Welcome to the Post-RAG Future

The world's first hyper-vector database, built for agentic AI.

Join the Waitlist
The missing link between data and AGI

Retrieval isn’t enough

Common pain points

  • Fragmented toolchains (retrieval vs analytics vs inference)
  • RAG is shallow
  • Traditional databases lack semantic awareness
  • Agents are forgetful, failing to carry work across sessions

Semantic Reach is the solution

  • A unified vector db for structured and unstructured data
  • Native support for reasoning agents and memory-augmented AI
  • Handles retrieval, analytics, and cognition in one semantic layer
  • Persistent cognitive workspace for seamless cross-context workflows

A True Semantic Memory Engine for Agentic AI

If LLMs work in higher dimensions, shouldn’t the vector databases they use? Large language models operate in high-dimensional spaces with thousands of dimensions, yet most vector databases use low-dimensional approximations that sacrifice precision for speed.

When vector databases match the dimensionality of LLM thinking, we enable more precise retrieval and reasoning. This alignment creates systems where memory and computation speak the same language—essential for AI that maintains coherence while drawing from vast knowledge stores.

Beyond Context Windows

Recent research reveals a counterintuitive finding: larger context windows actually degrade agentic performance (source). As context windows expand, AI agents lose focus, get overwhelmed by irrelevant details, and struggle to maintain coherent reasoning across vast information landscapes.

The Context Window Paradox

More context doesn't mean better performance—it often means cognitive overload and decreased precision in decision-making.

The solution isn't bigger context windows—it's AI-native vector spaces that agents can efficiently query and reason over. By projecting the entire problem space onto structured, semantic representations, agents can:

  • Focus selectively on relevant information without cognitive overload
  • Reason hierarchically across different levels of abstraction
  • Build persistent, logically organized memory that grows smarter with each interaction
  • Navigate complexity through semantic similarity over structured content and relations rather than brute-force scanning
  • Save tokens efficent vector ops can reduce token usage by orders of magnitude
  • Eliminate context pollution as context grows, so does the accumulation of contradictions and noise. Curated vector search ensures that agents can focus on the most relevant information and avoid cognitive overload.

This approach transforms agents from context-constrained amnesiacs into intelligent reasoners that can work with unlimited information while maintaining precision and focus.

Compositional Intelligence: The Next Wave in AI

The distinction between structured and unstructured data is an illusion that has constrained our thinking for too long. In reality, all data has structure—it's just a matter of how explicitly that structure is represented and how accessible it is to our systems.

Our hypervector memory solution transcends this false dichotomy by representing structure and content within the same embedding space. This enables true compositional intelligence where:

  • Text documents reveal their inherent hierarchical organization and semantic relationships: isolate discrete facts from text and associate them with other data points in tables, graphs, and other formats.
  • Structured records gain semantic flexibility beyond rigid schema constraints
  • Schemas derive from the meaning of your data and are not artificially and rigidly imposed.
  • Relationships become first-class citizens that can be manipulated and reasoned about directly
  • Knowledge and logic integrate seamlessly in a unified representation space: move a way from data storage to data representation

By encoding all data into a unified representational framework, Semantic Reach enables AI that can truly think with and perceive your data—not just retrieve it.

From Deep Learning to Deep Memory

True intelligence requires memory that goes far beyond simple storage and retrieval or brittle, surface-level prompts. Instead of treating memory as a passive log or a static cache, next-generation AI needs an associative matrix—a rich, dynamic space where related ideas, facts, and experiences are actively connected and perceived together.


Biologically plausible memory is not a lookup table. It’s a connected, fully addressable space of distributed content and projected relationships. For agentic AI to reason, adapt, and learn continuously, its memory must stay synchronized with the current state of affairs, allowing it to draw on the right knowledge at the right time. This is the foundation for true cognitive agility, where learning and remembering are deeply intertwined, and where the AI’s understanding evolves with every interaction.

What is a Hyper-Vector Database?

A pathbreaking data engine inspired by hyperdimensional computing that transcends traditional databases and even vector databases. Semantic Reach treats your data not as records, but as richly interwoven, composable meaning structures in high-dimensional space. It’s a database for the AI age: a cognitive workspace where AI systems build cumulative, structured understanding rather than starting from zero with each interaction.

Beyond Vector Databases

While vector databases store embeddings as points in space, Hyper-Vector Databases implement a complete semantic lattice where relationships, operations, and transformations are first-class citizens. This enables true symbolic-neural hybridization where meaning is both emergent and compositional.

Compositional Operations

Combine concepts with vector binding operations that preserve semantic integrity, allowing for complex multi-hop reasoning.

Relational Structure

Native support for semantic relationships between entities, enabling knowledge graph-like capabilities without rigid schemas.

Emergent Intelligence

The system develops emergent properties as data volume increases, similar to how neural networks develop conceptual understanding.

Technical Foundation

Built on hyperdimensional computing principles, Semantic Reach uses high-dimensional spaces (10,000+ dimensions) where distance, direction, and composition all have semantic meaning. This allows AI systems to perform operations directly in the semantic space where your data lives.

Myth

Vector databases only work well with unstructured data like text and images.

Reality

Semantic Reach’s Hyper-Vector Database works with any data—structured or unstructured.
Combine tables, graphs, documents, and more in a single, composable meaning space.

