Most machine learning effort is spent not on algorithms but on preparing data. This scene visualises that work as a physical pipeline: raw records leave a "data lake" and pass through five quality gates — completeness, accuracy, consistency, timeliness and uniqueness — the five components of a typical Data Quality Score (DQS). Each record's composite score then decides which storage tier it lands in.
Data teams commonly report spending 60–80% of a machine learning project's time on cleaning, validating and re-shaping data — which is exactly why a tiered bronze/silver/gold storage architecture and an explicit quality score exist: they make "is this data trustworthy enough to train on?" a measurable question.
Raw records leave a data lake and pass through five live quality gates — completeness, accuracy, consistency, timeliness and uniqueness — before settling into bronze, silver or gold storage tiers based on their composite Data Quality Score.
Each record carries five independent quality dimensions that combine into a single Data Quality Score. Gates flash green or red per dimension as records pass, and the final score decides whether a record is curated (gold), merely validated (silver), or quarantined.
Raise the defect rate to simulate messier source systems, adjust the ingestion rate, and move the gold threshold to see how strict quality bars change the split between bronze, silver, gold and quarantine.
Bronze/silver/gold is a common tiered data-lake pattern: bronze holds raw ingested data, silver holds cleaned and validated records, and gold holds curated, ML-ready datasets — exactly the pipeline this scene visualises.