Simor
Data Infrastructure for Production AI
Practical writing on AI data engineering, feature stores, and the infrastructure choices that determine whether AI systems work in production.
Organizations navigate complex data landscapes spanning on-premises systems, multiple clouds, and SaaS applications. Centralizing all data for analytics has become impractical. Data virtualization cre
Traditional forecasting methods produce point estimates—single values representing the most likely outcome. This approach fails to capture inherent uncertainty, leading to overconfidence in decision-m
Organizations collect and store unprecedented volumes of data, yet many struggle to make this data accessible and useful for decision-makers. Self-service data discovery platforms enable business user
AI increasingly powers high-stakes decision systems across industries. Organizations deploying AI-powered decision systems face complex questions about fairness, transparency, privacy, and accountabil
Traditional analytics and machine learning find correlations and make predictions. These approaches fall short when businesses need to answer strategic questions about causality: "What will happen if
Testing machine learning systems involves challenges beyond traditional software testing. Unlike deterministic software where inputs consistently produce the same outputs, ML models operate on probabi
AI and machine learning applications often require data structures that differ from traditional transactional systems. Non-relational databases offer specialized capabilities better suited to AI workl
Feature engineering transforms raw data into meaningful representations for machine learning models. This process is often the most critical and time-consuming aspect of building effective AI systems.
Data quality problems cost organizations between 15% and 25% of revenue. The global cost of bad data runs into trillions annually. Traditional data quality approaches—manual review, rule-based validat