.addressPrefix,
            }, defaultOptions)
        );

        this.registerOutputs({
            vnetId: this.vnet.id,
            subnetIds: this.subnets.map(s => s.id),
        });
    }
}
ARM Outputs → Pulumi Exports

ARM Template:

{
  "outputs": {
    "storageAccountName": {
      "type": "string",
      "value": "[variables('storageAccountName')]"
    },
    "storageAccountId": {
      "type": "string",
      "value": "[resourceId('Microsoft.Storage/storageAccounts', variables('storageAccountName'))]"
    }
  }
}

Pulumi TypeScript:

export const storageAccountName = storageAccount.name;
export const storageAccountId = storageAccount.id;

Azure Classic Provider Examples

In some cases, you may need to use the Azure Classic provider (@pulumi/azure) instead of Azure Native. The Classic provider offers simplified abstractions and may be easier to work with for certain resources.

Virtual Network with Classic Provider

ARM Template:

{
  "type": "Microsoft.Network/virtualNetworks",
  "apiVersion": "2023-05-01",
  "name": "[parameters('vnetName')]",
  "location": "[parameters('location')]",
  "properties": {
    "addressSpace": {
      "addressPrefixes": [
        "10.0.0.0/16"
      ]
    },
    "subnets": [
      {
        "name": "default",
        "properties": {
          "addressPrefix": "10.0.1.0/24"
        }
      },
      {
        "name": "apps",
        "properties": {
          "addressPrefix": "10.0.2.0/24"
        }
      }
    ]
  }
}

Pulumi TypeScript (Classic Provider):

import * as pulumi from "@pulumi/pulumi";
import * as azure from "@pulumi/azure";

const config = new pulumi.Config();
const vnetName = config.require("vnetName");
const location = config.require("location");
const resourceGroupName = config.require("resourceGroupName");

const vnet = new azure.network.VirtualNetwork("vnet", {
    name: vnetName,
    location: location,
    resourceGroupName: resourceGroupName,
    addressSpaces: ["10.0.0.0/16"],
    subnets: [
        {
            name: "default",
            addressPrefix: "10.0.1.0/24",
        },
        {
            name: "apps",
            addressPrefix: "10.0.2.0/24",
        },
    ],
});

Note: The Classic provider allows defining subnets inline within the VirtualNetwork resource, which can be simpler than managing them as separate resources.

App Service Plan and Web App with Classic Provider

ARM Template:

{
  "resources": [
    {
      "type": "Microsoft.Web/serverfarms",
      "apiVersion": "2023-01-01",
      "name": "[parameters('appServicePlanName')]",
      "location": "[parameters('location')]",
      "sku": {
        "name": "B1",
        "tier": "Basic",
        "size": "B1",
        "capacity": 1
      },
      "kind": "linux",
      "properties": {
        "reserved": true
      }
    },
    {
      "type": "Microsoft.Web/sites",
      "apiVersion": "2023-01-01",
      "name": "[parameters('webAppName')]",
      "location": "[parameters('location')]",
      "dependsOn": [
        "[resourceId('Microsoft.Web/serverfarms', parameters('appServicePlanName'))]"
      ],
      "properties": {
        "serverFarmId": "[resourceId('Microsoft.Web/serverfarms', parameters('appServicePlanName'))]",
        "siteConfig": {
          "linuxFxVersion": "NODE|18-lts",
          "appSettings": [
            {
              "name": "WEBSITE_NODE_DEFAULT_VERSION",
              "value": "~18"
            }
          ]
        }
      }
    }
  ]
}

Pulumi TypeScript (Classic Provider):

import * as pulumi from "@pulumi/pulumi";
import * as azure from "@pulumi/azure";

const config = new pulumi.Config();
const appServicePlanName = config.require("appServicePlanName");
const webAppName = config.require("webAppName");
const location = config.require("location");
const resourceGroupName = config.require("resourceGroupName");

const appServicePlan = new azure.appservice.ServicePlan("appServicePlan", {
    name: appServicePlanName,
    location: location,
    resourceGroupName: resourceGroupName,
    osType: "Linux",
    skuName: "B1",
});

const webApp = new azure.appservice.LinuxWebApp("webApp", {
    name: webAppName,
    location: location,
    resourceGroupName: resourceGroupName,
    servicePlanId: appServicePlan.id,
    siteConfig: {
        applicationStack: {
            nodeVersion: "18-lts",
        },
    },
    appSettings: {
        "WEBSITE_NODE_DEFAULT_VERSION": "~18",
    },
});

Note: The Classic provider has dedicated resources like LinuxWebApp and WindowsWebApp that provide better type safety and clearer configuration options compared to the generic WebApp resource.

