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/rag-pipeline

Build a RAG (retrieval-augmented generation) pipeline or a custom search engine on top of Bright Data's Discover API — using intent-ranked web results + parsed page content as the retrieval/ingestion layer for an LLM or vector store. Use when the user wants to "build a RAG

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brightdata-plugin
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Install
$ npx -y skills add brightdata/skills --skill rag-pipeline --agent claude-code

How it fires

How this skill gets triggered: by you, by Claude, or both.

  • Fires itselfAuto-invocation. Claude auto-loads it when your prompt matches the work.Auto-invocation is when the right skill fires by itself at the right moment, driven by a FLOW.md router and a hook, instead of you invoking it by name. It is the difference between a skill being installed and a skill actually getting used.Read the full definition →
  • You can call itInvoke it directly when you want it.
  • Slash command/rag-pipeline

Context preview

The summary Claude sees to decide when to auto-load this skill.

Build a RAG (retrieval-augmented generation) pipeline or a custom search engine on top of Bright Data's Discover API — using intent-ranked web results + parsed page content as the retrieval/ingestion layer for an LLM or vector store. Use when the user wants to "build a RAG

SKILL.md

rag-pipeline.SKILL.md
name: rag-pipeline
description: |
  Build a RAG (retrieval-augmented generation) pipeline or a custom search engine
  on top of Bright Data's Discover API — using intent-ranked web results + parsed
  page content as the retrieval/ingestion layer for an LLM or vector store. Use
  when the user wants to "build a RAG pipeline", "add web search to my LLM/agent",
  "ground my model in live web data", "build a search engine over the web",
  "ingest web content into a vector DB / knowledge base", or "give my chatbot
  retrieval". Covers both live retrieval (Discover at query time as a web-grounded
  retriever) and ingestion (Discover → chunk → embed → vector store → retrieve).
  Built on the `discover-api` skill. For a one-off written report use
  `live-research`; for raw markdown of specific known URLs use `scrape`.
metadata:
  author: Bright Data
  version: "1.0"

Bright Data — RAG / Search-Engine Pipeline

Use Discover as the **retrieval layer** for an LLM app or a custom search engine. Discover already returns *intent-ranked, relevance-scored* results with parsed page `content`, so it does the "search + fetch + clean" stage of RAG for you. This is a *code/architecture* skill built on the **`discover-api`** skill — read that for API mechanics (trigger/poll, modes, params, limits).

Pick the right neighbor: a written brief → `live-research`; markdown of specific URLs you already have → `scrape`; structured platform records → `data-feeds`.

Two architectures — choose first

Does the corpus change every query, or is it a stable knowledge base?

  ├── Per-query, always-fresh ("ground each answer in live web data")
  │     → LIVE RETRIEVAL: Discover(include_content) at query time → top-k → LLM
  │       Pros: always current, no storage. Cons: per-query latency + cost.
  │
  └── Reused across many queries ("build a knowledge base / search engine")
        → INGESTION: Discover(include_content) → chunk → embed → vector store
          then at query time: embed query → vector search → (rerank) → LLM
          Pros: fast queries, cacheable. Cons: can go stale (re-ingest on a schedule).

Many systems do both: an ingested base for breadth + a live Discover call for freshness, merged before the LLM.

Live retrieval (web-grounded answers)

Pattern: on each user question, run Discover with a sharp `intent`, take the top-k by `relevance_score`, and pass their `content` as context to the LLM. The LLM cites the `link`s.

import { bdclient } from '@brightdata/sdk';
const client = new bdclient(); // BRIGHTDATA_API_TOKEN

async function retrieve(question, k = 6) {
  const res = await client.discover(question, {
    intent: `authoritative sources that directly answer: ${question}`,
    includeContent: true,
    numResults: Math.min(k * 2, 20),  // over-fetch, then trim
  });
  // NOTE: the JS SDK returns a WRAPPER object, not a bare array:
  //   { success, data: [ {link,title,description,relevance_score,content?} ], totalResults, cost, taskId, ... }
  // The result rows are in `.data` (CLI/REST use `.results` instead — see discover-api).
  if (!res.success) throw new Error(`discover failed: ${res.error ?? 'unknown'}`);
  return (res.data ?? [])
    .filter(r => r.content && !/just a moment|captcha|access denied|not found/i.test(r.content) && r.content.length > 200)
    .sort((a, b) => b.relevance_score - a.relevance_score)
    .slice(0, k);
}
// → build a prompt from sources[].content, ask the LLM to answer WITH [n] citations to sources[].link

Full prompt-assembly + citation pattern: [`references/code.md`](references/code.md).

Ingestion (build a vector knowledge base / search engine)

Pattern: discover broadly (high volume — `zeroRanking` via REST is ideal here), chunk each page's `content`, embed the chunks, upsert into a vector store with the source URL as metadata. At query time: embed the query, vector-search, optionally rerank, then feed to the LLM.

Stages: **discover → dedup → chunk → embed → upsert** (ingest), then **embed query → search → rerank → generate** (serve). Provider-agnostic code for both stages, including chunking and metadata, is in [`references/code.md`](references/code.md).

For bulk corpus building, prefer the raw REST `"mode":"zeroRanking"` flow (max raw results, no ranking) from the `discover-api` skill — but note it ignores `num_results` and **does not support `include_content`**, so you fetch content separately (Discover `standard`/`deep` with content, or the `scrape` skill).

Design rules

  • **Store provenance.** Every chunk keeps its source `link` (and ideally title +

`relevance_score`). RAG without citations is unverifiable.

  • **Chunk for the model, not the page.** ~500–1500 tokens with overlap; split on

headings/paragraphs, not mid-sentence.

  • **Validate `content` before embedding.** Skip block pages and empty bodies

(oversized PDFs return null content). Embedding garbage poisons retrieval.

  • **Over-fetch then trim by `relevance_score`.** Discover's score is a strong prior

for top-k selection before (or instead of) a reranker.

  • **Re-ingest on a schedule** if freshness matters — web content drifts. The

ingested base goes stale; live retrieval doesn't.

  • **Cap and dedup.** `num_results` ≤ 20 per call; dedup by normalized URL across

calls so one article via three aggregators isn't triple-weighted.

  • **Keep the embedder/vector store pluggable.** Discover is the retrieval source;

the embedding model and vector DB are your choice — don't hardwire one.

Verification gate

1. **Retrieval returns non-empty, on-topic chunks** for a known test query (eyeball top-k links). 2. **No block-page / empty `content`** made it into the index — spot-check stored chunks. 3. **Citations resolve** — every `[n]` the LLM emits maps to a real source `link` in the retrieved set. 4. **Freshness is honored** — if the app promises current data, confirm live retrieval (or a recent re-ingest), not a stale index. 5. **Grounding check** — answers

Read more

Other skills on brightdata-plugin.