Best Embedding Models in 2026
We benchmarked the top embedding models on retrieval accuracy, latency, and dimensional efficiency using MTEB and custom evaluation sets. This guide covers text, image, and multimodal embedding options for production applications.
How We Evaluated
Retrieval Quality
NDCG@10 and recall scores on MTEB v1/v2 benchmark tasks and domain-specific evaluation sets.
Latency & Throughput
Embedding generation speed per document and batch throughput for large-scale indexing.
Dimensional Efficiency
Quality of embeddings relative to vector dimensionality, considering storage and search costs.
Multimodal Support
Ability to embed multiple data types (text, image, video, audio) into a shared vector space.
Overview
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Mixpeek
Multimodal AI platform offering configurable embedding models including E5, ArcFace, SigLIP, and Gemini multimodal embeddings. Manages the full pipeline from content to embeddings to indexed vectors with support for ColBERT and SPLADE hybrid retrieval.
Manages the full lifecycle from content ingestion through embedding generation to indexed vector search, eliminating the need to operate separate embedding and vector database infrastructure.
Strengths
- +Multiple embedding models configurable per pipeline
- +ColBERT, ColPaLI, and SPLADE for advanced hybrid retrieval
- +Unified embedding space across text, image, video, and audio
- +Handles embedding generation and indexing end-to-end
Limitations
- -Not a standalone embedding API for quick vector generation
- -Embedding model selection tied to pipeline configuration
- -Requires understanding of retrieval pipeline concepts
Real-World Use Cases
- •E-commerce platforms embedding product images, descriptions, and videos into a unified search index for cross-modal product discovery
- •Digital asset management systems indexing thousands of media files with automatic embedding generation and retrieval pipeline configuration
- •Content recommendation engines combining ColBERT late interaction with dense embeddings for high-precision multimodal matching
- •Enterprise search applications unifying documents, presentations, images, and video into a single searchable embedding space
Choose This When
When you need managed embedding generation across multiple modalities as part of a complete search pipeline, and want to avoid stitching together separate embedding APIs, vector databases, and retrieval logic.
Skip This If
When you only need a standalone embedding API for generating vectors without a full search pipeline, or when you want direct control over your vector database operations.
Integration Example
from mixpeek import Mixpeek
client = Mixpeek(api_key="YOUR_API_KEY")
# Embeddings are generated automatically as part of collection pipelines
collection = client.collections.create(
namespace="my-namespace",
collection_name="products",
feature_extractors=[{
"embedding_model": "gemini-embedding-001",
"input_types": ["text", "image"]
}]
)Google Gemini Embedding
Google's Gemini Embedding model leads the MTEB v2 English leaderboard with a score of 68.32. It's the first truly multimodal embedding model that puts text, images, video, audio, and PDFs into a shared 3072-dimensional vector space. Uses a task-type parameter to optimize embeddings for retrieval, classification, or clustering.
The first production-grade embedding model that natively handles text, images, video, audio, and PDFs in a single shared 3072-dimensional vector space with task-type optimization.
Strengths
- +Highest MTEB v2 English score among API models (68.32)
- +True multimodal: text, image, video, audio, and PDF in one space
- +Task-type parameter optimizes for retrieval vs classification
- +Competitive pricing and generous free tier
Limitations
- -Requires Google Cloud account for production usage
- -No self-hosted option — API only
- -Relatively new, smaller community than OpenAI embeddings
Real-World Use Cases
- •Video platforms embedding video frames, audio tracks, and metadata into a shared space for cross-modal search
- •Research repositories embedding PDFs, figures, and supplementary data for semantic paper discovery
- •Multimodal RAG systems where users query with text and retrieve matching images, documents, and video clips
- •Content moderation pipelines embedding diverse media types for similarity-based duplicate and near-duplicate detection
Choose This When
When you need to embed multiple content types into the same vector space for cross-modal retrieval, or when MTEB v2 benchmark performance matters and you want the top-scoring API model.
Skip This If
When you need self-hosted deployment for data sovereignty, or when your workload is text-only and a cheaper text-specific model would suffice.