Handling Azure-Specific Considerations

TypeScript Output Handling

Azure Native outputs often include undefined. Avoid ! non-null assertions. Always safely unwrap with .apply():

// ❌ WRONG - Will cause TypeScript errors
const webAppUrl = `https://${webApp.defaultHostName!}`;

// ✅ CORRECT - Handle undefined safely
const webAppUrl = webApp.defaultHostName.apply(hostname =>
    hostname ? `https://${hostname}` : ""
);
Resource Naming Conventions

ARM template name property maps to specific naming fields in Pulumi:

// ARM: "name": "myStorageAccount"
// Pulumi:
new azure_native.storage.StorageAccount("logicalName", {
    accountName: "mystorageaccount", // Actual Azure resource name
    // ...
});
API Versions

ARM templates require explicit API versions. Pulumi providers use recent stable API versions by default:

// ARM: "apiVersion": "2023-01-01"
// Pulumi: API version is embedded in the provider

Check the Pulumi Registry documentation for which API version each resource uses.

Common Pitfalls to Avoid

  • ❌ Not handling Output types properly (missing .apply() in TypeScript)
  • ❌ Assuming ARM property names match Pulumi property names exactly
  • ❌ Using azure provider when azure-native is available
  • ❌ Missing resource dependencies in conversion
  • ❌ Not preserving ARM template conditionals and loops
  • ❌ Forgetting to convert ARM functions like concat(), uniqueString(), etc.

3. RESOURCE IMPORT (EXISTING RESOURCES) - OPTIONAL

After conversion, you can optionally import existing resources to be managed by Pulumi. If the user does not request this, suggest it as a follow-up step to conversion.

CRITICAL: When the user requests importing existing Azure resources into Pulumi, see arm-import.md for detailed import procedures and zero-diff validation workflows.

arm-import.md provides:

  • Inline import ID patterns and examples
  • Azure Resource ID format conventions
  • Child resource handling (e.g., WebAppApplicationSettings)
  • Preview Resolution Workflow for achieving zero-diff after import
  • Step-by-step debugging for property conflicts

Key Import Principles

  1. Inline Import Approach:

    • Use import resource option with Azure Resource IDs
    • No separate import tool (unlike pulumi-cdk-importer)
  2. Azure Resource IDs:

    • Follow predictable pattern: /subscriptions/{subscriptionId}/resourceGroups/{resourceGroupName}/providers/{resourceProviderNamespace}/{resourceType}/{resourceName}
    • Can be generated by convention or queried via Azure CLI
  3. Zero-Diff Validation:

    • Run pulumi preview after import
    • Resolve all diffs using Preview Resolution Workflow
    • Goal: NO updates, replaces, creates, or deletes

4. PULUMI CONFIGURATION

Set up stack configuration matching ARM template parameters:

# Set Azure region
pulumi config set azure-native:location eastus --stack dev

# Set application parameters
pulumi config set storageAccountName mystorageaccount --stack dev

# Set secret parameters
pulumi config set --secret adminPassword MyS3cr3tP@ssw0rd --stack dev

5. VALIDATION

After achieving zero diff in preview (if importing), validate the migration:

  1. Review all exports:

    pulumi stack output
    
  2. Verify resource relationships:

    pulumi stack graph
    
  3. Test application functionality (if applicable)

  4. Document any manual steps required post-migration

WORKING WITH THE USER

If the user asks for help planning or performing an ARM to Pulumi migration, use the information above to guide the user through the conversion and import process.

