There are several reasons why a person might want to take an information engineering course. This degree will give them the solid foundation they need to pursue a master’s degree in information technology. This degree focuses on different areas of information science, including computer networks, optics, photonics, and the internet. They will also get exposure to various kinds of laboratory work, including Internet and multimedia labs and optical fiber and microelectronics labs. Students will also learn about design and innovative techniques.
Embedded systems
Embedded systems are special-purpose computers that are built into devices not generally considered computers. These devices include medical equipment, consumer electronics, and even wearable fitness trackers. Embedded systems are a growing field, and the market for them is growing at an astonishing 50% annually. Embedded systems have unique challenges because they must be small, high-performance, and reliable, while also sensing their surroundings.
Students learn the field’s fundamentals through an integrated approach that emphasizes hands- on projects and case studies.
Embedded systems is a new discipline that lies at the intersection of electrical and computer sciences. Ohio University offers a master’s degree in information engineering devoted to embedded systems. The course is taught by Rahul Mangharam and is integrated with the University’s Center for Embedded Computing and Integrated Systems Engineering. Once enrolled, students will have the opportunity to explore this exciting field in more detail.
Microprocessors
If you have taken an information engineering course, you’ve probably heard about microprocessors. While you’re likely to get an introduction to this type of processor, you’ll also learn about its architecture and how it works. Learn more about the basic concepts of microprocessor architecture by taking ECET 20500. This course focuses on the architecture of microprocessors, including the different types of processors and their functions, the various design considerations, and the architecture. You’ll also learn about microcontrollers, which are a type of computer, with their own set of specifications.
A microprocessor is a miniature electronic device with control, arithmetic, and logic circuitry. It performs functions like a central processing unit in a digital computer, interpreting and handling program instructions. It is also capable of a wide range of digital operations, including floating- point and integer math. The course also includes introductory C programming. The course also explores the basics of hardware abstraction and computer programming for embedded systems.
Network forensics
Learning about network forensics in an information engineering course will help you identify network attacks, identifying the source of data, and recovering data. This skill is useful in many situations, including security, law enforcement, and human communication. The basic knowledge of network protocols is important to forensics, which involves recovering entire data sets from digital evidence. The skills learned in this course are particularly useful in the event of cybercrime, such as when hackers erase all of the logs from a compromised host.
The advanced network forensics course, FOR572, requires knowledge of full-stack networking. This means knowing how to use Linux shell utilities, forensic techniques, and full-packet analysis. Students are required to complete eight courses in this course and a 60-point project. Students take courses in both theory and practical labs, as well as a research project. Students are provided with specialist hardware and software for the research component. However, enrolment is subject to course availability and other requirements.
Mobile communication
A course on information engineering for mobile communication will provide students with a comprehensive understanding of network design principles and practices. This course also explores the concepts of digital signal processing and image processing, as well as the use of various communication technologies. Students will develop their theoretical and practical skills in the field and use a novel embedded system board to implement popular networking protocols.
The course will be split into two sections. The first part introduces the students to the fundamentals of fiber-optic communication. The second part of the course focuses on the application of the concepts.
Students will gain an overview of the latest developments in wireless communication systems. The course will explore a range of cutting-edge technologies and methodologies, including the LTE / LTE-A Cellular System, Near Field Communications, and Underwater Wireless Communications. The course will also include a laboratory section, which reinforces the concepts taught in class. Students will learn experimental techniques in geometrical optics and signal processing. The course is an excellent foundation for those interested in the future of wireless technology.