Integration Example
import google.generativeai as genai
genai.configure(api_key="YOUR_API_KEY")
result = genai.embed_content(
model="models/gemini-embedding-exp-03-07",
content="Your text to embed",
task_type="RETRIEVAL_DOCUMENT"
)
print(f"Dimensions: {len(result['embedding'])}")
# 3072-dimensional vectorCohere embed-v4
Cohere's latest embedding model combines dense and sparse representations in a single API call, enabling hybrid search without managing two models. Supports 128K token context windows, 100+ languages, and binary quantization for 32x storage reduction with minimal quality loss.
Built-in hybrid retrieval with dense and sparse representations from a single model call, eliminating the operational complexity of maintaining separate dense and keyword search systems.
Strengths
- +Built-in hybrid search with dense + sparse in one model
- +128K token context window for long documents
- +Binary quantization reduces storage 32x with ~3% quality loss
- +Excellent multilingual support across 100+ languages
Limitations
- -API-only, no self-hosted option
- -Higher pricing than OpenAI for comparable volumes
- -Enterprise features gated behind sales conversations
Real-World Use Cases
- •Global SaaS platforms indexing customer support articles in 50+ languages with a single embedding model
- •Legal document retrieval systems processing 100-page contracts within the 128K token context window
- •Cost-sensitive deployments using binary quantization to reduce vector storage costs by 32x without reindexing
- •Enterprise search replacing separate BM25 and vector search infrastructure with a single hybrid embedding call
Choose This When
When you want hybrid search without managing two models, need multilingual support across 100+ languages, or want to use binary quantization for cost-efficient large-scale deployments.
Skip This If
When you need self-hosted deployment, when your budget is tight and OpenAI's cheaper pricing matters, or when you only need English embeddings and simpler options suffice.
Integration Example
import cohere
co = cohere.Client("YOUR_API_KEY")
response = co.embed(
texts=["Your document text here"],
model="embed-v4.0",
input_type="search_document",
embedding_types=["float", "binary"]
)
dense = response.embeddings.float[0]
binary = response.embeddings.binary[0]
print(f"Dense dims: {len(dense)}, Binary dims: {len(binary)}")Voyage AI voyage-3-large
Voyage AI consistently outperforms OpenAI's text-embedding-3-large by ~10% on retrieval benchmarks. Offers domain-specific models for code (voyage-code-3), legal, and financial content. Now part of Anthropic, with a strong focus on retrieval accuracy over broad generalization.
Domain-specific models for code, legal, and finance deliver meaningfully higher retrieval accuracy in specialized domains compared to general-purpose embedding APIs.
Strengths
- +Best-in-class retrieval accuracy among API embedding models
- +Domain-specific models for code, legal, and financial text
- +32K token context window
- +Very competitive pricing at $0.06/1M tokens
Limitations
- -Text-only, no multimodal embedding support
- -No self-hosted deployment option
- -Smaller ecosystem and fewer integrations than OpenAI
Real-World Use Cases
- •RAG-powered AI assistants where retrieval precision directly determines answer quality and hallucination rates
- •Code search and repository navigation using voyage-code-3 to find semantically similar functions and implementations
- •Legal tech platforms embedding case law and contracts with the domain-specific legal model for precedent retrieval
- •Financial research tools using the finance model to match analyst queries against earnings transcripts and SEC filings
Choose This When
When retrieval precision is your primary metric — especially in code search, legal, or financial domains — and you can accept text-only embeddings without multimodal support.
Skip This If
When you need multimodal embeddings (images, video, audio), when self-hosting is required, or when ecosystem breadth and integration count matters more than raw retrieval scores.
Integration Example
import voyageai
vo = voyageai.Client(api_key="YOUR_API_KEY")
result = vo.embed(
texts=["Your document text here"],
model="voyage-3-large",
input_type="document"
)
print(f"Dimensions: {len(result.embeddings[0])}")
# Use input_type="query" for search queriesOpenAI text-embedding-3
OpenAI's third-generation embedding models remain the most widely adopted embedding API. The large variant (3072 dims) uses Matryoshka representations, letting you truncate dimensions to trade quality for cost. Solid mid-pack MTEB v2 scores (~64.6) but unmatched ecosystem support.
