Accurate quality control is critical in semiconductor manufacturing, but training traditional anomaly detection models requires massive and manually labeled data. This thesis addresses data scarcity by evaluating zero-shot and few-shot learning frameworks for semiconductor anomaly detection. Utilizing specialized datasets, which captures micrometer-scale flaws in semiconductors, this research benchmarks how effectively cutting-edge vision models identify and localize anomalies with minimal to zero prior training exposure.
Accurate quality control is critical in semiconductor manufacturing, but training traditional anomaly detection models requires massive and manually labeled data. This thesis addresses data scarcity by evaluating zero-shot and few-shot learning frameworks for semiconductor anomaly detection. Utilizing specialized datasets, which captures micrometer-scale flaws in semiconductors, this research benchmarks how effectively cutting-edge vision models identify and localize anomalies with minimal to zero prior training exposure.
Overcoming Data Scarcity in Semiconductor Anomaly Detection via Zero-Shot and Few-Shot Models.
BERTI, NICOLA
2025/2026
Abstract
Accurate quality control is critical in semiconductor manufacturing, but training traditional anomaly detection models requires massive and manually labeled data. This thesis addresses data scarcity by evaluating zero-shot and few-shot learning frameworks for semiconductor anomaly detection. Utilizing specialized datasets, which captures micrometer-scale flaws in semiconductors, this research benchmarks how effectively cutting-edge vision models identify and localize anomalies with minimal to zero prior training exposure.| File | Dimensione | Formato | |
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Berti_Nicola.pdf
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19.74 MB | Adobe PDF |
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https://hdl.handle.net/20.500.12608/116540