
Critical sensor data arriving at millisecond intervals gets downsampled or discarded because systems can't handle the volume or lack storage infrastructure.
Impact: Loss of detail needed for root cause analysis, quality investigations, and AI model training
Production data in SCADA historians, quality data in QMS databases, maintenance data in CMMS—no unified view for comprehensive analytics.
Impact: Inability to correlate events across systems or perform cross-functional analysis
Years of valuable operational data exist but is trapped in proprietary formats, aging systems, or offline tape backups that are impossible to query.
Impact: Cannot leverage historical patterns for predictive models or trend analysis
Data scientists need to cobble together data from multiple sources, each with different APIs, query languages, and access methods.
Impact: Weeks or months wasted on data preparation instead of generating insights
Capture and store sensor data at millisecond intervals—never lose the detail needed for root cause analysis
Combine OT and IT data in a single lakehouse—query across production, quality, and business data effortlessly
Years of contextualized data ready for AI/ML—your lakehouse becomes the training ground for predictive models
Our historian-lakehouse architecture balances real-time performance with long-term analytics capabilities.
High-frequency OT data storage with sub-second latency
Retention: Typical: 1-3 years at full resolution
Unified IT/OT data with business context for analytics
Retention: Typical: 5-10+ years (potentially indefinite)
Purpose-built historians for high-frequency industrial data with specialized compression, retention policies, and time-series querying.
Modern architectures that combine the flexibility of data lakes with the structure and governance of data warehouses.
Robust connectors and pipeline tools for moving data from OT/IT sources to historians and lakehouses at scale.
Enterprise-grade data governance, access control, and compliance frameworks for industrial data at rest.
Deliverable: Production historian receiving and storing high-frequency OT data
Deliverable: Cloud lakehouse infrastructure ready to receive integrated data
Deliverable: Automated data pipelines feeding historian and lakehouse
Deliverable: Validated data quality and query performance baselines
Deliverable: Analytics and visualization tools consuming historian and lakehouse data
Deliverable: Complete documentation and trained teams ready for production use
17-26 Days
Store years or decades of high-frequency operational data with efficient compression—never lose critical historical context again.
Single query interface for all IT and OT data—no more stitching together data from disparate systems.
Clean, contextualized datasets with OT and IT context ready for training predictive models without months of data prep.
Query live data alongside years of history—spot patterns, trends, and anomalies that span multiple time horizons.
Immutable audit trails, access logs, and retention policies that satisfy regulatory requirements (FDA, ISO, etc.).
Cloud-native architecture scales compute and storage independently—handle growing data volumes without re-architecture.
Stream vibration and temperature data to historian at 1-second intervals. ML models query years of historical data from lakehouse to learn normal behavior patterns and detect anomalies indicating impending failures.
Data Flow:
Sensors → MQTT → Historian (real-time) → Lakehouse (hourly aggregates + anomalies)
Outcome: 30-50% reduction in unplanned downtime through early failure detection
When quality issues arise, analysts query lakehouse to correlate process parameters (from historian), material batches (from ERP), and operator assignments (from MES) to identify root causes across weeks or months of production.
Data Flow:
Process data + IT systems → Lakehouse with unified schema
Outcome: Root cause analysis time reduced from days to hours
Store power meter data at 1-minute intervals in historian. Aggregate to lakehouse with production schedule, weather data, and utility pricing for ML-driven energy optimization and carbon reporting.
Data Flow:
Power meters → Historian → Lakehouse + Weather API + ERP data
Outcome: 5-15% energy cost reduction through usage optimization
Feed years of process data from historian into lakehouse where data scientists build physics-informed ML models. These digital twins predict product quality based on current process parameters.
Data Flow:
Historical process + quality data → Lakehouse → ML platform → Digital twin model
Outcome: Proactive quality control and reduced waste/scrap
Stop losing valuable operational data. Build a historian-lakehouse architecture that preserves every detail and enables AI-driven insights for years to come.