- Lorenzo MangubatData Analytics and Machine Learning in Semiconductor Manufacturing: Applications for Physical Design, Process and Yield OptimizationJason P. Caintaught byMarch 30, 2017Luigi Capodieci

Lorenzo Mangubat
Data Analytics and Machine Learning in Semiconductor Manufacturing: Applications for Physical Design, Process and Yield Optimization
Jason P. Cain
taught by
March 30, 2017
Luigi Capodieci
Data Analytics and Machine Learning in Semiconductor Manufacturing: Applications for Physical Design, Process and Yield Optimization
Lorenzo Mangubat
Level: Introductory
Length: 4 hours
Format: In-Person Lecture
Intended Audience:
Lithography, DFM, OPC and semiconductor engineers, technical managers and practitioners, who want to expand their domain of expertise to data science, analytics and machine learning. Basic knowledge of physical design, integrated circuit manufacturing and elementary statistics would be beneficial, while no prior knowledge of data science, analytics and machine learning is required.
Description:
This course provides an introduction to methodologies and techniques in Data Analytics and Machine Learning, with specific applications to semiconductor manufacturing, from physical design characterization to process and yield optimization. While the growth of (Big) Data Analytics and Machine Learning continues to increase across virtually every industrial sector, the semiconductor space has seen only a modest adoption. This course aims at lowering the entry barrier, by providing both foundational and practical skills for semiconductor engineers and practitioners. Following a comprehensive survey of the state-of-the-art and current developments in Data Analytics and Machine Learning, the course describes how functional interactions and data information flows in the Design-to-Manufacturing chain can be enhanced by analytics algorithmic methodologies.
Quantitative definitions of physical design space coverage and process space learning are introduced as the unifying abstraction, allowing for the construction of a computational application framework. Design-Technology-Co-Optimization (DTCO) is then extended with the novel paradigm of DFM-as-Search. Examples from this new DFM computational toolkit, are used to demonstrate how the advanced IC technology nodes (14, 10, 7 and 5nm) not only benefit from, but actually require the use of a new class of correlation extraction algorithms for heterogeneous data sets.
Learning Outcomes:
This course will enable you to:
- distinguish Data Science fundamentals with a comprehensive overview of Data Analytics and Machine Learning
- explain taxonomy and relationship of the top-10 classes of algorithms and (relational and graph) database systems
- distinguish Data Analytics System Architecture Views and Data-Flow Views
- determine new Methodologies, Software Tools, Application Use Cases specifically targeted at IC Design-to-Manufacturing
- describe the relationship between EDA (functional tools and applications) and (beyond EDA) Data Analytics and Machine Learning (technology and methodologies)
- summarize technology and business risk and opportunities (for early and late adoption scenarios)
Event: SPIE Advanced Lithography 2017
Course Held: 26 February 2017
Issued on
March 30, 2017
Expires on
Does not expire