Apify Integration Development
ApifyOfficialPublished by Apify
- Skill
- Tool integration
- Automation and integrations
- Apache-2.0
- Low risk
AutoGineer summary
Written by AutoGineer from the skill’s own files, not by the author
This skill provides a structured approach for developers to build official Apify integrations across various platforms, including workflow automation tools, AI agent plugins, and framework packages. It outlines the Apify model, cross-cutting design rules such as asynchronous run flows, cost control mechanisms, and authentication standards. The skill emphasizes using the Apify MCP server for research and provides specific reference paths for different integration shapes to ensure consistency and correct API usage.
What it does
- Defines the Apify domain model including Actors, Runs, Datasets, and Key-Value stores.
- Provides design rules for asynchronous run flows and bounded polling.
- Establishes standards for cost control, attribution headers, and error handling.
- Offers guidance on choosing an integration shape based on the target platform.
- Details the implementation of high-level convenience operations like Web Fetch.
- Provides a definition-of-done checklist for integration validation.
When to use it
- When planning or building an official integration for a workflow automation app like Zapier or n8n.
- When developing an AI agent plugin or harness that requires access to Apify Actors.
- When creating a client-side package for AI frameworks like LangChain or LlamaIndex.
- When building a direct application client that interacts with the Apify REST API.
Advantages
- Ensures consistent integration behavior across different platforms.
- Provides clear architectural patterns for client-side and agent-based integrations.
- Includes specific guidance on cost management and error taxonomy.
- Facilitates easier review and validation by the Apify team.
Usage examples
- “How do I structure an integration for an AI agent harness?”
- The skill directs you to the ai-harness-plugin.md reference to choose between a coding agent plugin (MCP-based) or a custom tool registry plugin.
- “What are the requirements for polling an Actor run?”
- The skill mandates bounded polling using the run's timeout settings and forbids infinite while-true loops.
- “How should I handle cost controls in my integration?”
- The skill requires exposing maxTotalChargeUsd and maxItems as query parameters rather than embedding them in the Actor input.
Install
Download the skill as a ZIP:
https://mp-staging.autogineer.com/agent-skills/apify/apify-integration-development/downloadUnzip it into the cross-client skills folder of your project:
mkdir -p .agents/skills && unzip apify-integration-development.zip -d .agents/skills
Documentation by Apify
Apify Integration Development
Design and build an official Apify integration for a company's product, with minimal help from Apify. This skill covers every integration shape Apify supports - workflow-automation apps, AI agent plugins (coding agents and harnesses), AI framework packages, and direct application clients - so a partner team can ship a first-class Apify integration end to end. The cross-cutting rules below apply to all of them, and one category-specific reference file carries the rest.
Building an official integration? Once you publish it, contact [email protected] so the Apify team can review, test, and validate your integration before it reaches users. We'll check the capability surface, cost controls, error handling, and attribution headers, and help you close any gaps.
Step 0 - Learn the Apify model first (required)
Before designing anything, fetch and read https://apify.com/agents.md. It is the canonical quickstart for AI agents and the single source of truth for vocabulary, the run flow, and the cost rule. If the fetch fails, the mini-glossary below keeps the skill usable.
Apify vocabulary (always written with a capital A on the platform):
Actor - a serverless cloud program that takes JSON input, performs a task, and produces structured output. Not an AI agent.
Actor Run - one execution of an Actor. Each run has its own dataset, key-value store, and request queue, and ends in a terminal status (
SUCCEEDED,FAILED,TIMED-OUT,ABORTED).Dataset - append-only structured storage for a run's results. An Actor call returns the dataset ID, not its contents.
Key-Value Store - unstructured/file storage (screenshots, HTML, OUTPUT).
Actor Task - a saved, parameterized configuration for running an Actor.
Apify Store - the marketplace of Actors at
https://apify.com/store.md.Apify Console - the web UI at
https://console.apify.com.Compute Unit (CU) - billing unit: memory (MB) x duration (hours).
Server Actor - an Actor that runs as an always-ready HTTP server on its own stable URL (may be still called Standby in the API and docs). You send a request and get the result in the response - no run to start, no dataset to read.
Further terms (build, request queue, proxy, pricing models): https://docs.apify.com/llms.txt.
Use Apify MCP for live context while planning
The Apify MCP server is the fastest way to research Actors, schemas, pricing, and docs during integration design. See https://docs.apify.com/integrations/mcp (append .md for a markdown version).
