Study the development and application of cutting-edge materials that enhance the performance and capabilities of semiconductor devices, including new substrates, conductors, and insulators.
This entry-level online course offers a brief overview of silicon-based semiconductor fabrication, geared toward engineering undergraduates, graduate students, and pre-college learners exploring career paths in the semiconductor field. No prior experience is required.
This course aims to provide a general understanding of semiconductor process. This course explores the principles and basic theory of semiconductor device and process. Furthermore, the students will learn the overall semiconductor process such as oxidation, diffusion, ion implantation, lithography, etching, thin film deposition, plasma, metallization, and packaging.
In this introductory course, the field of microfabrication and how it is used to create semiconductor and MEMS devices is presented. Learners will develop a high-level understanding of the basic principles of physics and material properties that power the functionality of these technologies.
This course aims to provide process safety experience for engineers, particularly relevant to chemical engineering but applicable to any field involving process operations. This course introduces you to the important, practical, value-added skills and information that will aid your career, or preparation for a career, in chemical process engineering.
This course aims to provide a general understanding of semiconductor process. This course explores the principles and basic theory of semiconductor device and process. Furthermore, the students will learn the overall semiconductor process such as oxidation, diffusion, ion implantation, lithography, etching, thin film deposition, plasma, metallization, and packaging.
Thin-film deposition, lithography, and etching form the most fundamental processes used in microfabrication to create devices. This course introduces these processes, providing learners with an understanding of the techniques, physical phenomena, and material properties that inform fabrication decisions.
Lean Production is a proven approach to designing efficient, high-quality, and customer-focused processes. In this course, you will learn the fundamental principles, methods, and tools of Lean Production, with a strong focus on practical application and real-world relevance.
This course is designed for Mechanical, Manufacturing, and Mechatronics Engineers. Throughout the course, students will obtain an extensive understanding of Product Life Cycle and Value Chain Management, Manufacturing Workflow, and integration into the Smart Factory concept.
Today, every organization is undergoing a paradigm shift toward Digital Transformation in alignment with the rapid growth of Industrial Automation. Since automation directly impacts business performance, all organizations—whether in design, manufacturing, assembly, or logistics—are genuinely transforming into Digital Industries.
The course Introduction to the Industrial Metaverse enables learners to understand and apply the Industrial Metaverse (IMV) for digital transformation and operational excellence, while encouraging organizations to engage in the IMV ecosystem.
This course will cover the Measure phase and parts of the Analyze phase of the Six Sigma DMAIC (Define, Measure, Analyze, Improve, and Control) process. You will learn about lean tools for process analysis, Failure Mode and Effects Analysis (FMEA), Measurement System Analysis (MSA), and Gauge Repeatability and Reproducibility (GR&R), and you will be introduced to basic statistics.
This course deepens your understanding of Lean Production by focusing on creating continuous flow, pull system, and quality-driven continuous improvement. Building on foundational Lean principles, you will further your quantitative process analysis skills, while at the same time learning practical and managerial techniques of Lean Production.
Take the first step toward advancing your career in the semiconductor industry. Learn more and become a key player in the future of technology. Priority will be given to students and faculty from educational institutions.
Professional careers is now available for the semiconductor industry.
The field of advanced materials for semiconductors is pivotal for developing new materials that enhance the performance and capabilities of semiconductor devices. Careers in this area involve research and development of cutting-edge materials that drive innovation in the semiconductor industry. Choosing a career in advanced materials offers the chance to contribute to the next generation of semiconductor technology. Sample careers include
Apply now to join one of the six Technical and Professional Skills pathways and build the skills needed to contribute to the global semiconductor ATP industry. Access curated courses and earn digital badges from leading U.S. universities to advance your career in advanced packaging.
Currently John is working as an Instructional Designer Principal for Global Outreach and Extended Education focusing on work with the International Technology Security and Innovation (ITSI) Program. This work involves assisting faculty from six different countries in creating semiconductor credentialing programs in their home universities.
Emilia Franco is the Communications Specialist for the ITSI Project at Arizona State University (ASU). She leads the development and implementation of communication strategies, including social media campaigns, event promotion, and content creation, to amplify the project’s impact across global regions.