Certificate of Completion

Semiconductor Characterization Techniques and Applications Certificate

Unlock the tools that reveal how semiconductor devices really work. This course equips engineers and technical professionals with practical semiconductor characterization techniques—from electrical measurements to beam, optical, and X-ray analysis—so they can diagnose materials, evaluate device performance, and support real-world manufacturing, reliability, and process decisions.

$799

Total: Course cost

25-35 Hours to complete

Duration

Online - self-paced
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Overview

This course provides a comprehensive, application-focused introduction to semiconductor characterization techniques used to evaluate materials and devices. Learners progress from core semiconductor physics to hands-on electrical, beam-based, optical, and X-ray methods, gaining practical insight into how measurements inform device performance, reliability, and manufacturing process decisions.

Emphasis is placed on interpreting measurement data to support engineering analysis, diagnose issues, and guide decisions across research, development, and production environments.

Expert-Led Live Session

As part of this course, learners are invited to attend a live, online session featuring instructor-led discussion, industry standard CAD tools, and Q&A. Attendance is optional, and a recording will be available for those unable to join live.

  • October 15, 2026 (10:00 am AZ Time)

This session brings key course concepts to life by revisiting semiconductor fundamentals, including P–N junction diodes, MOS capacitors, and diode I–V behavior. Through guided Technology CAD (TCAD) simulation, participants will see how device physics translates into practice, with visualizations of energy band diagrams and I–V/C–V characteristics that deepen understanding of real-world semiconductor behavior.

Students are encouraged (though not required) to have worked on Modules 1 and 2 before joining the session.

Key Benefits

  • Understand and analyze the electrical behavior of diodes and MOS-based devices
  • Apply multiple semiconductor characterization techniques to real-world engineering scenarios
  • Distinguish among electrical, beam, optical, and X-ray methods and their appropriate use cases
  • Interpret measurement data to evaluate material properties and device performance

What’s Included

  • Five structured modules covering foundational and advanced semiconductor characterization techniques
  • Case-study projects simulating semiconductor processing, device performance, and reliability challenges
  •   Knowledge checks and assessments reinforcing applied measurement and data interpretation concepts”
  • Step-by-step instruction using industry-relevant and research-grade characterization tools

By the end of the course, you’ll be prepared to analyze semiconductor materials and devices with confidence using modern characterization techniques.

Course Modules

This module reviews core semiconductor physics needed for characterization, focusing on CMOS-relevant materials and devices. Learners revisit energy band diagrams, carrier transport, p–n junction diode I–V behavior, and MOS capacitor C–V characteristics to build a foundation for interpreting measurement data throughout the course.

Who this course is designed for

  • Engineering students, early-career semiconductor professionals, and technicians seeking practical experience in device and materials characterization

  • Individuals pursuing roles in semiconductor manufacturing, process engineering, device engineering, or materials analysis

  • Learners aiming to build hands-on measurement skills and strengthen data interpretation abilities

  • Those looking to develop fluency with industry-standard and research-based characterization techniques

Outcomes

By the end of this course, you’ll be able to:

  • Identify and analyze key characteristics of CMOS materials and devices using appropriate measurement techniques

  • Apply semiconductor characterization methods to real-world device, materials, and process evaluation scenarios

  • Distinguish among electrical, beam-based, optical, and X-ray characterization techniques and select appropriate methods for specific applications 

These skills directly apply to these careers

Industrial Engineer

Develops systems to integrate workers, machines, materials, and information for optimal manufacturing and logistics performance.

Median Salary: $99,380

Materials Engineer

Evaluate materials and develop machinery and processes to manufacture materials for use in products that must meet specialized design and performance specifications.

Median Salary: $100,140

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