Unmatched ecosystem support with first-class integrations in every major AI framework, plus Matryoshka dimension flexibility for cost-quality tradeoffs.
Strengths
- +Largest developer ecosystem and tooling support
- +Matryoshka dimensions — truncate from 3072 to 256 as needed
- +Simple, well-documented API with fast inference
- +Strong baseline quality for most text retrieval tasks
Limitations
- -No longer top-ranked on MTEB benchmarks
- -Text-only, no multimodal capabilities
- -No self-hosted option for data sovereignty
Real-World Use Cases
- •Startup MVPs and prototypes leveraging the most documented and widely integrated embedding API for fast time-to-market
- •LangChain and LlamaIndex pipelines where OpenAI embeddings are the default and switching costs outweigh marginal quality gains
- •Cost-optimized search using Matryoshka dimension truncation to reduce storage from 3072 to 256 dims for large indices
- •Multi-tenant SaaS platforms where ecosystem compatibility and library support matter more than benchmark rankings
Choose This When
When integration speed and ecosystem compatibility matter more than peak retrieval accuracy, or when you want the flexibility to truncate dimensions across different use cases.
Skip This If
When retrieval precision is critical and you cannot afford the 5-10% quality gap versus Voyage AI or Jina v5, or when you need multimodal or self-hosted embeddings.
Integration Example
from openai import OpenAI
client = OpenAI()
response = client.embeddings.create(
model="text-embedding-3-large",
input="Your text to embed",
dimensions=1024 # Matryoshka: truncate to save storage
)
embedding = response.data[0].embedding
print(f"Dimensions: {len(embedding)}")Jina AI jina-embeddings-v5
Jina's v5-text-small achieves an MTEB v2 score of 71.7 with only 677M parameters — the best quality-to-size ratio of any embedding model. Apache 2.0 licensed and practical to self-host on a single GPU. Also offers CLIP variants for text-image embeddings.
Achieves the best MTEB v2 score relative to model size, making it the most practical open-weight model for self-hosted production deployments on a single GPU.
Strengths
- +Best quality-to-size ratio (71.7 MTEB v2 at 677M params)
- +Apache 2.0 license — fully open for commercial self-hosting
- +Text-image multimodal via jina-clip-v2
- +Free API tier with 1M tokens/month
Limitations
- -Smaller community and fewer integrations than OpenAI
- -CLIP variants less mature than text-only models
- -Self-hosting still requires GPU infrastructure
Real-World Use Cases
- •Self-hosted RAG systems running on a single GPU with quality rivaling commercial API models at zero per-token cost
- •E-commerce search combining text and image embeddings via jina-clip-v2 for visual product discovery
- •Privacy-sensitive applications (healthcare, finance) requiring on-premises embedding generation with no external API calls
- •Research labs needing a high-quality open-weight baseline for embedding model benchmarking and fine-tuning experiments
Choose This When
When you want to self-host embeddings with commercial-grade quality and an Apache 2.0 license, or when you need text-image multimodal via CLIP variants.
Skip This If
When you need the broadest ecosystem integration (OpenAI wins), when you want a fully managed service without any infrastructure, or when your CLIP use case demands the maturity of Gemini multimodal.
Integration Example
import requests
response = requests.post(
"https://api.jina.ai/v1/embeddings",
headers={"Authorization": "Bearer YOUR_API_KEY"},
json={
"model": "jina-embeddings-v3",
"input": ["Your text to embed"],
"task": "retrieval.passage"
}
)
embedding = response.json()["data"][0]["embedding"]
print(f"Dimensions: {len(embedding)}")BAAI BGE-M3
BGE-M3 is unique in producing dense, sparse, and ColBERT representations simultaneously from a single model. This makes it the go-to open-source option for hybrid retrieval without running multiple models. Supports 100+ languages and 8192 token context.
The only model that produces dense, sparse, and ColBERT representations simultaneously, enabling three retrieval strategies from a single model forward pass.