Features

Unified Data Model

Handle structured, unstructured, and graph data seamlessly

Agent-Native

Designed for agentic workflows and cognitive planning

Semantic Querying

Move beyond keywords; query via meaning, structure, and context

Hyperdimensional Engine

Built on HDC principles for rich representation

Analytics + Cognition

Embed computation, search, and reasoning directly in your data

Developer-First

Clean API, vector-native SDKs, open format roadmap

Built for Real-World Business Problems

Hypervector databases transform how organizations work with data, enabling use cases that were previously impossible.

Agent Memory

Long-term, structured recall and reasoning context

Business Application

Enable AI assistants to remember conversations over weeks and months with perfect recall, while understanding the context and relationships between topics discussed.

Knowledge Integration

Ingest diverse data and query it as one

Business Application

Unify product documentation, customer support tickets, and engineering specs into a single knowledge base that understands cross-domain relationships.

Analytics+AI

Native analytical querying on semantic structures

Business Application

Run business intelligence queries that understand conceptual relationships beyond exact keyword matches, finding insights human analysts might miss.

Customer Intelligence

Holistic customer understanding across touchpoints

Business Application

Create a 360° view of customer interactions that understands sentiment, intent, and buying patterns across channels, enabling truly personalized service.

Frequently Asked Questions

Hyperdimensional computing is a computational paradigm in which data, concepts, and relationships are represented as high-dimensional vectors called hypervectors that typically span thousands of dimensions. These vectors are manipulated using algebraic operations, allowing the system to encode structure, similarity, and context in a compact, noise-tolerant form. Unlike traditional computing, which relies on discrete symbols or low-dimensional features, HDC enables flexible and efficient reasoning over complex, interrelated information.
Maybe you’ve heard of the “curse of dimensionality” in statistical modeling and machine learning, but in hyperdimensional computing, it’s a blessing. Higher dimensions give ideas more space to stay distinct while still being comparable. That means we can store complex structure and exact data, reason over it, and find patterns that would blur together in lower dimensions. Imagine trying to untangle a knot in a rope. In 2D, you’re stuck—you can’t pull loops over or around each other. But in 3D, it becomes simple: you just lift a loop up and over. The third dimension gives you the freedom to separate things that were stuck together in 2D. The same idea applies to data. In low dimensions, patterns can overlap or collide, making them hard to tell apart. But in high dimensions each concept has more room to spread out. That extra space makes it easier to distinguish, store, and relate ideas without interference.
A hypervector is a high-dimensional vector that represents a concept or idea in a space with thousands of dimensions. This approach enables efficient manipulation of complex data and relationships through simple vector operations, making it particularly effective for pattern recognition, similarity search, and cognitive computing tasks. In our system, hypervectors are composite structures, as opposed to the simple, flat vectors of vanilla vector databases.
Yes, and no. We call it a database mostly to preserve the association with vector databases, but even typical vector databases don't act like regular databases. It's not simply about storage and retrieval, but representation and reasoning. What we have is more like an agentic memory substrate that doesn't just store data, but it represents it in a high-dimensional space and applies machine learning to identify and connect the data into a web of relationships and associations. This enables a unique kind of geometric querying and reasoning over all types of data.
The concept of a database schema emerged out of the need to create an interface between facts and rigid information processing systems. In reality, the true schema for your data is its meaning for intelligence: we transform your data into a form best suited for reasoning and analysis. With our technology, the developer does not specify a rigid schema that the data must conform to. Rather, the schema is induced from the data itself based on a sophisticated analysis of its statistical properties. The result is that the AI agent does not just operate over a static replica of the data ingested, but works with a richer, interpreted representation of the data that it can more directly perceive and reason about in vector space.
Think about a regular SQL query. You might have a WHERE clause, an ORDER BY clause, a JOIN clause, etc. Our system represents all those operations as parts of a geometrical structure in high-dimensional space. This turns querying into something like an act of visual perception for the AI, that is embarrassingly parallel and efficent, rather than as a sequence of computational steps that have to be executed one at a time.
Traditional vector databases store simple data points like word meanings as plain lists of numbers. Our system goes much further. It captures complex ideas—like the structure of documents, the relationships in a table, or even the logic behind a codebase—as rich, layered representations. Think of it like moving from flat sketches to 3D models: we can organize and search not just based on keywords, but based on the deeper meaning, structure, and relationships within the data itself.
Vanilla vector DBs find things that look similar. Semantic Reach finds things that mean something together. It unifies structured tables, freeform text, images, and interlinked relationships into a single semantic lattice, letting you query across them like they were always one. It unifies data storage and analytics. You can think of it as a combination of a relational, vector, and graph database.
An agentic workspace is an intelligent environment where AI agents can autonomously perform tasks, make decisions, collaborate and syncronize with users or other agents in a shared representation of the world. In our system, it leverages vector math, the "lingua franca" of AI, to maintain context, understand user intent, and execute complex workflows while preserving the semantic relationships between different pieces of information. The result is "deep memory" a unified, persistent context layer for cognitive computing.

Join the Waitlist

Shape the future of intelligent infrastructure.

Why We Built This

We believe a framework such as ours is necessary to make the full promise of agentic AI an actuality. So our team of AI researchers and database engineers came together to create a new kind of data platform that thinks more like the brain and less like a spreadsheet.