Intelligent Analog and Mixed-Signal IC (I-AMS-IC) Design: A Conceptual Framework, and Case Study on AI Integration

A conceptual framework, I-AMS-IC (Intelligent Analog and Mixed-Signal IC), is proposed to enable automation in analog/mixed-signal (AMS) design by integrating machine learning with an emphasis on interpretability and trustworthiness. The framework is demonstrated using a custom-built dataset based on an operational amplifier (Op-Amp) case study. Machine learning models are trained to predict design variables from ten key performance indicators (KPIs). The relationships between design variables and performance metrics are explored using various correlation analysis methods. Among the models tested, XGBoost regression achieves the best performance with a mean absolute percentage error (MAPE) of 16.88%. To enhance interpretability, SHAP (Shapley Additive Explanations) is employed to explain model predictions. The SHAP insights are validated through both correlation analysis and analytical circuit expressions. The study highlights that combining statistical, analytical, and explainability techniques strengthens trust and transparency in AI-assisted AMS design, paving the way for more interpretable and automated design workflows.

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Published
2025-06-27
DOI
https://doi.org/10.1109/is3c65361.2025.11131067
Primary Topic
Neural Networks and Applications
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article
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article

Intelligent Analog and Mixed-Signal IC (I-AMS-IC) Design: A Conceptual Framework, and Case Study on AI Integration

Nidhi Sharma, Ayush Pratap, Devarshi Mrinal Das
Neural Networks and Applications
article

Intelligent Analog and Mixed-Signal IC (I-AMS-IC) Design: A Conceptual Framework, and Case Study on AI Integration

Nidhi Sharma, Ayush Pratap, Devarshi Mrinal Das
article en

Abstract

A conceptual framework, I-AMS-IC (Intelligent Analog and Mixed-Signal IC), is proposed to enable automation in analog/mixed-signal (AMS) design by integrating machine learning with an emphasis on interpretability and trustworthiness. The framework is demonstrated using a custom-built dataset based on an operational amplifier (Op-Amp) case study. Machine learning models are trained to predict design variables from ten key performance indicators (KPIs). The relationships between design variables and performance metrics are explored using various correlation analysis methods. Among the models tested, XGBoost regression achieves the best performance with a mean absolute percentage error (MAPE) of 16.88%. To enhance interpretability, SHAP (Shapley Additive Explanations) is employed to explain model predictions. The SHAP insights are validated through both correlation analysis and analytical circuit expressions. The study highlights that combining statistical, analytical, and explainability techniques strengthens trust and transparency in AI-assisted AMS design, paving the way for more interpretable and automated design workflows.

Indian Institute of Technology Ropar (IN), National Chung Cheng University (TW)
Openalex Percentile: Top 88%
Neural Networks and Applications
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Intelligent Analog and Mixed-Signal IC (I-AMS-IC) Design: A Conceptual Framework, and Case Study on AI Integration — Nidhi Sharma, Ayush Pratap, et al. · (2025) | TGRS Research Map | TGRS