Overview: We have engineered the next-generation Data and AI architecture for a connected greenhouse pod designed to maintain optimal conditions for high-quality crop production. The platform combines a flexible Simple Attribute–Value (SAV) data model with a Timbr-powered ontology layer, allowing raw sensor data and semantic relationships to coexist. By moving beyond rigid schemas, the system establishes a unified ground truth that supports advanced analytics, human decision-making, and Generative AI agents.

The Challenge: Many organizations attempting to operationalize AI face a structural data problem. Over time, enterprise data models evolve into thousands of disconnected tables with little embedded business context or semantic meaning. As a result, AI systems operating on this fragmented landscape often hallucinate joins and relationships, producing insights that appear credible but are fundamentally incorrect; leading to lack of trust from stakeholders.
The TrieDatum Solution: TrieDatum designed and implemented a multi-layered data architecture that separates physical data storage from semantic meaning, leveraging Databricks for scalable data processing and Timbr for the ontology and knowledge layer.

Architecture overview diagram showing: Raw Data → SAV tables → Relational views → Ontologies → Databricks One → Interfacing with the data through Databricks One → Acquiring insights

This knowledge graph exploration showing a plant, its pod, and images of the plant from which viral diseases were detected
The Results & Impact: By prioritizing semantic clarity and architectural simplicity, the project transformed the data landscape into a high-performance asset: