Embedding
Also written: Vector Embeddings, Embedding space, Contextual Embeddings, Distributed Representations, Embedding Inference, Embedding generation, Per-layer embeddings, Sparse Embedding Parameters
Embeddings turn data like text, images, or audio into numerical lists computers can understand to find patterns and relationships.
Think of embeddings as a way to translate complex information into a language computers understand: numbers. Instead of trying to process raw text, images, or sounds, AI models convert them into lists of numbers called vectors. These vectors capture the meaning or essence of the original data.
For example, if you have two sentences, "The cat sat on the mat" and "The dog slept on the rug," their embeddings would be numerical lists. Because the sentences are similar in meaning, their numerical lists would also be mathematically close to each other. This allows AI to easily compare and understand relationships between different pieces of data, even if they are in different formats like text and images.
Embeddings are dense vector representations of data in a lower-dimensional space, designed to capture semantic meaning and relationships. They are typically generated by neural networks, where the network is trained to map similar inputs to nearby points in the vector space and dissimilar inputs to distant points. This process allows for efficient similarity searches, clustering, and as input features for downstream machine learning tasks. The quality of an embedding is often measured by its ability to preserve semantic relationships and generalize to unseen data.
Recent news highlights Google's advancements in embedding models, particularly with Gemini Embedding and EmbeddingGemma, which now handle multimodal data like images and audio. These updates focus on unifying diverse data types into a single representation space for improved AI understanding, search, and recommendations. The emphasis on multimodal capabilities and efficiency suggests a push towards more versatile and accessible AI applications.
- Gemini EmbeddingGoogle · Gemini Models ·
- Gemini Embedding 2Google · Gemini Models ·
- EmbeddingGemma 2: an open, lightweight multimodal embedding modelGoogle · Google DeepMind Blog ·
- Introducing EmbeddingGemma 2: An open model for natively multimodal embeddingsGoogle · Google for Developers on YouTube ·
- Gemini API Cookbook: Fix Anomaly detection notebook embedding model and batching logic (#1397)Google · Gemini API Cookbook ·
- Gemini Embedding 2Google · Gemini Models ·
- Gemini Embedding 2Google · Gemini Models ·
- Per-Layer Embeddings (PLE) in Gemma 4 explainedGoogle · Google for Developers on YouTube ·
- Understand the Gemma 4 model familyGoogle · Google for Developers on YouTube ·
- Gemini Embedding 2Google · Gemini Models ·
- Gemini Embedding 2Google · Gemini Models ·
- Embedding 2 i BinjakëveGoogle · Gemini Models ·
- Gemini Embedding 2Google · Gemini Models ·
- Gemini Embedding 2Google · Gemini Models ·
- Modelo Gemini Embedding 2 | Gemini APIGoogle · Gemini Models ·
- Enterprise-Grade Precision for Long-Context Multimodal Embedding Inference on Cloud TPUGoogle · Google Developers Blog ·
- llm 0.33OpenAI · Simon Willison ·
- How mobility gives language models a deeper understanding of placeGoogle · Google Research Blog ·
- GEM Training: How Meta Doubled the Efficiency of Its LLM-Scale Ads Foundation ModelMeta · Engineering at Meta ·
- Gemini API Cookbook: Add Multimodal Semantic Search quickstart using gemini-embedding-2 (#1286)Google · Gemini API Cookbook ·
- Milliseconds to Match: Criteo's AdTech AI & the Future of Commerce w/ Diarmuid Gill & Liva RalaivolaAnthropic · The Cognitive Revolution ·
- How AI trained on birds is surfacing underwater mysteriesGoogle · Google Research Blog ·
- MedGemma: Our most capable open models for health AI developmentGoogle · Google DeepMind Blog ·
- AlphaEarth Foundations helps map our planet in unprecedented detailGoogle · Google DeepMind Blog ·
- Google Earth AI: Unlocking geospatial insights with foundation models and cross-modal reasoningGoogle · Google Research Blog ·
- Stripe's Payments Foundation Model: How Data & Infra Create Compounding Advantage, w/ Emily SandsGoogle · The Cognitive Revolution ·
- Contextual Retrieval in AI SystemsAnthropic · Anthropic News ·
- Distributed Representations: Composition & SuperpositionAnthropic · Anthropic Research ·
- Enterprise-ready trust and safetyOpenAI · OpenAI News ·
- New embedding models and API updatesOpenAI · OpenAI News ·
- New and improved embedding modelOpenAI · OpenAI News ·
- Powering next generation applications with OpenAI CodexOpenAI · OpenAI News ·
- Introducing text and code embeddingsOpenAI · OpenAI News ·
- Text and code embeddings by contrastive pre-trainingOpenAI · OpenAI News ·
- Anthropic Claude
- Anthropic's models likely use embeddings internally to process and understand the vast amounts of text data they are trained on and interact with.
- Google Gemini
- Google Gemini is heavily involved with embeddings, releasing new models like Gemini Embedding and EmbeddingGemma that process text, images, audio, and video into a unified numerical space for AI understanding.
- Meta Meta AI
- Meta AI likely uses embeddings to represent and process the data used in its large language models and other AI research, enabling them to understand relationships within the data.
- OpenAI ChatGPT
- OpenAI's models, such as ChatGPT, rely on embeddings to convert text into numerical representations that capture meaning and context, allowing the AI to generate coherent and relevant responses.
- Feature Vector
- A feature vector is a numerical representation of data used as i
- One-Hot Encoding
- One-hot encoding represents categorical data as binary vectors
- Dimensionality Reduction
- Dimensionality reduction techniques aim to reduce the
The concept of representing data as vectors to capture meaning has roots in fields like information retrieval and natural language processing, with key developments in word embeddings like Word2Vec and GloVe. Source ↗
Use a tool that offers semantic search. For example, try searching for "pictures of happy dogs" in a multimodal search engine. The engine uses embeddings to understand your text query and find images that match the meaning, not just the exact words.
The Playbook: reusable how-tos, prompts, configs and tips pulled out of the news.
- HeuristicTPU-specific optimizations for long-context embedding inferenceTPU optimizations like hardware-safe tensor alignment and JAX/XLA compilation pre-warming. · 120 min
- PromptRole-play a student struggling with math for AI tutor simulationSimulate a student's math struggles and uncertainty for AI tutor evaluation. · 5 min
- TemplateReusable workflow templates for healthcare teamsTeams can create and share templates for common workflows like documentation or prior authorizations. · 15 min
- TemplateTemplate for building an AI tool tailored to your workA structured approach to defining and building a custom AI tool for specific business needs. · 15 min
- TemplateEvals CSV prompt list for agent skillsA CSV file template for listing prompts used in evaluating agent skills. · 20 min
Questions people ask
- How do embeddings help AI understand meaning?
- Embeddings convert data into numerical lists where similar meanings result in similar numbers. This allows AI to mathematically compare and understand relationships between different pieces of information.
- Can embeddings be used for more than just text?
- Yes, modern embeddings can represent images, audio, video, and other data types. This allows AI to understand and search across different kinds of information simultaneously.
First seen on Subvolts Jan 24, 2022. Updated Oct 17, 2026. Written by an AI model from the items above and reviewed against them weekly; report an error.

