The proposed scientific collaboration is toward developing a new class of porous structure using mathematical design. The structure must be lightweight and capable of removing heat. This structure is advantageous in engineering, such as heat enhancement, heat exchangers, and biomedical engineering (hip, jaw, or femur replacement). The global importance of the proposed research is in […]

The project concentrates on MEMS (Micro-Electro-Mechanical Systems) fabrication process optimization. MEMS devices comprise suspended structures, such as cantilevers, gyros, membranes, etc., which are created by removing sacrificial material around them in order to have these structures released to perform their designated function. Currently, these structures are being released with the use of either dry etch […]

Global transition to a digital society has billions using microelectronic technology in their day-to-day activities. The increasing demand for miniaturization, speed, and reliability must be satisfied with a compact combination of multiple microchips. The technical constraints are quickly surpassing the capabilities of conventional circuit boards. Thus, silicon interposers, a high-cost, high-performance packaging solution for integrating […]

Advanced packaging and high-density chip stacking technologies are pivotal in the evolution of microelectronics, enabling enhanced performance through heterogeneous integration. Hybrid bonding interconnection has increasingly been recognized as the unique bonding method that meets the demands for high-density chip stacking. Cu/SiO2?hybrid bonding is the standard packing interface recently introduced in the industry. However, it faces […]

This project proposes the development of an innovative robotic system that utilizes piezoelectric energy harvesting to convert vibrations into usable energy. The system will be integrated with flexible robotic arms, enhancing their efficiency and sustainability. Collaborative simulations and experimental studies will be conducted at The University of the West Indies (UWI) and the University of […]

We aim to develop new techniques in 5-axis Computer Numerical Control (CNC) machining and 5-axis 3D printing, which are advanced methods used in modern manufacturing. Our project focuses on creating collision detection algorithms to prevent accidents with expensive machinery, ensuring safety remains a top priority. We also plan to develop tool path planning algorithms to […]

The features of optical fibers and the fascinating properties of nanomaterials can be combined to result in an attractive new platform for chemical sensing. Flame Spray Pyrolysis (FSP) has distinct advantages for the assembly of chemoresistive gas sensors compared to their traditional synthesis methods. Modern photonic sensing devices such as tilted fiber Bragg grating (TFBG) […]

The growing demand for high-performance computing (HPC), artificial intelligence (AI), and cloud applications is pushing traditional semiconductor technologies to their limits. This project advances silicon photonics, which uses light for faster, more efficient, and scalable data transmission, making it critical for next-generation computing and communication systems. Focusing on hybrid quantum light sources and nonlinear optical […]

This project aims to advance soft robotic research by developing innovative control mechanisms built from a gelatin-based biogel. Soft robots can deform to navigate through constrained spaces and perform complex tasks in unstructured environments, without the need for complex control. This makes them ideal for a wide range of applications in dynamic environments, including medical […]

This project focuses on improving the component quality after Laser Beam Machining (LBM) for HS188 (AMS5608), a superalloy critical in aerospace and power generation due to its high strength and corrosion resistance. LBM often leaves a recast layer, a residue of resolidified molten material on the side edges, which weakens the material’s strength and corrosion […]

The budding field of soft robotics, robots made of elastic materials such as rubbers or silicone, currently represents a 1.48 billion market size with a compound annual growth of 34.45%. The problem is that there is no specialized tool for the design and simulation of soft robots. Our research has already demonstrated a promising simulation […]

Dissimilar-material joining is becoming increasingly sought after in several industries – including automotive, aerospace, and rail – due to the potential to improve vehicle weight reduction and efficiency while maintaining safety and structural strength. Resistance Spot Riveting (RSRTM) is a novel joining technology designed to enable inexpensive, efficient, and effective dissimilar-material joining. As it stands, […]