Engineering Analytics

Engineering Analytics

Industry

Engineering – Semiconductor & Test-Measurement

Industry

Engineering – Semiconductor & Test-Measurement

Engagement Type

Large-Scale Data Intelligence

Engagement Type

Large-Scale Data Intelligence

Scope

Ingestion and analytics of high-frequency equipment test logs

Scope

Ingestion and analytics of high-frequency equipment test logs

Geography

Global

Geography

Global

Project overview

Project overview

Engineering Analytics Engine for Semiconductor & Test Measurement Company

Engineering Analytics Engine for Semiconductor & Test Measurement Company

Challenges

Challenges

  • Manufacturing, QA, and R&D teams relied on fragmented data sets across product families.

  • Insight extraction from large-scale test logs took several days per experiment iteration.

  • Statistical tooling such as MATLAB and R was siloed and lacked unified governance.</li

  • Engineering leaders needed rapid failure analysis and clear parameter influence insights.

  • Manufacturing, QA, and R&D teams relied on fragmented data sets across product families.

  • Insight extraction from large-scale test logs took several days per experiment iteration.

  • Statistical tooling such as MATLAB and R was siloed and lacked unified governance.</li

  • Engineering leaders needed rapid failure analysis and clear parameter influence insights.

Our Approach

Implemented a high-volume data ingestion pipeline capable of processing millions of log records per day.

Created a standardized schema and metadata dictionary for experiment/test parameters.

Developed self-service dashboards for trend, anomaly, scatter, and tolerance-drift visualizations.

Enabled parameter sensitivity analytics using ML to identify root-cause contributors to performance deviations.

Impact Delivered

Impact Delivered

  • Reduced experiment-to-insight cycle time from 5–7 days to under 2 hours.

  • Enabled predictive failure identification with 92% precision prior to final QA.</li

  • Accelerated release cycles for next-generation products through data-driven engineering iteration.

  • Improved cross-team collaboration by establishing a single source of truth across global labs.

  • Reduced experiment-to-insight cycle time from 5–7 days to under 2 hours.

  • Enabled predictive failure identification with 92% precision prior to final QA.</li

  • Accelerated release cycles for next-generation products through data-driven engineering iteration.

  • Improved cross-team collaboration by establishing a single source of truth across global labs.