Dr. Mazzeo was born and raised in Ft. Lauderdale, Florida. He saw his first snowfall as a freshman at the Massachusetts Institute of Technology and then spent two years in Santa Cruz, Bolivia as a missionary for The Church of Jesus Christ of Latter-day Saints. He has worked at Motorola, the MIT Media Laboratory, and Milliken Research Corporation. At MIT, his undergraduate research with Professor Akintunde Akinwande focused on the modelling of amorphous silicon thin-film transistors. He graduated from MIT with a BS in electrical engineering. After MIT, Mazzeo headed to Cambridge University in the United Kingdom on a Marshall Scholarship. Mazzeo worked with Andrew Flewitt on thin-film transistor device modeling before focusing on real-time electrical measurements of biological species in solution, the area of research for which he received his PhD. He joined the faculty in Electrical and Computer Engineering at Brigham Young University in September, 2008.

ECEn 487, Winter 2013, Introduction to Digital Signal Processing

ECEn 662R, Fall 2012, Electromagnetic Properties of Materials

ECEn 490, Winter 2012, Senior Project

ECEn 370, Winter 2012, Probability Theory

ECEn 490, Fall 2011, Senior Project

ECEn 670, Fall 2011, Stochastic Processes

ECEn 490, Winter 2011, Senior Project

ECEn 370, Winter 2011, Probability Theory

ECEn 662R, Fall 2010, Electromagnetic Properties of Materials

ECEn 370, Winter 2010, Probability Theory

ECEn 670, Fall 2009, Stochastic Processes

ECEn 370, Winter 2009, Probability Theory

ECEn 301, Fall 2008, Elements of Electrical Engineering

Dr. Mazzeo's research focuses on the electromagnetic measurement of liquids containing biological species. Current projects in the group include time-resolved dielectric spectroscopy of protein solutions, RF measurement of protein solutions in capillary tubes, and the use of liquid electrodes for microfluidic electrical measurement. Collaborative projects include protein and salt separation methods and electrical detection.

In addition, his research includes simulation techniques for biological objects in liquids. More recently, his work has focused on non-destructive methods to quantify properties of materials used in civil and chemical engineering applications.

Group Website