Master of Social Work - Traditional
The traditional Master of Social Work (MSW) program at the University at Buffalo is des...
M.S. in Engineering Science - Microelectronics and Semiconductor Engineering
Buffalo, New York
INTAKE: Jan & Aug
Program Overview
The M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) at UB is a 30-credit hour, coursework-focused program. It is typically completed within 12 to 18 months for full-time students. The program is designed to deepen students' knowledge of computer science topics and increase their employability in the semiconductor domain. It provides the necessary knowledge to compete for the substantial employment opportunities expected in the coming years due to the expansion of this sector. The program emphasizes a blend of theoretical understanding and hands-on practical work, covering various aspects of semiconductor production from research and circuit design to manufacturing methods.
STEM Designated: Yes, the M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) program at the University at Buffalo is STEM-designated. This classification is highly beneficial for international students, as it allows for an Optional Practical Training (OPT) extension of 24 months beyond the initial 12 months, totaling up to 36 months of work authorization in the U.S. after graduation. This designation underscores the program's rigorous technical and scientific curriculum, crucial for addressing complex challenges in microelectronics.
Curriculum: The 30-credit curriculum for the M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) focuses on providing comprehensive training in semiconductor materials, research, and production. While specific course lists may vary, expected courses include subjects in physics, electrical engineering, semiconductor fabrication and manufacturing methods, packaging, computer science, and safety and quality assurance. The curriculum is designed to prepare students for work within the expanding semiconductor industry, covering aspects like circuit design, device physics, and manufacturing processes.
Research Focus: The M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) at UB is closely aligned with the active research environment in the School of Engineering and Applied Sciences, particularly within the Department of Electrical Engineering's "Electronics & Photonics" area. This research encompasses cutting-edge electronic and optoelectronic devices and circuits with broad applications in state-of-the-art technologies. While primarily a coursework-based program, students benefit from exposure to research into new materials (such as silicon carbide and gallium nitride), advanced packaging, specialized ASIC applications, and the increased importance of embedded software. UB also houses the Center for Advanced Semiconductor Technologies (CAST), which integrates research around semiconductor materials, research, and production, further enhancing the program's research-informed approach.
Industry Engagement: The M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) program at UB is highly responsive to the needs of the semiconductor industry, which is poised for significant expansion. The curriculum is designed to provide graduates with the knowledge needed to compete for numerous employment opportunities. The program's focus on both research and manufacturing aspects of semiconductors directly addresses industry demands. The passage of the U.S. CHIPS and Science Act further emphasizes the need for a skilled workforce in this sector, and UB is positioned to contribute to this need. Graduates are prepared for roles in companies involved in chip manufacturing, design, and related technologies.
Global Perspective: The M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) at UB inherently fosters a global perspective due to the inherently global nature of the semiconductor industry. Semiconductors are essential for electronic devices worldwide, making the supply chain and technological advancements a global endeavor. The program's focus on the U.S. positioning itself to lead in global semiconductor research, development, and production underscores this international relevance. As a major public research university, UB attracts a diverse international student body and faculty, enriching the learning environment with varied cultural viewpoints and different approaches to addressing complex engineering problems from around the world. This exposure prepares graduates to work effectively in multinational teams and contribute to global technological innovation in microelectronics.
Location
Buffalo, New York
Score
IELTS 6.5
Tuition Fee
USD 28210
Postgraduate Entry Requirements
Academic Qualifications: Applicants for postgraduate programs typically require a minimum academic achievement of 70% or above in their bachelor's degree.
English Language Proficiency:
- IELTS: Overall band score of 6.5 or 7.0 with a minimum of 6.0 in each component.
- TOEFL: Overall score of 90 or higher.
- PTE: Overall score of 61 or higher.
- DET (Duolingo English Test): Minimum score of 120.
The University at Buffalo (UB) offers a variety of scholarships and financial aid opportunities specifically aimed at supporting international students who wish to pursue their studies in the United States. These scholarships are designed to reward academic excellence, leadership, and community involvement, helping to make education more affordable for talented students worldwide.
Merit-Based Scholarships: UB provides competitive merit scholarships to outstanding international undergraduate and graduate students. Awards such as the International Student Academic Excellence Scholarship recognize high-achieving students based on their academic records, standardized test scores, and extracurricular involvement.
Graduate Fellowships and Assistantships: Graduate international students can apply for teaching assistantships, research assistantships, and fellowships which offer tuition remission and stipends. These opportunities allow students to gain valuable teaching and research experience while offsetting the cost of their education.
Departmental Scholarships: Many academic departments at UB offer scholarships tailored to students in specific programs or fields of study. These awards may consider academic merit, research interests, or financial need.
External Scholarships: UB encourages international students to explore external scholarship options from private organizations, governments, and international foundations that support study in the U.S. The university’s International Student Services office provides guidance on identifying and applying for such funding sources.
Graduates with an M.S. in Engineering Science (Microelectronics and Semiconductor Engineering) from UB are well-positioned for highly specialized and in-demand roles in the semiconductor and broader electronics industries.
Semiconductor Device Engineer: Design, develop, and characterize semiconductor devices (e.g., transistors, diodes) for various applications, focusing on performance, reliability, and manufacturability.
Process Engineer (Semiconductor Fabrication): Develop, optimize, and control the manufacturing processes for fabricating integrated circuits and other semiconductor components in a cleanroom environment.
VLSI Design Engineer: Design and verify very large-scale integration (VLSI) circuits, including digital, analog, and mixed-signal designs, for microprocessors, memory, and specialized chips.
Packaging Engineer: Design and develop advanced packaging solutions for semiconductor devices to ensure their electrical performance, thermal management, and reliability.
Test Engineer (Semiconductor): Develop and implement test methodologies and equipment to ensure the quality and functionality of semiconductor chips throughout the manufacturing process.
Materials Engineer (Semiconductor): Research and develop new materials for semiconductor manufacturing, focusing on their properties, performance, and compatibility with fabrication processes.
Failure Analysis Engineer: Investigate and diagnose the causes of defects and failures in semiconductor devices and processes to improve yield and reliability.
Characterization Engineer: Perform electrical and physical characterization of semiconductor devices and materials to understand their properties and performance.
Product Engineer (Semiconductor): Bridge the gap between design, manufacturing, and customer support, managing product lifecycles and resolving technical issues.
Research Scientist (Microelectronics): Conduct advanced research in universities, government labs, or industrial R&D centers to innovate new semiconductor materials, devices, and fabrication techniques.
