The Precision Scientific Instrumentation Lab (PSILab)

PSILab fosters a multidisciplinary, project-driven approach that emphasizes critical thinking, design creativity, and technical precision. Through exposure to both theoretical and applied methodologies, students develop competencies relevant to advanced research, prototyping, and future careers in high-tech industries, academic research, or entrepreneurial ventures. The lab also serves as a collaborative platform where engineering and physics intersect to address real-world challenges through innovation and experimentation.

What is PSILab?

An interdisciplinary engineering-physics laboratory situated within the Physics Division of the School of Physical and Mathematical Sciences (SPMS) at Nanyang Technological University (NTU), Singapore. Dedicated to hands-on exploration and innovation, PSILab provides a vibrant environment for both undergraduate and postgraduate students to engage in research and development projects at the intersection of physics, electronics, mechanics, and computational systems.

The lab is equipped with a versatile suite of tools and instrumentation that supports a wide range of mechatronic and scientific investigations—from conceptual modeling to experimental validation. Students are encouraged to initiate and lead projects that span multiple domains:

Computational modeling and simulation

Embedded systems and automation

Semiconductor device research

Including the fabrication, testing, and characterization of electronic devices.

Involving sensor integration, real-time data acquisition, signal processing, and actuator control.

Such as micro-magnetic simulations, TCAD (Technology Computer-Aided Design), and other numerical methods for physical systems.

Key Area
of Research

Nanomagnetism and spintronic devices for emerging sensor, memory, and computing applications

This research focuses on developing advanced materials and heterostructures for next-generation memory and logic devices. Key areas include studying spin-orbit torques and magnetization dynamics, essential for spintronic memory technologies, and creating energy-efficient, non-volatile memory technologies such as SOT-MRAM and other SOT-based devices for low-power, high-speed storage. Magnonics explores spin waves for energy-efficient information transfer and processing, with applications in analog-like and non-linear systems. Additionally, integrating spintronic devices with CMOS technology enhances computational efficiency and broadens the scope of future computing systems.

Enhancing Learning and Engagement Through Gamification in Projects and Experiments

Gamification in projects and experiments explores its effectiveness in enhancing student engagement, motivation, and conceptual understanding. By integrating game-based elements and clear objectives, gamification enhances participation and knowledge retention compared to traditional instructional methods. Additionally, it introduces a competitive element, to encourage a more dynamic and interactive learning experience

Featured Projects

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Investigating parallels between human cognition and artificial neural networks

Featured Experiments

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Investigating parallels between human cognition and artificial neural networks

Team members

Meet the minds behind our research— a diverse team of innovators exploring the intersections of human cognition, artificial intelligence, and next-generation memory technologies

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Tools & Facilities

Equipped with advanced tools and state-of-the-art facilities, our team investigates the boundaries of cognition, AI, and memory technologies with precision and innovation.

CO2 Laser Cutter and Engraver

High-precision cutting and engraving machine capable of shaping a wide range of materials including wood, acrylic, and plastics for rapid prototyping and fabrication.