Apple New Silicon Initiative:  VLSI Design and Fabrication

The Apple New Silicon Initiative at Prairie View A&M University aims to cultivate VLSI design and fabrication talent. Developed in partnership with Apple, the program introduces students to chip design concepts early in their academic journey, equips them with essential skills for next-generation chip development, and provides a supportive ecosystem including lab facilities, guest lectures, and mentorship. The curriculum, co-created with Apple experts, ensures alignment with industry standards. Faculty receive training to integrate industry-relevant content into courses. A vibrant Computer Hardware and VLSI Design club promotes collaboration and innovation. The initiative empowers students with hands-on experience, internships, and scholarships. Through this comprehensive approach, the initiative prepares a diverse cohort of future innovators poised to shape the technological landscape.  Click link to learn more.

Quantum and Nanomaterials and Devices

The Quantum-aware Complex-valued Neural Networks Design and Implementation project stands at the forefront of cutting-edge research, poised to revolutionize the intersection of quantum computing and artificial intelligence. Supported by the prestigious IBM-HBCU Quantum Center, this ambitious initiative embodies a holistic approach, intertwining advanced research, curriculum development, and community outreach to propel innovation and foster inclusivity in the scientific landscape.

At its core, the project delves into the realm of complex-valued neural networks, leveraging the inherent capabilities of quantum computing to transcend the limitations of classical computing paradigms. By harnessing the principles of quantum mechanics, researchers aim to engineer neural networks capable of processing and analyzing complex-valued data with unprecedented efficiency and accuracy.

Collaborative Effort to Build HBCU Capacity in Quantum Information Science and Engineering Education

The Collaborative Effort to Build HBCU Capacity in QISE Education project aims to enhance the educational and research capabilities of Prairie View A&M University (PVAMU),  Southern University and Grambling State University in the field of Quantum Information Science and Engineering (QISE). This initiative involves partnerships between HBCUs,  Texas A&M University at College Station, industry leaders, and government agencies to achieve several key goals:

• Curriculum Development: Creating and implementing QISE-related courses and programs at PVAMU to ensure students receive cutting-edge education in this emerging field.
• Faculty Training: Providing training and professional development opportunities for PVAMU faculty members to equip them with the necessary knowledge and skills to teach and conduct research in QISE.
• Research Collaboration: Establishing collaborative research projects between PVAMU and established QISE research institutions to foster innovation and practical application of quantum technologies.
• Resource Allocation: Securing funding and resources to support QISE education and research infrastructure at PVAMU, including laboratories, equipment, and materials.
• Student Engagement: Creating pathways for PVAMU students to participate in internships, research experiences, and other hands-on learning opportunities in QISE.

The overarching goal of this project is to build a diverse and inclusive workforce in the QISE field by ensuring that PVAMU has the capacity to educate and train the next generation of scientists, engineers, and researchers in quantum technologies.

Hardware Security:  The Quantum Information Science and Engineering Research (QISE) Program

The Quantum Information Science and Engineering Research (QISE) Program, led by Prairie View A&M University (PVAMU) in collaboration with Virginia Tech, focuses on quantum communications and cryptography. PVAMU leads the establishment of Quantum Optics and Quantum Key Distribution testbeds. The program enhances PVAMU’s workforce development through curriculum development, student and faculty research, and professional development opportunities. IBM, an industry partner, contributes to research on Hardware Security. This interdisciplinary initiative empowers students and faculty to explore cutting-edge quantum technologies while fostering collaboration between academia and industry to address challenges in quantum information science and engineering.

Introducing Our Future-Ready Semiconductor Research Facility

Step into the future of semiconductor research within our newly established 106,000 square foot Engineering Classroom and Research Building. While the equipment may be on its way, the groundwork has already been laid for an unparalleled research environment on the third floor.

  Figure 1:  Layout for Clean Room

Spanning 700 square feet, our meticulously designed space is poised to house cutting-edge semiconductor and chip research activities. Every detail, from the layout to the flooring, has been carefully planned to accommodate the intricate needs of advanced research in this field.

Central to our facility is the ISO 6 clean room (Class 1000 cleanroom), meticulously constructed to meet the stringent requirements of semiconductor research. Equipped with state-of-the-art HEPA filtration systems, the air purity within this space is guaranteed, setting the stage for groundbreaking discoveries.

While the equipment is yet to arrive, our facility stands ready, waiting to be transformed into a hub of innovation. With the layout optimized for seamless workflow and the flooring designed for both durability and functionality, our researchers will have the perfect canvas upon which to pioneer the future of chip design and development.

Microelectronics Concentration:  

We offer Bachelor’s, Master’s, and PhD degrees with a specialized focus on microelectronics, ensuring that students at every level have the opportunity to delve into this area. Our curriculum combines theoretical foundations with practical applications, equipping students with the skills and knowledge needed to excel in both academia and industry.  Courses offered.