If Apify MCP tools are already available in this environment, use them:
search-actors- find Actors by platform/product keyword (search by product name, not end goal).fetch-actor-details- read an Actor's input schema, output format, README, and pricing before you encode its shape into the integration.search-apify-docs/fetch-apify-docs- pull contextual documentation pages.
The anonymous discovery subset (search-actors, fetch-actor-details, search-apify-docs, fetch-apify-docs) works without an account, so you can research even before the developer has connected their token.
Pick your integration shape
Read exactly one reference file based on the product you are integrating into. Each reference carries the category-specific UX design, a canonical capability matrix, and a definition-of-done checklist.
| Product shape | Examples | Read |
|---|---|---|
| Workflow automation platform | Zapier, n8n, Make, Pipedream, Activepieces | references/workflow-automation.md |
| AI agent plugin (coding agent or harness) | Cursor, Claude Code, Codex, GitHub Copilot (coding agents); OpenClaw-style runtimes, Hermes-style harnesses (harnesses) | references/ai-harness-plugin.md |
| AI framework package (PyPI/npm for LLM frameworks) | LangChain, LlamaIndex, Haystack, Vercel AI SDK | references/ai-framework-package.md |
| Application integration (direct client) | A backend service, scheduled job, product feature calling Actors via apify-client or REST | references/sdk-integration.md |
Paths are relative to this skill folder. If your product spans two shapes (e.g. an AI harness built on top of a framework package), read both - the rules compose. The AI agent plugin reference covers two approaches with different trade-offs: a lightweight skills + MCP bundle for skills/MCP-aware coding agents, and a custom tool-registry plugin for OpenClaw/Hermes-style harnesses.
Cross-cutting design rules (true for every integration type)
These invariants were extracted from every existing Apify integration. Apply them regardless of shape.
Vocabulary mirroring
Model the integration's resources on Apify's domain (Actor / Run / Dataset / KV Store / Task). Users coming from Apify Console should find the same concepts under the same names.
Asynchronous run flow with bounded polling
Actors can run for seconds to hours. Use the asynchronous flow, never the 300-second synchronous endpoint for anything but short jobs:
POST /v2/actors/{actorId}/runs -> start, return runId
GET /v2/actor-runs/{runId} -> poll until terminal status
GET /v2/datasets/{datasetId}/items -> fetch results on SUCCEEDEDPolling must be bounded: use the run's own timeoutSecs plus a grace buffer, with an absolute ceiling fallback. Never while (true). On a non-terminal status, surface the run ID so the user/agent can poll again or inspect the failure.
Cost is first-class
Every path that starts a run must expose a cost control. The canonical control is maxTotalChargeUsd (caps the run's total charge on most pricing models) and maxItems (caps billed items on pay-per-result Actors). Send them as options / query parameters, never as Actor input - inside input they are either an Actor-declared field or simply invalid. 0 / empty / null means no limit. For LLM-facing integrations, the ceilings are developer-controlled; an LLM cannot widen them. A Server Actor request such as Web Fetch (below) starts no run and takes neither option.
Attribution headers
Stamp an integration header on every outbound request so Apify can attribute traffic: x-apify-integration-platform: <your-platform>. When a request is driven by an AI tool (not a human in a UI), also send x-apify-integration-ai-tool: true. If the integration was built using this skill, add x-apify-integration-origin: apify-integration-development-skill so Apify can distinguish skill-generated integrations from custom ones. One line, big telemetry payoff.
Authentication
Browser / consumer-facing (a human completes a sign-in): OAuth2 with PKCE. Do not ask for raw tokens.
Headless / server / CI (no human present): API token as
Authorization: Bearer <APIFY_TOKEN>, stored in an env var or secret manager, never hardcoded or logged.
Both paths are real - pick by who is present at auth time, not by which is easier.
Centralized HTTP layer
One base-URL constant, shared between credentials and the HTTP layer. A Server Actor lives on its own host (https://web-fetch.apify.actor) - route it through the same layer so auth and attribution headers still apply. Retries with exponential backoff on 429 and 5xx. Never retry non-idempotent POST /runs on network errors - a duplicate Actor run is a real, billed, side-effecting operation. This is the single most important correctness invariant in the HTTP layer.
