Mariam Kadees

Designed and customised patient-specific upper limb prosthetic devices, using SolidWorks and Fusion 360 to develop components and full assemblies tailored to anatomical and functional requirements. Fabricated and iterated prototypes using rapid prototyping (3D printing), optimising for durability, comfort, and mechanical performance. Conducted functional and load-based testing to evaluate grip strength, joint articulation, and structural integrity under real-use conditions. Applied iterative improvements based on user feedback and testing outcomes, enhancing device usability and reliability. Delivered assistive solutions that improved user independence and daily function, aligning with patient-centred engineering principles.

Supporting the development of experimental medical device systems through the design and integration of SolidWorks and Fusion 360-based components, combined with rapid prototyping (3D printing) within functional test setups. Designing and assembling custom experimental rigs to evaluate system performance under controlled conditions. Conducting quantitative testing, data acquisition, and analysis (Python/Excel) to identify performance trends and failure points. Applying iterative design improvements to enhance system reliability, sensitivity, and repeatability. Collaborating within a multidisciplinary team to translate experimental results into practical engineering improvements for device development.

Led a 5-month project to design and develop a high-performance prosthetic knee system for dynamic, high-load environments. Designed full assemblies in SolidWorks and Fusion 360, including motion studies, tolerance considerations, and rapid iteration cycles. Developed and validated multiple prototype iterations, performing mechanical testing under simulated loading conditions to assess stability, articulation, and durability. Integrated sensor-informed design concepts to enhance control and responsiveness. Identified failure modes and implemented design optimisations, improving structural performance and functional range. Applied a full design → test → validation → optimisationengineering workflow.

Applied biomechanical principles to analyse forces, stresses, and deformation within biological tissues, informing the design of prosthetic and assistive systems. Evaluated stress–strain behaviour of hard and soft tissues, linking mechanical properties to functional performance and user comfort. Translated theoretical biomechanics into engineering design considerations for load transfer, joint mechanics, and device interaction with the human body. Supported the development of user-centred, mechanically efficient assistive technologies.

Conducted a comparative evaluation of assistive systems (exosuits and exoskeletons), focusing on mechanical performance and human-device interaction. Applied gait analysis and movement assessment to evaluate efficiency, force assistance, and adaptability. Assessed design trade-offs between mechanical performance, comfort, and long-term usability, aligning with real-world prosthetic challenges. Generated engineering insights to inform the design of adaptive, high-performance mobility systems.