We use cookies (and other similar technologies) to improve your experience on our site. By using this website you agree to our Cookie Policy

Galaxia
Galaxia is a next-generation graph language model (GLM) and knowledge graph platform that automates the transformation of unstructured data (raw text) into structured, semantically rich graphs (interconnected data).

It combines the strengths of graph-based data structures with advanced natural language processing (NLP) to create a powerful, flexible, and transparent system for organizing, retrieving, and reasoning over information.

It is designed to boost knowledge exploration, AI development and retrieval-augmented generation by providing scalable, and compositional knowledge representation, without relying on manual design or embeddings.
Graph Language Model (GLM)
Galaxia is a type of non-generative model designed to transform data into graph representation, reason over data that is structured as a graph, and retrieve data from the graph. The model is not designed to generate new data, but rather to work with existing data and extract insights and meaning from it.
Technological Approach
Galaxia is a graph-based inference model focused on transparency, compositionality, and symbolic, human readable knowledge representation. This means that Galaxia is designed to provide clear, interpretable, and understandable results. Its architecture differs from neural network-based generative architectures characterized by statistical learning, opaque reasoning and weight-encoded knowledge. Galaxia doesn’t require training.
Architecture
Galaxia’s architecture is a symbolic, ontology-inspired graph language model, that uses graph as its fundamental data structure. Its design goes beyond traditional “triples” found in classic ontologies. While traditional approaches focus on creating connections between entities, Galaxia builds multi-dimensional connections for both entities and relationships.
Compositionality
A key Galaxia’s feature is compositionality – the ability to create new, complex nodes and edges from existing ones (compositional relations). This supports both knowledge expansion (building new concepts from known ones and working with unseen data) and advanced information retrieval, making it highly extensible and adaptable for new domains. Its graph structure is inherently extensible, allowing new information to be added at scale, supporting a wide range of domains.
Computational requirements
Galaxia’s architecture supports low computational requirements.
Galaxia is designed to run efficiently on CPUs, without the need for GPU processing, making it accessible and scalable for a wide range of users.
Key Features
Automated Graph Construction
Automated Graph Construction enables converting unstructured data into interconnected knowledge. Some of the key benefits include speed and scalability by eliminating manual effort to apply NLP techniques for entity and relations extraction, and graph construction.
Knowledge Augmentation - at Data Level
Enhancing and expanding raw data with additional information and context to help retrieve relevant information, which is then used for knowledge augmentation in generative AI systems. It replaces the need for traditional embeddings.
Knowledge Augmentation - at AI Model Level
Enhancing AI model by integrating external knowledge (e.g., domain-specific information or information retrieved from knowledge base) represented as a graph structure and providing it at inference time to improve AI model reasoning, accuracy, and contextual understanding(Galaxia Graph RAG)
Transparency and Explainability
In Galaxia, its retrieval transparency and explainability are an inherent feature. It clearly shows the connection between data points and what data was used to provide information.
Semantic Retrieval
Galaxia enables retrieval-augmented generation (RAG) workflows where information is retrieved based on semantic relationships, not just vector similarity, improving accuracy and explainability in AI applications.
Automated retrieval
Galaxia has built-in flexible retrieval algorithms that automatically locate and retrieve relevant data points.
In-memory processing
Galaxia Graphis processed directly in RAM. It makes it easily scalable by adding more RAM or servers.
Foundation
Hypergraph
Galaxia's structure is most similar to a hypergraph with multi-way relationships. It allows edges (hyperedges) to connect any number of nodes, enabling the modeling of complex, multi-way relationships.
It can be also described as superhypergraph as it represents both individual entities and their clusters, as well as multi-level relationships.
Thanks tot his, it enables more flexible modelling of real-world data supporting deeper insight requirements.
Programmable Graph
Galaxia is a programmable dynamic graph. It means that its structure and behavior can be programmed (defined, manipulated) through its framework, allowing for different algorithms or operations to be executed on the graph.
Technical Integration
APIs and SDKs
Galaxia can be integrated into AI pipelines(e.g., LangChain) via APIs, to upload data, build knowledge graphs, and retrieve information for downstream applications.
Supported pipelines and integrations
LlamaIndexLangChainUnstructured

Smabbler Galaxia ™

Technology overview whitepaper

Thank you! Request granted.
Oops! Something went wrong .