Error taxonomy
Map Apify errors to the host platform's error categories (retryable vs auth vs permanent). Surface the API's actual error text, not a generic HTTP message. For permission-approval failures (a full-permission Actor needs explicit approval), include the approval URL after validating it is an absolute http(s) URL. For LLM consumers, return errors as data (JSON error objects), never as raised exceptions - the model needs something to read and reason about.
Webhooks over polling for run-finished events
When the host supports inbound webhooks, register an Apify webhook scoped to actorId or actorTaskId with the terminal statuses the user picked. Make registration idempotent (a re-activated workflow should not create duplicate webhooks), persist the webhook ID so deactivation can clean it up, and always provide sample/fallback data so users can test the trigger without waiting for a real run.
Generate from OpenAPI where the host allows it
If the host platform can generate UI fields from an OpenAPI spec, use Apify's spec (https://apify.com/openapi.json) and a tag allowlist. Hand-write only what the spec cannot express: convenience wrappers, bill-cap fields, lean AI-tool output contracts.
High-level convenience operations alongside generic runs
Generic "run Actor" serves power users. Add a few opinionated, high-level actions for the common case so non-power users get a 2-field form instead of a full Actor configuration. The canonical one is Web Fetch: one URL in, page content out, built on the apify/web-fetch Server Actor - POST https://web-fetch.apify.actor/ with {"url": "...", "formats": ["markdown"]} returns the content in the response. No run is started, so the run rules above (asynchronous flow, polling, maxTotalChargeUsd) do not apply; the cost is one fetch event per successful request. Three things to get right: always send formats, check fetch.httpStatusCode (HTTP 200 only means Web Fetch itself succeeded), and handle both error shapes - flat {code, error} from the Actor, nested {error: {message}} from the platform - without auto-retrying its 502/504. Full contract: https://apify.com/apify/web-fetch.md. Do not build this on a crawler run with maxCrawlDepth: 0 - that is the legacy "Scrape single URL" pattern.
Testing and release
Keep two test modes: mocked (hermetic, no credentials) and live E2E (real API, CI-gated). Automate releases through the host platform's CI on Git tags / GitHub Releases. Never hand-edit versions or changelogs if a release workflow manages them.
Top anti-patterns to refuse on review
Retrying
POST /runson a network error - duplicates a billed run.Unbounded
while (true)polling - ties up the host with no ceiling.Putting
maxTotalChargeUsd/maxItemsinside Actor input instead of options - silently not a cap.Dumping a full dataset into an LLM context without size caps or untrusted-content fencing - prompt-injection and context blowout.
One monolithic tool list for an LLM agent - routing accuracy degrades past ~8 tools; curate subsets.
Surfacing a raw HTTP status/message instead of Apify's actual error text - users can't act on "400".
Minimal API surface every integration needs
| Purpose | Method + path |
|---|---|
| Start an Actor run | POST /v2/actors/{actorId}/runs |
| Start a Task run | POST /v2/actor-tasks/{taskId}/runs |
| Poll a run | GET /v2/actor-runs/{runId} |
| List runs | GET /v2/actor-runs |
| Dataset items | GET /v2/datasets/{datasetId}/items |
| KV record | GET /v2/key-value-stores/{storeId}/records/{key} |
| Set KV record | PUT /v2/key-value-stores/{storeId}/records/{key} |
| Store search | GET /v2/store |
| Webhook CRUD | POST/GET/DELETE /v2/webhooks |
| Validate token / current user | GET /v2/users/me |
| Fetch one URL (Web Fetch, Server Actor) | POST https://web-fetch.apify.actor/ |
REST reference: https://docs.apify.com/api/v2. OpenAPI spec: https://apify.com/openapi.json.
Working workflow
Fetch
https://apify.com/agents.mdand internalize the model.Pick the integration shape above and read the matching reference file.
Use Apify MCP (if available) to research the concrete Actors, schemas, and pricing the integration will expose.
Draft the capability matrix for the chosen category (each reference has one) and the UX spec (resource -> operation -> fields -> errors).
Scaffold the integration following the category-specific rules in the reference.
Verify against the definition-of-done checklist at the end of that reference.
Reference implementations to study
Real, public integrations per category - read their source when in doubt:
Workflow automation:
@apify/n8n-nodes-apify(npm), the Apify Zapier app.AI agent plugins (coding agents): the Apify plugin bundle (MCP server + skills + router + slash commands) shipped for Cursor, Claude Code, Copilot, and similar tools.