Strengths
- +Dense + sparse + ColBERT in one model — native hybrid search
- +Strong multilingual support across 100+ languages
- +Open-source (MIT license) and self-hostable
- +8192 token context window
Limitations
- -Larger model footprint than single-representation alternatives
- -MTEB v2 score (~63.0) behind newer commercial models
- -No managed API — requires self-hosting infrastructure
Real-World Use Cases
- •Multilingual enterprise search combining dense semantic matching with sparse keyword matching in a single model forward pass
- •Academic search engines using ColBERT late interaction for fine-grained passage-level matching across research papers
- •Self-hosted hybrid retrieval systems that cannot justify running separate dense and BM25 indices for cost or complexity reasons
- •Multilingual RAG pipelines supporting 100+ languages without needing per-language model selection or routing
Choose This When
When you want hybrid retrieval (dense + sparse + ColBERT) without the operational complexity of running multiple models, especially in multilingual settings.
Skip This If
When you need the highest absolute retrieval quality (newer commercial models score higher on MTEB), when you want a managed API, or when the larger model footprint is a problem for your infrastructure.
Integration Example
from FlagEmbedding import BGEM3FlagModel
model = BGEM3FlagModel("BAAI/bge-m3", use_fp16=True)
output = model.encode(
["Your document text here"],
return_dense=True,
return_sparse=True,
return_colbert_vecs=True
)
print(f"Dense: {output['dense_vecs'].shape}")
print(f"Sparse keys: {len(output['lexical_weights'][0])}")
print(f"ColBERT: {output['colbert_vecs'][0].shape}")Alibaba Qwen3-Embedding
Qwen3-Embedding-8B holds the #1 spot on the MTEB multilingual leaderboard (score 70.58). An 8B parameter open-weight model with 32K context, it excels at non-English retrieval tasks and long-document embedding where smaller models degrade.
Top-ranked multilingual embedding model with 32K context, delivering the best non-English retrieval quality available in an open-weight package.
Strengths
- +#1 on MTEB multilingual leaderboard (70.58)
- +32K token context for long-document embedding
- +Open-weight with permissive license
- +Strong performance across 50+ languages
Limitations
- -8B parameters requires significant GPU resources to self-host
- -No managed API from Alibaba for Western markets
- -English-only performance behind Gemini and Voyage
Real-World Use Cases
- •Cross-lingual search systems where users query in one language and retrieve documents in another without translation
- •Long-document embedding for legal contracts, technical manuals, and books that exceed 8K token limits of smaller models
- •Multilingual knowledge bases serving users in Asian, European, and Middle Eastern languages from a single model
- •Government and international organization search systems requiring high-quality retrieval across 50+ official languages
Choose This When
When your retrieval workload is primarily multilingual or non-English, when you need to embed very long documents (up to 32K tokens), or when you have the GPU resources to host an 8B model.
Skip This If
When English-only performance is your primary metric (Gemini and Voyage score higher), when you lack GPU infrastructure for an 8B model, or when you need a managed API.
Integration Example
from transformers import AutoModel, AutoTokenizer
import torch
tokenizer = AutoTokenizer.from_pretrained("Qwen/Qwen3-Embedding-8B")
model = AutoModel.from_pretrained("Qwen/Qwen3-Embedding-8B",
torch_dtype=torch.float16)
inputs = tokenizer("Your text here", return_tensors="pt",
max_length=32768, truncation=True)
with torch.no_grad():
outputs = model(**inputs)
embedding = outputs.last_hidden_state.mean(dim=1)
print(f"Shape: {embedding.shape}")Nomic Embed v2
Nomic Embed is a fully open-source (Apache 2.0) embedding model with Matryoshka dimension support, letting you adjust from 768 down to 64 dimensions. At 137M parameters, it's small enough to run on CPU for low-volume workloads. Strong community adoption in the open-source RAG ecosystem.
The smallest high-quality embedding model at 137M parameters, enabling CPU-only deployments and edge use cases that are impractical with larger models.
