Developed expertise in 3D rigid body kinematics and dynamics, utilizing optical measurement systems and experimental instrumentation to analyze joint forces and ground reaction forces.
Applied optimization methods and Lagrange multipliers to solve force-sharing problems and evaluate healthy versus pathologic gait.
Applied principles of continuum mechanics (including deformation gradients, strain tensors, and Cauchy stress) to model the functional behaviour of musculoskeletal and cardiovascular tissues.
Gained experience in constitutive modelling of anisotropic, fibre-reinforced biological materials through integrated laboratory analysis and mechanical testing.
Studied the relationship between material structure and properties, covering phase diagrams, kinetics, and thermal-mechanical processing.
Gained expertise in microstructure control, fracture mechanics, and material selection for engineering design.
Studied the fundamental physics of optical imaging and the engineering behind key microscopy technologies.
Gained a technical understanding of high-resolution imaging modalities used in biological and materials research.
Explored the physics of NMR, spatial encoding, and image formation to understand the engineering principles behind MRI hardware and advanced pulse sequences.
Designed and implemented software algorithms to translate clinical problems into technical specifications, focusing on the segmentation and interpretation of real-world biomedical images using Artificial Intelligence models.
Focused on discrete-time signal processing and the design of digital and mixed-signal circuits.
Gained practical experience in embedded system programming and the development of cellular and molecular instrumentation.
Mastered the application of linear algebra to digital signal processing, focusing on bases, vector spaces, and singular value decomposition (SVD) for solving least-squares problems.
Developed skills in efficiently computing solutions for structured, large-scale systems and advanced DSP applications.
Analyzed the kinematics, statics, and dynamics of robotic arms, focusing on the integration of actuators, sensors, and computer vision for autonomous control.
Gained hands-on experience in robot end effector control and the practical application of robotic systems in industrial and clinical contexts.
Modelled dynamic mechatronic systems using transient and frequency response analysis, emphasizing signal conditioning, filtering, and statistical uncertainty.
Gained hands-on experience in sensor and actuator selection, digitization, and the mitigation of aliasing and quantization errors.
Examined the principles of electromechanical energy conversion in DC, synchronous, and induction machines.
Developed control strategies for motor drive systems and synchronous generator power management through laboratory testing.
Analyzed the chemical and mechanical properties of synthetic and biological materials, focusing on microstructure and the foreign body response in medical implants.
Applied biomimetic concepts to material selection for tissue engineering, prostheses, and biosensors.
Applied the concepts, calculations, and methodologies in molecular, cellular and tissue engineering to solve problems in the areas of molecular diagnostics, pharmaceuticals, nanomedicine and regenerative medicine.
Gained hands-on wet-lab experience with cell biology and culture, stem cells, bioreactors, biomaterials, drug delivery, fluid dynamics, kinetics, and diffusion.
Explored the fundamentals of neuropathology with a focus on diagnostic and prognostic tools for neurological patient management.
Insight into the application of therapeutics and rehabilitative technologies within a clinical bioscience framework.
Evaluated the commercial viability of biomedical technologies by simulating the full technology transfer process, including invention disclosure and provisional patent drafting.
Developed a comprehensive commercialization strategy and delivered a business-oriented pitch to simulate venture capital engagement.
Gained knowledge of FDA and regulatory compliance within the medical device industry in the United States of America.
Hands-on project experience in identifying biomedical needs, concept generation and prototyping, human factors related to design, regulatory issues, intellectual property protection, clinical trials, and commercialization considerations.
Gained knowledge of Health Canada and regulatory ISO's within the medical device industry in Canada.