AI agent plugins (harnesses):
apify-hermes-agent-plugin(PyPI),@apify/apify-openclaw-plugin.AI framework packages:
langchain-apify(PyPI).Application integration: see
references/sdk-integration.mdfor the canonicalapify-clientusage in JS/TS, Python, and over REST.
Support for integration questions: [email protected]. Contact us both for design guidance while you build and for review/testing once you publish - we validate the capability surface, cost controls, error handling, and attribution before the integration reaches users.
Files
- ATTRIBUTION.mdAdded by AutoGineer981 B
- LICENSEAdded by AutoGineer10.0 KiB
- SKILL.md13.3 KiB
- references/ai-framework-package.md13.6 KiB
- references/ai-harness-plugin.md17.8 KiB
- references/sdk-integration.md8.6 KiB
- references/workflow-automation.md13.3 KiB
references/workflow-automation.md
Workflow automation integrations
Design guide for integrating Apify into a workflow-automation platform (Zapier, n8n, Make, Pipedream, Activepieces, or a similar trigger/action/search host). This file is UX-design focused and platform-agnostic: it describes the capability surface, the resource model, and the user-facing behavior, not the host platform's internal build mechanics, release pipeline, or secrets. Apply the cross-cutting rules from SKILL.md on top.
The host platform's model is rigid: every Apify capability must be expressed as one of trigger, action (create), or search (read). Decide the mapping before writing any code.
1. Map Apify to the host's trigger / action / search model
| Host type | Apify capability | Purpose |
|---|---|---|
| Trigger (hook) | Actor / Task run finished | Event-driven: start a workflow when a run reaches a terminal status |
| Trigger (hidden, polling) | List Actors / Tasks | Back dynamic dropdowns - not user-facing steps |
| Action (create) | Run Actor; Run Task; Run Actor + get dataset; Run Task + get dataset; Web Fetch; Set KV record | Synchronous operations that produce or store data |
| Search (read) | Get last run; Get run; List runs; Get dataset items; Get KV record | Find existing records, optionally branch on them |
Reads of the last run or stored data are searches, because that is the host's mechanism for "find an existing record." Run-finished is a webhook trigger. Actor/Task selection is a hidden trigger that feeds dropdowns - reusing one hidden trigger across multiple actions keeps the surface DRY.
2. Canonical capability matrix
The complete set of operations a workflow integration should surface. Treat this as the floor, not a menu to trim without reason.
Triggers
Actor run finished (webhook; user picks terminal statuses: SUCCEEDED / FAILED / TIMED-OUT / ABORTED)
Task run finished (same shape, scoped to a Task)
Actions (creates)
Run Actor - fire an Actor run
Run Actor and get dataset items - fire and return results inline
Run Task - fire a saved Task configuration
Run Task and get dataset items - fire and return results inline
Web Fetch - curated URL-in, content-out action over the Web Fetch Server Actor (see section 13)
Set key-value store record - write a file/string to a KV store
Searches (reads)
Get last Actor/Task run - the most recent matching run
Get run - by run ID
List runs - filterable by status
Get dataset items - by dataset ID, with offset/limit and optional fields/omit
Get key-value store record - by store ID + record key
Hidden selectors (back dropdowns, not user steps)
List Actors (recently used source + Store source)
List Tasks
If the host platform cannot represent every operation, prioritize in this order: run-finished trigger, run Actor + get dataset, get dataset items, Web Fetch, run Task + get dataset, get KV record, set KV record.
3. Resource -> operation organization
Organize the action node's surface as resource -> operation, mirroring both the host platform's UX convention and Apify's domain model. A two-level router (resource, then operation) keeps adding an operation a copy-and-adapt task and co-locates each operation's parameters and I/O. Users navigate Actor -> "Run actor", Dataset -> "Get items", etc. Avoid a flat list of dozens of operations.
4. Actor / Task selection UX
IDs (Actor, Task, run, dataset, KV store, record key) should use the host's resource-locator property type with multiple modes: From list, By URL, By ID. Extract the ID from a pasted Console URL (e.g. https://console.apify.com/actors/<id>/input -> <id>).
Offer two selection sources in one selector:
Recently used (default) - the user's own Actors/Tasks, sorted by last run started. This is what most users want.