Strengths
- +Tiny model (137M params) — runs on CPU for small workloads
- +Matryoshka dimensions for flexible quality/cost tradeoff
- +Fully open-source with Apache 2.0 license
- +Active integration with LangChain, LlamaIndex, and Ollama
Limitations
- -Lower absolute quality than larger models on MTEB
- -Text-only, no multimodal support
- -Not competitive with 1B+ models on complex retrieval tasks
Real-World Use Cases
- •Hobby RAG projects and personal knowledge bases running entirely on CPU without any API costs
- •Edge deployments and embedded devices where a 137M parameter model fits in limited memory
- •Prototyping and experimentation where fast iteration matters more than peak retrieval accuracy
- •Offline-capable applications generating embeddings locally without internet connectivity
Choose This When
When you need embeddings on CPU without GPU costs, for edge/offline deployments, or for rapid prototyping where embedding quality is good enough and operational simplicity is paramount.
Skip This If
When retrieval accuracy is critical (larger models score 10-15% higher on MTEB), when you need multimodal support, or when your workload involves complex multi-hop retrieval tasks.
Integration Example
from sentence_transformers import SentenceTransformer
model = SentenceTransformer(
"nomic-ai/nomic-embed-text-v2-moe",
trust_remote_code=True
)
embeddings = model.encode(
["search_document: Your text here"],
show_progress_bar=False
)
print(f"Shape: {embeddings.shape}")
# Truncate for cost savings: embeddings[:, :256]Snowflake Arctic Embed
Snowflake's Arctic Embed family is specifically optimized for retrieval rather than general-purpose embedding. The L variant (335M params) achieves strong retrieval scores while remaining efficient to host. Open-source and increasingly popular in enterprise RAG pipelines.
Purpose-built for retrieval with the best retrieval-accuracy-per-parameter ratio, and native Snowflake Cortex integration for teams already on the Snowflake platform.
Strengths
- +Optimized specifically for retrieval/RAG use cases
- +Efficient model sizes (S/M/L from 22M to 335M params)
- +Open-source with Apache 2.0 license
- +Strong retrieval benchmarks relative to model size
Limitations
- -Weaker on non-retrieval tasks like classification and clustering
- -No managed API — self-hosting required
- -Limited multilingual support compared to BGE-M3 or Cohere
Real-World Use Cases
- •Enterprise RAG systems on Snowflake Cortex embedding documents directly within the data warehouse for in-platform semantic search
- •Cost-optimized retrieval pipelines using the 22M param small variant for high-throughput, low-latency embedding at scale
- •Internal knowledge base search where retrieval accuracy per compute dollar is the primary optimization target
- •Snowflake-native AI applications leveraging tight integration with Snowpark and Cortex for end-to-end ML pipelines
Choose This When
When your workload is purely retrieval/RAG, when you want efficient self-hosted embeddings with a range of model sizes, or when you are building on Snowflake and want native Cortex integration.
Skip This If
When you need embeddings for non-retrieval tasks (classification, clustering, STS), when multilingual support is important, or when you want a managed API without self-hosting.
Integration Example
from sentence_transformers import SentenceTransformer
model = SentenceTransformer(
"Snowflake/snowflake-arctic-embed-l-v2.0"
)
queries = model.encode(
["search_query: What is vector search?"],
prompt_name="query"
)
docs = model.encode(["Vector search finds similar items..."])
similarity = queries @ docs.T
print(f"Similarity: {similarity[0][0]:.4f}")Mistral Embed
Mistral AI's embedding model offers 1024-dimensional vectors optimized for retrieval tasks. Integrated into the Mistral platform alongside their LLM offerings, it provides a convenient option for teams already using Mistral for generation. Supports English and European languages with competitive retrieval scores.
The natural embedding choice for teams already on the Mistral platform, offering a unified billing and API experience alongside Mistral's LLM models.