• ELEG 2311 Logic Circuits
• ELEG 2131 Logic Circuits Lab
• MCEG 2303 Materials Science and Engineering
• ELEG 3303 Physical Principles of Solid State Devices
• ELEG 3104 Microelectronic Processing and Characterization Lab
• ELEG 3307 Microprocessor System Design
• ELEG 3107 Microprocessor Systems Design Laboratory
• ELEG 3304 Electronics I
• ELEG 4304 Electronics II
• CHEG 2301 Materials Science
• ELEG 4101 Electronics Laboratory
• ELEG 4131 Advanced Logic Design Laboratory
• ELEG 4325 Computer Interfacing and Communications
• ELEG 4326 VLSI Circuit Design
• ELEG 4330 Introduction to Digital Design
• ELEG 4335 Advanced Logic Design
• ELEG 4336 Introduction to High Performance Computing
• ELEG 4339 Computer Organization and Design
• ELEG 4361 Design of Digital System Applications Using Field Programmable Gate Array Devices
• Advanced VLSI Design Test and Characterization
• CHEG 5302 Microelectronics Materials
• MCEG 5325 Advanced Engineering Materials
• ELEG 6310 Advanced Computer Systems Design
• ELEG 6311 Computer Architecture & Advanced Logic Design
• ELEG 6341 Advanced Field Programmable Gate Array Design and Applications
• ELEG 6342 VLSI and ULSI Design
• ELEG 6350 Advanced Photonics Materials and Devices
• ELEG 6351 Advanced Quantum Devices
• ELEG 6352 Advanced Characterization of Materials and Devices
• ELEG 6365 Intro to High Perf Computing

Launching a Graduate Certification Program in Computer Hardware and VLSI Design

This program is tailor-made to equip professionals with the specialized expertise required to excel in today’s fast-paced, technology-driven landscape. The program delves into the intricate world of computer hardware and VLSI design. Through a dynamic blend of theoretical insights and hands-on experience, participants will gain invaluable skills and insights that are directly applicable to real-world scenarios.

Industry Collaborations

Developed a modern semiconductor curriculum in collaboration with industry partners including Apple, Texas Instruments, Micron, Intel, Cadence and Siemen, now offer more than 30 classes and labs.

Collaborated with Apple to revamp our undergraduate computer engineering curriculum

Our coursework aligns with the latest industry trends and technological advancements

Click link to learn more.

University Collaborations

R1 Institutions

• Texas A&M University College Station
• Rensselaer Polytechnic Institute
• Virginia Tech

Historically Black Colleges and Universities

• Texas Southern University
• Alabama A&M

Radiation Effects on Electronics

This project focuses on testing electronic devices under planetary conditions to ensure their reliability and functionality in space environments. The primary objective is to design and test electronic devices that are radiation-hardened, capable of withstanding the harsh radiation encountered in space applications. This project involves simulation and testing, design optimization and performance evaluation.

• Simulation and Testing: The project involves simulating the radiation environment encountered in space and subjecting electronic devices to these conditions in controlled laboratory settings. This includes exposure to ionizing radiation such as gamma rays, X-rays, and charged particles.
• Design Optimization: Researchers work on optimizing the design of electronic components and systems to enhance their radiation tolerance. This may involve using radiation-hardened materials, implementing redundancy and fault-tolerant architectures, and employing shielding techniques to minimize the impact of radiation.
• Performance Evaluation: Electronic devices are rigorously tested to evaluate their performance and reliability under radiation exposure. This includes assessing parameters such as functionality, speed, power consumption, and degradation over time.

The ultimate goal of the project is to develop radiation-hardened electronic devices suitable for use in space missions. These devices may be deployed in satellites, spacecraft, space probes, and other space exploration vehicles, where they are exposed to high levels of radiation.

Faculty engaged in chip research

• Nabila Shamim – Chemical Engineering – nanomaterials characterization
• Lin Li – Computer Science – data science and machine learning
• Jaejong Park – Mechanical Engineering – advanced manufacturing
• Dr. Lai Jiang – Mechanical Engineering – advanced manufacturing
• Suxia Cui – Electrical and Computer Engineering – advanced computing
• Shuza Binzaid – Electrical and Computer Engineering – integrated circuit design
• Pamela Obiomon – integrated circuit design
• Annamalai Annamalai – Electrical and Computer Engineering – hardware security
• Mohamed Chouikha – Electrical and Computer Engineering – hardware security
• Richard Wilkins – Electrical and Computer Engineering – device characterization
• Lijun Qian – Electrical and Computer Engineering – artificial intelligence and machine learning

Research Centers Engaged in Chip and Semiconductor Research

The Center of Excellence in Research and Education for Big Military Data Intelligence (CREDIT:

Research into big data intelligence involve the development of specialized semiconductor devices optimized for processing large volumes of data efficiently and securely, including devices for quantum computing.

Center of Excellence for Cyber security (SECURE):

Semiconductor research  focus on developing secure hardware components and cryptographic systems to enhance cybersecurity measures.