Store - browse the public marketplace by search term, sorted by popularity.
A toggle with "recompute fields when changed" lets users switch the dropdown source without leaving the node. Choose a pagination limit that balances completeness against load time (the host UI must support searching within dropdown results).
5. Dynamic input translation
The highest-leverage UX piece. When a user selects an Actor, fetch the Actor's build and translate its inputSchema into the host platform's form fields dynamically. Hardcoding fields per Actor is unmaintainable across thousands of Actors; a translator supports any Actor's input as a host form.
Handle the type/editor mappings that have no direct host equivalent, and degrade gracefully rather than crashing:
| Apify type/editor | Host field |
|---|---|
string + javascript/python editor | code field |
string + textarea | multiline text |
string + datepicker | datetime |
string + select / enum / enumSuggestedValues | choices dropdown |
isSecret: true | password |
array + json/keyValue editor | multiline text with a JSON.stringify default |
array + requestListSources/pseudoUrls/globs/stringList | flat string list (re-expand at run time) |
object + proxy editor | info box telling users to set it in Apify Console (host has no proxy UI) |
object + schemaBased | nested children fields |
sectionCaption | helpText/info box (host has no stackable sections) |
Two gotchas:
On list fields, a
defaultwould pre-populate a non-removable first item and duplicate entries - move prefill values toplaceholder.Mark the build selector so a build-tag change recomputes the generated fields, since input schemas can differ across builds.
6. Run UX: sync vs async, cost caps, bounded polling
Offer a sync/async toggle on run-start actions:
Sync: block until the run finishes (document the host's hard timeout so users know when to choose async).
Async: return immediately with the run ID for long-running jobs.
Use the asynchronous REST flow under the hood (POST /runs with waitForFinish=0, then poll). Polling must be bounded - use the run's own timeoutSecs + a grace buffer, with an absolute ceiling fallback (e.g. 24h). Poll at a fixed interval (e.g. 1s). "Run actor and get dataset" must additionally require status === 'SUCCEEDED' before fetching dataset items.
Every run-start action exposes a Maximum Cost per Run field (maxTotalChargeUsd), min: 0, default null. Send it as a query parameter only when non-null and > 0; 0/empty means no limit. Never let this be an Actor input field.
7. Output normalization into one enriched shape
Bare Actor run objects contain only storage IDs, not results - useless downstream. Enrich every run once, centrally, into a single shape returned by all run-producing and run-finding actions:
The run's
OUTPUTfrom the default key-value store (and any user-selected store keys).datasetItems- up to a sensible cap (e.g. 100 items) from the default dataset.datasetItemsFileUrls- pre-built download URLs for JSON/CSV/XML/XLSX/HTML/RSS exports.detailsPageUrl- a deep link to the run in Apify Console.Strip fields useless to host users (
meta,stats,options,userId, rawoutput,standby).
Downstream steps map fields by name regardless of which action produced the run, because every action yields the same shape. Describe this shape to the host UI with sampled output fields (sample ~10 items, merge their keys).
8. Guard against large datasets
Estimate the full download size before inlining: fetch one item, multiply by the requested item count with a safety margin (e.g. 1.2x), compare to a payload cap (e.g. 10 MB). If it exceeds the cap, do not attempt the inline download - return a warning item plus the dataset file URLs. When a trigger fetches more items than the cap allows, push a warning pointing users to the "Get Dataset Items" action with run.defaultDatasetId for full results. The host platform has payload/time limits the Apify API does not; always offer a file-download fallback.
9. Files and binary records
Map the host's file-handling primitives (dehydration / stashing / signed URLs) to Apify's binary KV records. For "Get KV record":
JSON/text under a size threshold (e.g. 20 MB) -> parsed and returned as fields the user can map directly.
Binary or larger records -> a dehydrated pointer the host lazily fetches when a downstream step needs it.
Records above a hard limit (e.g. 120 MB, with margin below the host's 150 MB ceiling) -> rejected outright with an actionable message.
10. Run-finished trigger UX
Use the host's hook type backed by Apify webhooks:
Subscribe: create an Apify webhook scoped to an
actorIdoractorTaskId, witheventTypesfrom the user-selected terminal statuses. The webhook'srequestUrlis the host's target URL. Make registration idempotent - derive a key from every field that distinguishes one registration from another (resource:id:sortedEvents:requestUrl) so re-activating a workflow does not create duplicate webhooks. Persist the created webhook ID so deactivation can delete it.Unsubscribe: delete the webhook by its stored ID.