Strengths
- +Tight integration with Mistral LLM platform for unified AI stack
- +Compact 1024-dimensional vectors balancing quality and storage cost
- +Good European language support beyond English
- +Simple API consistent with Mistral's generation endpoints
Limitations
- -Retrieval quality below Voyage AI and Jina v5 on MTEB benchmarks
- -No multimodal support — text only
- -Fewer ecosystem integrations than OpenAI embeddings
- -No self-hosted option for the embedding model specifically
Real-World Use Cases
- •Mistral-powered RAG applications keeping embedding and generation on the same platform for simplified billing and ops
- •European-language search applications leveraging Mistral's strong French, German, Spanish, and Italian support
- •Enterprise environments preferring a European AI provider for data residency and regulatory alignment
Choose This When
When you are already using Mistral for generation and want to consolidate your AI stack under one vendor, or when European language support and data residency matter.
Skip This If
When retrieval accuracy is your top priority (Voyage and Jina score higher), when you need multimodal embeddings, or when you need extensive ecosystem integrations.
Integration Example
from mistralai import Mistral
client = Mistral(api_key="YOUR_API_KEY")
response = client.embeddings.create(
model="mistral-embed",
inputs=["Your document text here"]
)
embedding = response.data[0].embedding
print(f"Dimensions: {len(embedding)}") # 1024Amazon Titan Embeddings V2
AWS Bedrock's native embedding model supporting text with configurable output dimensions (256, 512, or 1024). Designed for tight integration with the Bedrock ecosystem including Knowledge Bases for RAG. No data leaves AWS infrastructure.
The only embedding model that runs natively within Bedrock with zero data egress, making it the default choice for AWS-native RAG architectures using Knowledge Bases.
Strengths
- +Native Bedrock integration with Knowledge Bases and agents
- +Configurable dimensions (256/512/1024) for cost-quality tradeoff
- +Data stays within AWS — no external API calls
- +Supports 25+ languages
Limitations
- -Lower MTEB scores than Voyage, Jina, and Cohere
- -Only available through Bedrock — no standalone API or self-hosting
- -Maximum 8192 tokens — shorter context than competitors
- -No multimodal support — text and image are separate models
Real-World Use Cases
- •Bedrock Knowledge Base RAG pipelines where embedding generation is automatically managed by the platform
- •Regulated industries requiring embeddings to be generated within AWS boundaries without external API calls
- •AWS-native applications using configurable dimensions to optimize storage costs across different retrieval tiers
Choose This When
When you are building RAG on Bedrock Knowledge Bases, when data sovereignty requires embeddings to stay within AWS, or when you want the simplest possible integration with the AWS AI stack.
Skip This If
When retrieval quality is paramount (third-party models score significantly higher), when you need multimodal embeddings, or when you are not committed to the AWS ecosystem.
Integration Example
import boto3, json
bedrock = boto3.client("bedrock-runtime")
response = bedrock.invoke_model(
modelId="amazon.titan-embed-text-v2:0",
body=json.dumps({
"inputText": "Your text to embed",
"dimensions": 1024,
"normalize": True
})
)
result = json.loads(response["body"].read())
print(f"Dimensions: {len(result['embedding'])}")Mixedbread mxbai-embed-large
German AI startup Mixedbread has produced surprisingly strong open-weight embedding models. Their mxbai-embed-large-v1 (335M params) achieves competitive MTEB scores with Matryoshka dimension support and binary quantization. Apache 2.0 licensed with a focus on efficient self-hosting.
Combines Matryoshka dimension support with binary quantization in a compact 335M model, enabling flexible quality-cost tradeoffs for self-hosted deployments.
Strengths
- +Strong MTEB scores for a 335M parameter model
- +Matryoshka dimensions and binary quantization support
- +Apache 2.0 license for commercial self-hosting
- +Active development with rapid model iteration
Limitations
- -Smaller community than Jina or Nomic
- -No managed API with production SLAs
- -Text-only, no multimodal variants
- -Less documentation and fewer tutorials than established alternatives
Real-World Use Cases
- •Self-hosted search systems needing Matryoshka dimension flexibility for different retrieval-accuracy tiers within the same index
- •Resource-constrained deployments using binary quantization to serve embeddings from CPU or minimal GPU
- •European-headquartered teams preferring an EU-based open-source model for GDPR compliance in self-hosted setups
Choose This When
When you want a self-hosted model with both Matryoshka dimensions and binary quantization for maximum deployment flexibility, especially in European-hosted infrastructure.
