PO1 – Advanced Engineering Knowledge
Apply advanced mathematics and electronics concepts to solve complex VLSI and embedded engineering problems.
PO2 – System Analysis
Analyse integrated circuits and embedded systems using analytical, computational, and simulation-based methods.
PO3 – System Design
Design VLSI architectures and embedded systems considering performance, reliability, and power constraints.
PO4 – Research and Investigation
Conduct investigations using simulations, experimentation, and analytical techniques to derive valid conclusions.
PO5 – Modern Tool Usage
Apply advanced VLSI design, verification, and embedded development tools with awareness of limitations.
PO6 – Engineering and Society
Assess societal, environmental, and safety implications of electronic and embedded system solutions.
PO7 – Sustainability Awareness
Incorporate energy efficiency and sustainable practices into system and hardware design decisions.
PO8 – Professional Ethics
Demonstrate ethical responsibility and professional integrity in engineering practice.
PO9 – Communication Skills
Communicate technical concepts effectively through documentation, reports, and professional presentations.
PO10 – Project and Engineering Management
Apply engineering management principles to plan and execute complex system design projects.
PO11 – Independent Learning
Engage in continuous learning to adapt to evolving tools, standards, and technologies.
PO12 – Technical Leadership
Demonstrate leadership capability within technical and multidisciplinary environments.
Balanced emphasis on chip-level design and system-level embedded implementation.
Curriculum reflects contemporary semiconductor and embedded development practices.
Learning built around simulations, prototyping, and analytical investigation.
Prepares graduates for specialist roles, consultancy positions, and doctoral research pathways.
The M.Tech program in VLSI and Embedded Systems at Amrita Sai Institute of Science and Technology focuses on advanced design of integrated circuits and embedded platforms. The curriculum covers VLSI system design, embedded processors, real-time operating systems, hardware–software co-design, and system verification. Through rigorous coursework, simulation-driven analysis, and laboratory-oriented learning, students develop the depth and precision required for semiconductor design, embedded product development, and research-focused technology roles.
A curriculum structured to integrate semiconductor design with embedded system development.
Balanced emphasis on chip-level design and system-level embedded implementation.
Curriculum reflects contemporary semiconductor and embedded development practices.
Learning built around simulations, prototyping, and analytical investigation.
Prepares graduates for specialist roles, consultancy positions, and doctoral research pathways.