Perform: read the webhook payload and enrich it (section 7).
Fallback list: fetch the 3 most recent matching runs so users see realistic test data when configuring the trigger without waiting for a real event.
Offer an event multi-select (SUCCEEDED / FAILED / TIMED-OUT / ABORTED) plus an "any" shortcut that expands to all four. Build the condition: { actorId } or { actorTaskId } from the watched resource. Pass the webhook payload through as workflow data - it already carries the run metadata.
11. Error UX
Centralize API error mapping in one place, not per action. Match each Apify error to the host's error category:
5xx and 429 -> retryable (so backoff applies).
token-not-found/ auth errors -> an authentication error the user must fix.full-permission-actor-not-approved-> a non-retryable error with the validated approval URL in the message (approval is a manual Console action; retrying cannot help).404 on KV record GET/HEAD -> return empty rather than throw (a missing key is a valid "no data" result).
Other 4xx -> a plain error with the API's actual message, or a generic fallback.
Use retryable errors only when retrying can actually succeed. Keep error codes (like EPERM) out of any message field the host replaces, so the real text survives.
12. Auth UX
For consumer-facing automation platforms, prefer OAuth2 with PKCE over an API-token field. Users authorize through a browser; no raw token typing. Disable auto-refresh only if the host cannot surface a refresh failure gracefully - otherwise leave it on. Validate the token with a GET /v2/users/me test call and populate the connection label with the username/email.
If the host is headless-only, fall back to an API-token credential with the same verify call on a "Verify" button.
13. Convenience operations: "Web Fetch"
Beyond generic "run Actor", ship a curated Web Fetch action on the Server Actor endpoint described in SKILL.md: a URL in, the page content out. It starts no run, so the run machinery in sections 6-8 (sync/async toggle, cost field, polling, enriched run shape) does not apply to it.
Fields:
url,formats(multi-select ofmarkdown,text,html,links,raw; default["markdown"]), and optionalheaderssent to the target site - leave them out of the body when empty. Do not exposeunwrap.Before the request: validate the URL (
new URL()+http(s)protocol + hostname) with an actionable error. Set the client timeout above 120 s, the Actor's budget for one fetch, or just under the host's step limit if that is shorter.Output: return the response as it is -
url,fetch,metadata, and one key per requested format, which can benullwhen that format cannot be produced.Errors: parse Web Fetch errors before the generic mapping in section 11. A 502 or 504 here describes the target site, not an Apify outage.
Migration: if the integration already ships a crawler-based "Scrape single URL" action, add Web Fetch under a new key and deprecate the old one. Never rename or remove the old key - existing workflows reference it.
Definition-of-done checklist
[ ] Capability matrix from section 2 is fully surfaced (or trimmed with documented reason).
[ ] Resource -> operation organization; no flat operation soup.
[ ] Actor/Task selection offers recently-used + Store sources with URL/ID extraction.
[ ] Actor input is translated dynamically from the build schema; degradation is graceful.
[ ] Run actions expose sync/async toggle and a
maxTotalChargeUsdfield (null = unlimited).[ ] Polling is bounded; never
while (true).[ ] All run-producing and run-finding actions return the one enriched run shape.
[ ] Large-dataset guard with file-URL fallback is in place.
[ ] Run-finished trigger is webhook-backed, idempotent, and has fallback sample data.
[ ] Error mapping is centralized; approval URLs are validated; codes don't clobber messages.
[ ] OAuth2 PKCE is the default consumer auth path; token fallback has a verify call.
[ ] A "Web Fetch" convenience action calls the Server Actor endpoint with explicit
formatsand pre-request URL validation; any legacy "Scrape single URL" action keeps its key.[ ]
x-apify-integration-platformheader is sent on every outbound request;x-apify-integration-origin: apify-integration-development-skillincluded if built from this skill.[ ] Two test modes (mocked + live E2E) pass.
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
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Attribution and licence
- Published by
- Apify
- Publisher
- Apify (Official)
- Source
- apify/agent-skills · skills/apify-integration-development · commit f22557f
- Licence
- Apache License 2.0 (redistribution allowed)
- LICENSE (written by AutoGineer)
- ATTRIBUTION.md (written by AutoGineer)
- Synced
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