Curriculum: Master of Engineering in Electrical Engineering

Introduction to sensor principles, design and implementation, signal conditioning, instrumentation and networking, and applications in engineering practice. Designed for CEAS students and students with STEM backgrounds.

Industry 4.0 describes the evolution of industry toward inter-connectivity, automation, machine learning, and basing decisions on real-time data acquisition. The course provides students a broad understanding of the industrial internet of things (IIOT) which encompasses physical production and operations with smart digital technology, machine learning, and big data analysis to create a connected ecosystem for organizations that focus on manufacturing and supply chain management.

This course examines the non-technical factors that enable engineers and other technical professionals to maximize their contribution to organizational effectiveness. The course covers communication processes and impediments to effective communication including written communication, presentations, and meeting facilitation. Models of motivation as regards technical professionals are presented and their application to the work setting are examined. Leadership models and the interaction of leaders and followers are also presented. Conflict management and appropriate methods for constructively dealing with this are discussed. Students develop personal development plans for continued learning and performance improvement.

Study the current technology and use of intelligent industrial controllers utilized in electric energy, manufacturing, material handling / processing, mass transit, and other industrial plants. Selection and programming of Programmable Automation Controllers (PACs), Programmable Logic Controllers (PLCs), and Distributed Control Systems (DACs) are covered.

Industry 4.0 (I4.0) is characterized by: Increased automation, bridging of the physical and digital world through cyber-physical systems, Industrial IoT, access to data and use of that data to drive decisions and AI and machine learning to improve processes. Industry 5.0 is not another revolution but a complementary approach that includes a focus on implementing strategies that enable sustainability and resilience.  Additionally, the call to elevate people and culture has become a focal point for organizations and policymakers alike. Implementing Industry 4.0 technologies and processes is a daunting task, and many businesses can get stuck due to the overwhelming nature of the required expertise and the fear of failure. Effective implementation requires not only technical expertise but also a reinvention of leadership models and company culture.

This is a course for students in their first or second year of their graduate studies and for undergraduate students in the senior year. This course introduces and analyzes intelligent systems used in flexible manufacturing systems. The coursework includes expert systems, fuzzy logic, neural networks and applications with intelligent systems in manufacturing and material handling. The student's understanding gained from this course will be evaluated by a midterm and final exams, homework assignments and a course project.

Interdisciplinary Innovation for Engineers provides students in technical disciplines a practical and focused understanding of innovation competencies and processes needed to add high-order value to all organizations in a dynamic economy. This interdisciplinary course will enable students to develop foundational attitudes, skills, and knowledge for both core business and engineering innovation functions. This course is designed as a practical, systems-oriented, meaningful experience for learning future-oriented competencies to contribute to all types of organizations while accelerating career enhancement

Industrial big data includes all types of data generated from industry applications consisting of machine operation, manufacturing process and maintenance events, etc. In today’s competitive business environments, companies have urgent needs to use advanced analytical tools to manage their industrial data to gain more insights of their operations. This course will introduce students to advanced technologies—such as advanced signal processing, pattern recognition & machine learning and predictive analytics—that ultimately enable the conversion of industrial big data into actionable information that can be used to improve the design, the productivity and the efficiency of manufacturing operations.

Student works under the direction of a faculty member to complete the MEng capstone project.

This course is designed for professionals who already have basic knowledge of Python programming and basic algorithms, but are looking to refresh their knowledge and expand their hands-on skills on recent Machine Learning tools. Students will be introduced to popular AI techniques conceptually and will learn to evaluate the performance of the algorithms themselves, taking advantage of the latest tools available. Furthermore, they will learn how to adapt and customize the algorithms on new problems reviewing examples. Supervised learning techniques (regression, classification, neural networks and SVM), unsupervised learning techniques (clustering, SOM, PCA) and anomaly detection algorithms will be covered. This course is not approved for use in EECS Graduate programs.

Cyber-physical systems integrate computation, communication, and physical processes. They interact with the world in real time. With the growth of powerful networks and the Internet of Things (IoT), these systems are charged with performing many tasks for which reliability, safety, and security are critical. This course focuses on the development of trusted cyber-physical systems, which can be counted on to perform their tasks at defined levels of reliability, safety, and security.