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Pinecone

Pinecone Assistant: A Managed Knowledge Layer for Production AI Applications Multi-domain RAG in n8n: why one knowledge base is not enough Allspice Transforms the Culinary Experience with Semantic Search Powered by Pinecone | Pinecone Building RAG workflows in n8n: choosing the right Pinecone node Knowledge needs a meta-knowledge layer Garbage Day: How Pinecone Safely Deletes Billions of Objects at Scale When "Performance" Means Two Different Things Pinecone BYOC: Pinecone in your AWS, GCP, or Azure account, no vendor access True, Relevant, and Wrong: The Applicability Problem in RAG Use the Pinecone Plugin for Claude Code to develop AI Applications Faster Millions at Stake: How Melange's High-Recall Retrieval Prevents Litigation Collapse Powering High-stakes Patent Search at Scale: How Melange Built a Reliable AI System on Pinecone | Pinecone Pinecone Assistant Node in n8n: Turn Any Data Source Into Knowledge RAG with Access Control Pinecone Dedicated Read Nodes are now in Public Preview Inside Pinecone: Slab Architecture New Bulk Data Operations: Update, Delete, and Fetch by Metadata The Hidden Cost of Building: Lessons from Aquant Simplifying Vector Embeddings with Pinecone Integrated Inference Capabilities Pinecone joins Microsoft Marketplace as a Launch Partner GTM Engineering: Clay + Pinecone for AI-powered Sales Outbound Build an AI knowledge assistant with Google Docs and Pinecone Moving Pinecone forward with Ash Ashutosh as CEO and Edo spearheading our growing AI ambitions as Chief Scientist Pinecone Founder Edo Liberty to Spearhead Pinecone’s Growing AI Ambitions; Appoints Ash Ashutosh as CEO to Expand Vector Database Market Leadership Fast, Accurate Retrieval for Creators at Scale: Delphi’s Path Toward a Million Conversational Agents with Pinecone | Pinecone Announcing Pinecone Pioneers: A Program for Builders, Organizers, and Community Leaders What is Context Engineering? Chunking Strategies for LLM Applications Beyond the hype: Why RAG remains essential for modern AI Obviant Makes 30% More Accurate Defense Acquisition Recommendations Combining Sparse and Dense Retrieval with Pinecone | Pinecone
Full Text Search in Pinecone, Now in Public Preview
Lea Wang-Tomic, Harry Scholes · 2026-05-07 · via Pinecone

For the technical deep dive into how FTS is built, see Full Text Search: Architecture and Design


When semantic search hit production scale, the default move for retrieval was to embed text and search by meaning. As such, the surface area of what a query could match expanded: the same corpus, searched semantically, contained more retrievable signal than it had before.

But expanded coverage cuts both ways. The same property that lets a vague query find a relevant document also makes it harder to pin down an exact one. Precision for searching on specifics (i.e. a product SKU, a legal citation, a person's name, an error code) doesn't live in embedding space. So as retrieval systems matured, keyword matching came back into purview, not as a replacement for semantic search but as the natural complement.

Full text search is now available in Pinecone, in Public Preview. BM25 scoring across multiple text fields per index, Lucene query syntax, and multi-language tokenization are all built in.

One index, text and vectors together

A single index now holds text fields, dense vectors, sparse vectors, and filterable metadata, defined together in a schema set at index creation. Each text field takes a language setting that controls tokenization, stemming, and optional stop word removal. Stemming reduces words to their root form, so "running" and "runs" all match a query for "run." Eighteen languages are supported.

Multiple text fields can be configured per index, which removes the modeling workaround of routing every searchable string through a single field. Title, body, and tags can each be independent text fields, scored or filtered on their own terms.

Keyword search and vector search run in the same query against that schema. There is no separate keyword index to maintain, no results from two systems to reconcile.

# Query: keyword search across title/body using Lucene query syntax (BM25 ranking)
index = pc.preview.index(name="articles-multi")

response = index.documents.search(
    namespace="errors",
    score_by=[
        {
            "type": "query_string",
            "query": 'title:("error code 4092") OR body:("error code 4092")'
        }
    ],
    top_k=10,
    include_fields=["title", "body", "category"],
)

Text match: text fields as filters

Text match filters narrow the candidate set by keyword logic before vector ranking runs. Three modes are supported: exact phrase, all tokens present, any token present. The vector search then operates only over documents that already satisfy the keyword condition.

Consider a legal document retrieval system. A lawyer searching for precedents needs two things: the document must contain a specific clause or citation verbatim, and among those, the most semantically relevant to their argument should rank highest. A text match filter handles the first condition, dense ranking handles the second, in a single query.

This composes with metadata filters too. A single query can require an exact phrase in a text field, filter on a date range, and rank by vector similarity.

# Filter by exact phrase first, then rank remaining docs by dense similarity
index = pc.preview.index(name="articles-multi")
query_vector = [...]  # 1536-dim query embedding

response = index.documents.search(
    namespace="default",
    filter={
        "$and": [
            {"body": {"$match_phrase": "force majeure clause"}},
            {"category": {"$eq": "legal"}}
        ]
    },
    score_by=[
        {
            "type": "dense_vector",
            "field": "embedding",
            "values": query_vector,
        }
    ],
    top_k=5,
    include_fields=["title", "body"],
)

What's supported in Public Preview

Upsert, fetch, and delete are supported for documents. Within a single query, scoring operates on one type at a time: BM25, dense, or sparse. For workloads that need to combine scores across modalities, the queries can be issued separately and merged client-side. Schema is fixed at index creation, which means existing indexes cannot be converted to use full text search until mutable schema lands.

Get started

Full text search is available now on under API version . The documentation covers schema definition, query syntax, filter operators, and the Python SDK end to end. The Google Colab notebook has a runnable example using a Wikipedia dataset.

For a fuller walkthrough, this Bird Search demo combines full text search with multimodal vector search over ~2,079 North American bird Wikipedia articles, embedded with Gemini Embedding 2.