Graduate Program

Master of
Electrical and Computer Engineering

Engineer technologies that connect, sense and compute.

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Why Rice for your MECE?

Rice's Master of Electrical and Computer Engineering is built for engineers and computer scientists who want to design the chips, systems and AI behind modern technology

Build something real in Houston

Design and test an advanced product or analyze real-world data in a year-long capstone. Some teams work with companies, faculty or Texas Medical Center startups.

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Earn up to a 66% tuition scholarship

Every MECE applicant is considered for a merit scholarship covering 25% to 66% of full-time tuition. Awards are shared in admission letters.

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Get individual mentoring

Rice’s small size means faculty, including your program director and academic advisors, work directly with you on skills, internships and job searches.

Meet our faculty

Where can a Master of Electrical and Computer Engineering take you?

Rice MECE graduates design chips and GPUs, build AI and machine learning systems, develop software and engineer wireless technology. Many land their first job in integrated circuit design, with Silicon Valley and Austin as the most common destinations.

Career paths:

  • System-on-a-chip (SoC) design
  • Machine learning engineering
  • ASIC design
  • Software engineering
  • GPU post-silicon engineering
  • Research data science
  • AI engineering
  • RF engineering

Explore Career Resources

Program Overview

Choose one of seven specializations and take two advanced courses in the area you want to work in.

AI on a chip

AI and Systems

Design machine learning models and the computing systems that run them efficiently.

Computer chip

Computer Engineering

Design chips, circuits and computer architectures, from VLSI to custom hardware.

computer chip

Computer Vision

Teach machines to see, using imaging, sensing and deep learning.

digital health monitor

Digital Health

Build sensors, imaging and AI tools that improve health care, with ties to the Texas Medical Center.

head with brain graphic

Neuroengineering

Develop technology that measures, analyzes and influences activity in the brain and nervous system.

quantum spining orb

Quantum Engineering

Apply photonic, electronic and magnetic technologies to quantum sensing, simulation and networks.

wireless sign on a board

Wireless Systems

Design the signals, networks and devices behind next-generation wireless.