Skip This If
When you need a managed API with SLAs, when multimodal support is required, or when community size and ecosystem integrations are important decision factors.
Integration Example
from sentence_transformers import SentenceTransformer
model = SentenceTransformer("mixedbread-ai/mxbai-embed-large-v1")
docs = model.encode(
["Represent this document for retrieval: Your text here"]
)
# Matryoshka: truncate to desired dimensions
truncated = docs[:, :512]
print(f"Full: {docs.shape}, Truncated: {truncated.shape}")Together AI Embeddings
Together AI offers hosted inference for popular open-source embedding models including BGE, UAE, and M2-BERT at competitive API pricing. Rather than training their own model, they provide managed hosting for the best open-source options with OpenAI-compatible endpoints.
Managed hosting for top open-source embedding models with OpenAI-compatible endpoints, giving you the quality of open-source models without the infrastructure burden.
Strengths
- +Access to multiple top open-source models via one API
- +OpenAI-compatible API for easy migration
- +Competitive pricing for hosted open-source model inference
- +No infrastructure management for self-hostable models
Limitations
- -No proprietary model — quality depends on underlying open-source model
- -Fewer model options than running your own inference
- -API reliability and latency subject to shared infrastructure
- -Less differentiated than vendors with custom models
Real-World Use Cases
- •Startups using BGE or UAE embeddings without the DevOps overhead of self-hosting GPU inference
- •Teams evaluating multiple open-source embedding models side-by-side through a single API before committing
- •Cost-sensitive applications leveraging the cheapest per-token pricing for embedding generation at scale
Choose This When
When you want to use open-source embedding models but do not want to manage GPU infrastructure, or when you are comparing multiple open-source models and want a single API to test them.
Skip This If
When you need the latest custom models from vendors like Cohere or Voyage, when you want guaranteed model freshness, or when self-hosting gives you better economics at your scale.
Integration Example
from openai import OpenAI
client = OpenAI(
api_key="YOUR_TOGETHER_KEY",
base_url="https://api.together.xyz/v1"
)
response = client.embeddings.create(
model="BAAI/bge-large-en-v1.5",
input="Your text to embed"
)
print(f"Dims: {len(response.data[0].embedding)}")Frequently Asked Questions
What are embedding models and why do they matter for search?
Embedding models convert text, images, or other content into dense numerical vectors that capture semantic meaning. Similar content produces similar vectors, enabling semantic search where queries match by meaning rather than keywords. The quality of your embeddings directly determines your search relevance.
How do I choose between text-only and multimodal embedding models?
Use text-only models when your content and queries are purely textual, as they typically offer higher text retrieval quality. Choose multimodal models when you need to search across content types, such as finding images with text queries or matching video frames to text descriptions. Platforms like Mixpeek let you use different models for different use cases.
Does embedding dimension size matter?
Higher dimensions generally capture more semantic nuance but increase storage costs and search latency. For most applications, 768-1024 dimensions provide an excellent quality-to-cost ratio. Models with Matryoshka representations let you truncate dimensions to find your optimal trade-off.
What is hybrid retrieval and do I need it?
Hybrid retrieval combines dense vector search (semantic matching) with sparse keyword search (exact term matching) to get the best of both worlds. It is particularly valuable when your queries mix natural language with specific terms like product codes, legal citations, or technical identifiers. Models like Cohere embed-v4 and BGE-M3 produce both dense and sparse representations in one call, simplifying hybrid search architectures.
Should I use an API embedding service or self-host?
API services like OpenAI, Cohere, and Voyage offer zero operational overhead and are ideal for prototyping and moderate-scale production. Self-hosting with models like Jina v5, BGE-M3, or Nomic Embed makes sense when you need data sovereignty, have high enough volume for the GPU cost to be cheaper than API pricing, or need to customize models via fine-tuning. The break-even point typically falls around 10-50M embeddings per month.
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