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Machine Learning for IC Yield: Models, SHAP Explainability & APC/R2R

Original price was: USD $99.00.Current price is: USD $59.00.

From fab data to higher yield—predict, optimize, and control.

About This Course

This 3-day, hands-on course is designed to help participants turn fab/process data into higher wafer yields by leveraging leakage-safe machine learning (ML), explainability techniques (such as SHAP), and Run-to-Run (R2R) control/Advanced Process Control (APC). Participants will build and evaluate predictors, prototype virtual metrology, and leave with a practical, data-backed plan to improve wafer yield.

Aim

The course will empower participants to convert fab data into measurable yield gains using cutting-edge ML, explainability methods, and R2R/APC techniques.

Course Objectives

  • Learn the fundamentals of IC yield and baseline analytics.
  • Apply leakage-safe ML to predict yield effectively.
  • Gain hands-on experience in feature engineering and model evaluation.
  • Optimize processes using R2R/APC techniques and virtual metrology.
  • Interpret yield drivers and develop actionable yield improvement plans.
  • Understand MLOps, real-time monitoring, and deployment in fab environments.

Course Structure

📅 Module 1 – Foundations: Yield and Process Data Analytics

  • IC Yield Basics: Gain a solid understanding of yield types and their impact on production costs.
  • Process Data Overview: Explore key data sources (MES, SPC, wafer maps) and the challenges related to data quality.
  • Baseline Analytics for Yield: Use classical defect models and loss analysis tools to analyze yield.
  • Hands-On: Engage in dataset creation, basic analysis, and yield estimation exercises.

📅 Module 2 – Machine Learning for Yield Prediction

  • Feature Engineering & Data Preparation: Learn how to handle data imbalances and define relevant features for prediction models.
  • ML Models for Yield Prediction: Dive into regression and classification techniques tailored for yield prediction.
  • Model Evaluation & Interpretability: Explore key metrics and explainability tools like SHAP to interpret model outputs.
  • Hands-On: Build your own yield prediction model and learn to interpret the results effectively.

📅 Module 3 – Optimization and Real-time Control

  • Run-to-Run (R2R) Control & APC: Use machine learning to optimize production parameters and enhance yield.
  • Process Parameter Optimization: Apply Bayesian optimization techniques to improve yield.
  • MLOps & Digital Twins: Learn how to deploy models in real-time environments for continuous monitoring.
  • Hands-On: Apply R2R control, simulate optimization techniques, and present strategies for yield improvement.

Course Outcomes

  • Build and evaluate ML models for yield prediction.
  • Apply SPC, Pareto, and classical models for yield analysis.
  • Optimize processes using R2R/APC and virtual metrology.
  • Implement feature engineering and time-series models.
  • Interpret yield drivers using SHAP and permutation importance.
  • Develop actionable yield-improvement plans.
  • Gain insights into MLOps and best practices for fab data.

Who Should Enrol?

  • PhD scholars and postgraduate students in microelectronics, VLSI, materials science, or data science.
  • Academicians and researchers involved in semiconductor manufacturing or ML.
  • Fab professionals: process/yield/device/test/metrology/equipment engineers, DFM/PDK, MES/IT, quality/OEE engineers.
  • Data scientists and ML engineers supporting fab analytics, virtual metrology (VM), or APC/R2R systems.

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What You’ll Gain

  • Full access to e-LMS
  • Publication opportunity
  • Self-assessment & final exam
  • e-Certificate

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Feedbacks

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The course was well communicated and interactive


Elizabeth Makauki : 09/06/2024 at 11:55 pm

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nice work


Diego Ordoñez : 08/14/2024 at 6:33 am

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It would be more helpful if the prerequisites for this workshop were made available to the More participants atleast a day in advance so that all the installations are made by the participants and kept ready. That would allow the participants to work along side the instructions so that any issues can be resolved right away
Ekta Kamble : 04/01/2024 at 6:21 pm

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Roberta Listro : 02/16/2024 at 5:30 pm

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ALL THE INFORMATION WERE VERY USEFULL THANK YOU


IONELA AVRAM : 04/12/2024 at 9:54 pm

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The workshop was incredibly insightful, and I truly appreciate the effort you put into creating such More a valuable learning experience.
TITIKHYA BARUAH : 02/27/2024 at 2:06 pm

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Very helpful


Priyanka Saha : 07/01/2024 at 12:51 pm

no feedbacks; this workshop is great


Finn Lu Hao : 10/02/2024 at 10:03 am