TL;DR
This paper introduces a flexible, AI-assisted web platform for analyzing STEM images to measure layer thickness and interface roughness in semiconductor multilayer structures, combining automation with human oversight.
Contribution
It presents a modular, adaptive workflow framework that integrates AI algorithms with human input, enabling scalable and standardized analysis in semiconductor metrology.
Findings
Automated layer thickness and roughness quantification with nanometer precision.
A web-based interface that processes TEM/EMD files directly.
The system balances automation and human correction for flexible analysis.
Abstract
Scanning transmission electron microscopy (STEM) has become a cornerstone instrument for semiconductor materials metrology, enabling nanoscale analysis of complex multilayer structures that define device performance. Developing effective metrology workflows for such systems requires balancing automation with flexibility; rigid pipelines are brittle to sample variability, while purely manual approaches are slow and subjective. Here, we present a tunable human-AI-assisted workflow framework that enables modular and adaptive analysis of STEM images for device characterization. As an illustrative example, we demonstrate a workflow for automated layer thickness and interface roughness quantification in multilayer thin films. The system integrates gradient-based peak detection with interactive correction modules, allowing human input at the design stage while maintaining fully automated…
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