FOR DETAILED DOCUMENTATION

When the user wants additional information, use the web-fetch tool to get content from the official Pulumi documentation:

Microsoft Azure Documentation:

OUTPUT FORMAT (REQUIRED)

When performing a migration, always produce:

  1. Overview (high-level description)
  2. Migration Plan Summary
    • ARM template resources identified
    • Conversion strategy (language, providers)
    • Import approach (if applicable)
  3. Pulumi Code Outputs (organized by file)
    • Main program file
    • Component resources (if any)
    • Configuration instructions
  4. Resource Mapping Table (ARM → Pulumi)
    • ARM resource type → Pulumi resource type
    • ARM resource name → Pulumi logical name
    • Import ID (if importing)
  5. Preview Resolution Notes (if importing)
    • Diffs encountered
    • Resolution strategy applied
    • Properties ignored vs. added
  6. Final Migration Report (PR-ready)
    • Summary of changes
    • Testing instructions
    • Known limitations
    • Next steps
  7. Configuration Setup
    • Required config values
    • Example pulumi config set commands

Keep code syntactically valid and clearly separated by files.

レビュー

まだレビューはありません。使ってみた感想をお寄せください。

同じリポジトリのスキル

概要と使いどころ

Prepares Go applications to work effectively with AI coding agents. Use when setting up a new Go project or retrofitting an existing one to ensure: structured JSON logging (slog/Zap/ZeroLog/Logrus), machine-readable command output, thorough golangci-lint configuration, non-interactive CLI design with --yes flags, structured error handling with meaningful exit codes, proper context.Context propagation, graceful shutdown, health check endpoints, and a standardized Makefile. Triggers when a user asks to make their Go app "agent-ready," "AI-friendly," wants to improve agent tooling/observability in a Go project, or needs to audit an existing Go project against agent-readiness best practices.

日本語の概要は準備中です。原文の説明を表示しています。

dirien/yet-another-agent-harness202026年5月31日 更新

Use when creating or updating AGENTS.md files, .github/copilot-instructions.md, or other AI agent rule files, onboarding AI agents to a project, standardizing agent documentation, or when anyone mentions AGENTS.md, agent rules, project onboarding, or codebase documentation for AI agents.

日本語の概要は準備中です。原文の説明を表示しています。

dirien/yet-another-agent-harness202026年5月31日 更新

Use when designing new high-level system architecture, reviewing existing designs, or making architectural decisions. Invoke to create architecture diagrams, write Architecture Decision Records (ADRs), evaluate technology trade-offs, design component interactions, and plan for scalability. Use for system design, architecture review, microservices structuring, ADR authoring, scalability planning, and infrastructure pattern selection — distinct from code-level design patterns or database-only design tasks.

日本語の概要は準備中です。原文の説明を表示しています。

dirien/yet-another-agent-harness202026年5月31日 更新

Use when building CLI tools, implementing argument parsing, or adding interactive prompts. Invoke for parsing flags and subcommands, displaying progress bars and spinners, generating bash/zsh/fish completion scripts, CLI design, shell completions, and cross-platform terminal applications using commander, click, typer, or cobra.

日本語の概要は準備中です。原文の説明を表示しています。

dirien/yet-another-agent-harness202026年5月31日 更新

Convert an AWS CloudFormation stack or template to Pulumi. This skill MUST be loaded whenever a user requests migration or conversion of CloudFormation to Pulumi.

日本語の概要は準備中です。原文の説明を表示しています。

dirien/yet-another-agent-harness202026年5月31日 更新

Analyzes code diffs and files to identify bugs, security vulnerabilities (SQL injection, XSS, insecure deserialization), code smells, N+1 queries, naming issues, and architectural concerns, then produces a structured review report with prioritized, actionable feedback. Use when reviewing pull requests, conducting code quality audits, identifying refactoring opportunities, or checking for security issues. Invoke for PR reviews, code quality checks, refactoring suggestions, review code, code quality. Complements specialized skills (security-reviewer, test-master) by providing broad-scope review across correctness, performance, maintainability, and test coverage in a single pass.

日本語の概要は準備中です。原文の説明を表示しています。

dirien/yet-another-agent-harness202026年5月31日 更新

dirien のスキルをすべて見る

このスキルの問題を報告する