Infino vs Qdrant / Pinecone

Qdrant gives you direct control over a vector cluster or runs it in Qdrant Cloud. Pinecone provides managed vector indexes. Infino keeps embeddings in Parquet and runs BM25 and SQL over the same rows.

qdrant / pinecone vector index OBJECT STORAGE docs.sf.parquet
diff --stat qdrant pinecone infino

When the vector index is part of retrieval

Infino is an alternative when the vector index is one part of a broader retrieval workload and you want BM25, vectors, and SQL over the same rows.

  • Qdrant lets you place HNSW and vectors across RAM and disk on nodes you size.
  • Pinecone offers managed on-demand and dedicated indexes.
  • Infino pins HNSW when the working set fits in RAM, and uses OPANN + Sq16 when the vectors live on object storage.
  • BM25 and vectors are fused with RRF in one query, in one pass.
  • The file stays standard Parquet.
cat ARCHITECTURE.diff

Where the data lives

Qdrant and Pinecone maintain a vector index for serving. Infino stores the vector index with the Parquet rows it belongs to.

  • Qdrant’s index lives on nodes you provision or on Qdrant Cloud, with explicit controls for RAM, disk, and quantization.
  • Pinecone manages the index and serving layer. On-demand and dedicated read capacity are separate deployment choices.
  • Infino writes the codes into the same Parquet superfile as the columns and the BM25 index. The engine searches that file in place and caches hot slices locally.
QDRANT / PINECONE INFINO qdrant HNSW on servers you size pinecone managed index a separately managed vector index INFINO HNSW in RAM · OPANN on the files vector · BM25 · SQL your bucket embeddings inside the Parquet

architecture →

infino diff --features

Retrieval surface and controls

capability qdrant pinecone infino
vector search HNSW across RAM or disk managed ANN; on-demand or dedicated HNSW when pinned in RAM; OPANN + Sq16 on object storage
quantization selectable codecs and bit widths managed codec fp32 in; Sq16 internally
query parameters HNSW, exact, rescore, oversampling scoring controls; scan factor on dedicated automatic index and query tuning
text retrieval sparse vectors sparse vectors BM25 in the same file, same pass
hybrid ranking dense + sparse; RRF or DBSF dense + sparse RRF in one query, one pass
sql none none DataFusion; search as table functions
filters payload filters on the HNSW walk metadata filters on the hosted index scalar predicates pushed into the same pass
data format engine-private engine-private standard Parquet
where data lives RAM and disk on the nodes you size managed index storage object or block storage
runs as cluster or Qdrant Cloud managed service embedded library or managed service
license Apache-2.0 closed Apache-2.0 engine

elasticsearch / opensearch · qdrant / pinecone · postgres / clickhouse · snowflake / databricks · iceberg / hudi

infino bench --vector

Measured vector latency

These are Infino top-10 measurements over 10M Cohere vectors at 768 dimensions. Warm is steady state; cold is the first query against an idle table.

Workload Cohere, 768 dimensions, 10M docs, top-10
p50
5ms 314ms
p99
12ms 850ms
  • Warm
  • Cold

External benchmark reference for vector dbs: VDBBench leaderboard →

infino cost --compare vector

What the calculator prices

The calculator keeps Qdrant’s scalar-int8 vectors and HNSW in RAM, with fp32 originals on disk for rescoring, Qdrant’s documented path for large collections. Cloud packages start at 64 GB / 8 vCPU. Pinecone uses on-demand read units at smaller scale and Dedicated Read Nodes for sustained, high-throughput indexes. Infino meters the files in your bucket.

storage $0.30 per GB-month i Stored documents follow monthly writes, since a month of ingest has to land somewhere. Shorter retention lowers both. methodology →
10M docs · tracks writes 40 GB billed
$12
write tokens $0.15 per 1k WT i Write tokens measure ingest work. Batched writes assumed. methodology →
1M docs written · 0.38 WPS avg 0.051 WT each · 4 GB · 51K WT
$8
read tokens $0.05 per 1k RT i Read tokens measure query work. Pinned tables assumed at higher volumes. methodology →
1M queries · 0.38 QPS avg 1.00 RT each · 1M RT
$50
returned bytes $0.05 per GB returned
10 docs returned per query 10 GB returned
$1
infino $70/month account minimum
Qdrant $1,636

