Cognee is an AI Memory Python SDK that helps to map out data logically for more accurate AI responses by establishing a knowledge graph, ensuring reliable interactions from LLM agents.
Cognee constructs a knowledge graph that determines relevant memory types per query, enhancing the accuracy of AI responses by finding hidden connections in your data.
Cognee supports various database providers, including vector and graph databases, and allows users to integrate their own by following simple documentation.
Data is structured using RDF-based ontologies, utilizing publicly available rules to make data relationships more intelligent and meaningful.
Cognee can be run on your own servers, providing full control over your data and reducing third-party risks, which is beneficial for sensitive data.
Cognee's distributed system can efficiently handle and scale to accommodate large volumes of data, such as gigabytes or terabytes.
Cognee allows the use of real reasoners, enabling precise data interpretation and reasoning beyond pattern recognition.
Allows users to add OWL files that are automagically matched with existing data, grounding large language models with factual information.
Enables seamless import of relational databases into Cognee, converting structured data into graphs for AI agent use.
Turbocharges performance by enhancing prompt management, improving evaluations, and speeding up operations.
Enables AI-powered search through knowledge graph query answering, enhancing retrieval-augmented generation and personalized recommendations.
Build knowledge graphs by running data pipelines that convert API and relational data into interconnected semantic graphs, enhancing data insights.
Provide AI systems like CrewAI agents with memory, enabling context-aware applications and enhancing personalization.
Enables the creation of data representations that emulate human understanding by extracting entities from information and establishing semantic relationships between them.
Seamlessly connects AI models with internal company data, allowing more efficient access and use of the data while keeping it organized and up-to-date.
Allows users to create adaptable entity and relationship models that capture essential structure while remaining flexible to new information.
Builds both deterministic and advanced non-deterministic graph enrichment methods, incorporating LLM-driven technologies.
Uses vector embeddings for semantic search and integrates with traditional databases to optimize the knowledge graph's usefulness.
Provides automated processes for data insertion, deletion, and management to maintain up-to-date and accurate knowledge graphs.
Leverages graph structures for deriving new knowledge, identifying patterns, and contextual understanding of data relationships.
Boosts traditional data retrieval by combining it with natural language processing to generate more coherent and contextually relevant responses.
Uses knowledge graph technology to match new customer preferences with similar past users, providing more tailored and meaningful recommendations.
Detects discrepancies and anomalies within data inputs to maintain data integrity and consistency through graph-based rules.
Facilitates the integration of both structured and unstructured data, using pipelines and tasks to aggregate information into a knowledge graph.