Optimization and Control of A Piezoelectric Vibration Energy Harvester Integrated with A Non-Linear Flexible Manipulator

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 […]

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Application for 5-axis 3D printing project at Concordia University under the supervision of Dr. Tsz Ho Kwok

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 […]

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Flame spray pyrolysis-induced direct deposition of plasmonic nanoparticles on TFBG optical fiber for sensing applications

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) […]

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Controlled Self-Injection Techniques for Enhanced Laser Dynamics in Silicon Photonic Systems

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 […]

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Development of Biodegradable Gelatin Based Logic Gates for Soft Robotics Control Systems

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 […]

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Optimization of laser beam machining process parameters to minimize recast layer

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 […]

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Development of an Inline Testing Method for Resistance Spot Riveting

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, […]

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L2M QC 2024 – «Development of Printed Electrochemical Sensors for Efficient CO2 Monitoring and Carbon Capture Applications »

The development of low-power, printed gas sensors is revolutionizing the monitoring of harmful gases like CO2 across various industries. This innovative technology offers a real-time, advanced, and cost-effective solution for detecting and measuring gas levels, significantly enhancing environmental monitoring and industrial process optimization. Utilizing resistance-based and electrochemical sensing approaches, these sensors are part of a […]

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L2M – Commercialization Plan for Terahertz Measurement in Printed Electronics

Printed electronics has the potential to deliver low-cost, high-volume fabrication of electronic devices, but is currently held back by the lack of a specialized quality control solution. Today, verification of functional properties such as conductivity is done with teams of technicians using simple multimeter probes, lacking the speed and accuracy required to characterize roll-to-roll production. […]

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Optical characterization of 2D functionalized nanomaterials in the gas phase

Graphene is a promising new nanomaterial, single layers of graphite, with superior physical and electrical properties making it an ideal candidate for electrical applications; however, current graphene production methods are expensive and complicated. As a result, new materials that have similar properties to graphene, but are more amenable to high-yield production are currently being investigated. […]

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Accelerating electronic structure simulations on quantum computers using complete active space approximations

Computational chemistry is a powerful tool in the development of new pharmaceuticals, materials, and batteries. With accurate and fast computational methods, one can predict the physical and chemical properties of a molecule without having to prepare it in a laboratory and perform experiments, which can yield dramatic time and cost savings. However, the chemistry of […]

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