Qdrant Cloud · Standard

nodes3 × mx5 · 64 GB · $0.74688/hr$1,636
cluster metadataRaft quorum on the same nodes$0
Cloud control planeincluded$0
total$1,636
methodology →
23.3× more
Pinecone $669

Pinecone Serverless · Standard

storage40 GB × $0.33/GB-mo$13
read units1M queries × 40 RU × $16/M$640
write units1M docs × 4 KB × $4/M$16
control planeincluded$0
total$669
methodology →
9.5× more
Elasticsearch $788

Elastic Cloud Hosted · Platinum

data nodes2 nodes · 2 zones × 4 GB · $0.09/GB-hr$526
Kibana2 × 2 GB$263
master quorumdata nodes + included 1 GB tiebreaker$0
total$788
methodology →
11.2× more
OpenSearch $1,767

OpenSearch Service

data nodes3 × r6g.2xlarge.search · $0.669/hr$1,465
masters3 × m6g.large.search$280
EBS gp3174 GB$21
automated snapshotsincluded · 14-day retention$0
total$1,767
methodology →
25.2× more

Postgres omitted at this scale i One RDS node cannot satisfy the RAM, vCPU, or storage requirement. Standard PostgreSQL does not shard horizontally. methodology →

Pinecone omitted at this scale i No published Dedicated Read Nodes configuration covers this working set (largest published example is 1.4 billion vectors), and on-demand exceeds the 2,000 RU/s index limit. methodology →

Infino Cloud Pricing. methodology →

cat TRADEOFFS.md

Index and query controls

Qdrant exposes index internals. Pinecone exposes managed retrieval and scoring controls.

  • Qdrant exposes quantization codecs, memory tiers, hnsw_ef, exact search, rescoring, and oversampling.
  • Pinecone exposes dense and sparse scoring, hybrid weighting, and a scan factor on dedicated indexes while managing quantization internally.
  • Infino accepts fp32 vectors, uses Sq16 internally, and derives its index and query parameters from the data.
infino migrate --from qdrant

How migration works

Export the vectors and the metadata you filter on. Append them into Infino tables. Dual-run, then move reads.

  • Dump points from Qdrant or fetch from Pinecone with the metadata you need to filter.
  • Append into Infino over REST, Arrow or JSON. Indexing happens on write.
  • Point the same queries at vector_search or hybrid_search, compare, then cut over.

Talk through the migration →

cat FAQ.md

Qdrant and Pinecone questions

Does Infino replace Qdrant or Pinecone?

Yes. Infino provides vector search over Parquet and combines it with BM25, reciprocal-rank fusion, and SQL in the same engine. HNSW serves resident working sets; OPANN + Sq16 serves vectors from object storage.

How much does Infino reduce vector retrieval cost?

The result depends on vector count, dimensions, traffic, availability, and whether the vector store is an additional copy of data you already retain elsewhere. The calculator compares Qdrant Cloud, Pinecone, Elasticsearch, OpenSearch, and Infino using the assumptions on the methodology page.

Can I run SQL over the same vectors?

Yes. vector_search and hybrid_search are table-valued functions in DataFusion, so a ranked result can feed joins, aggregates, and windows. Qdrant and Pinecone expose retrieval APIs; SQL composition happens elsewhere in the application stack.

Why would I use Qdrant or Pinecone instead?

In addition to reducing cost, Infino automates several parameters to simplify vector scaling and optimization. If you need granular control over HNSW or IVF query parameters, compute placement, or scoring, and that control is worth the cost difference, Qdrant or Pinecone may be a better choice.

How do I migrate from Qdrant or Pinecone?

Export the vectors and filter metadata, append them into Infino tables over REST in Arrow or JSON, and dual-run representative traffic before routing reads differently. Migration rebuilds the index from those records because each engine uses its own storage format.