Program type:

Certificate
Format:

On Campus
Est. time to complete:

2-3 semesters
Credit Hours:

12
Elevate Your Engineering Profile: Master RF, IC Design, and Microwave Technologies
Dive into the physical foundations of modern electronics, bridging analog and digital IC design, microwave engineering, VLSI, MEMS, and power electronics. This certificate provides the practical framework needed to bridge high-frequency circuits and micro-scale physical systems.

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Why Earn a Certificate in RF and Circuit Design?

Designing modern electronic platforms requires working comfortably across both low-power micro-scale devices and high-frequency RF systems. Through this focused track, you will build robust skills in IC design and analysis alongside practical fabrication concepts for microwave components and MEMS devices.

By mastering these high-demand microelectronic discipline areas, you will position yourself to solve complex signal, power, and physical integration challenges across telecommunications, aerospace, and semiconductor manufacturing.

RF and Circuit Design Certificate Courses You Could Take

Microwave Engineering
Introductory course for microwave engineering. Gives a general description of the fundamental microwave circuits and components. Topics include basic electromagnetic wave propagations, RF/microwave transmission lines, Smith Chart, RF matching networks and fabrication of RF/microwave circuits.
Micro-Electro-Mechanical-Systems (MEMS)
Designed to provide an introduction to conventional micro-electro-mechanical systems (MEMS). Begins with an overview of the semiconducting properties of silicon, the workhorse of the microelectronics industry. The impact of continued miniaturization on transistor performance is highlighted according to Moore’s Law. Moving from Silicon as an electronic material, its mechanical properties are discussed which has been pivotal in the creation of the field of MEMS. A review of microfabrication technology conventionally used to form MEMS structures and devices using batch-fabrication is provided, which includes topics such as: photolithography, etching, physical vapor deposition, chemical vapor deposition, surface micromachining and bulk micromachining. Soft materials and thick film processes are also discussed that have been key enablers for microfluidics and BioMEMS. The practical applications of MEMS for sensors and actuators are highlighted, where electrostatic, thermal, piezoelectric and magnetic transduction schemes are used for actuation and sensing, including for RF wireless systems and bio-related applications for Lab-on-Chip (LOC). Students gain a broad perspective in the area of miniaturized systems for sensors and actuators. The laboratory modules are intended to reinforce the concepts discussed in the lectures, with practical hands-on learning exercises. The lectures and accompanying lab modules will help cultivate interdisciplinary perspectives with hands-on exercises developed for the students. 
Analog Integrated Circuit Design
Thoroughly investigates the fundamentals in design and analysis of analog and mixed-signal integrated circuits. Topics include analog MOS transistor models, current sources and sinks, circuit reference, amplifier, feedback amplifiers, differential amplifiers and operational amplifiers.
Power Electronics
Presents the use of electronic devices to control and convert electric power. The basic principle of power conversion techniques and their applications are introduced. Students obtain the fundamental knowledge to simulate and model of different power electronics converters.

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