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The NextGen Machine Systems research group bridges the gap between advanced machine kinematics, dynamics and vibration analysis, innovative manufacturing, and structural longevity. The research topic combines CAD, analytical and computational modelling with rigorous experimental validation to develop next-generation fabrication procedures, optimized power tools and automated systems
Core Research Themes
- Functional Kinematic Interactions: Designing and optimizing multi-axis mechanisms and assemblies to achieve specific functional requirements tailored towards innovative cost effective and versatile systems that minimise production times.
- Dynamics & Modelling: Developing high-fidelity multi-body simulations and finite element models (FEM) for optimal structural integrity that enhances fatigue life while minimising material cost.
- Innovative Fabrication: Designing novel manufacturing and assembly methods—such as advanced automated layering for composite structures—optimized for production performance and end product cost-structural integrity ratios.
- Custom Tool Development: Engineering task-specific power tools from the ground up, tailored to precise industrial requirements and functional parameters.
- Design, Test & Validate: Transforming CAD assemblies into physical prototypes, followed by empirical validation using specialized and tailor designed laboratory test rigs.
- Structural Integrity & Life Cycle Analysis: Predicting vibration-induced fatigue, material degradation, and long-term mechanical durability to optimize machine output.
- Human-Machine Interaction: Evaluating the ergonomic impact of mechanical systems, specifically focusing on managing hand-arm and whole-body vibration exposure for operators.
From Theory to Impact
The closed-loop research approach ensures that theoretical insights directly improve real-world machinery—maximizing structural lifespan, reducing mechanical failure, and optimizing human-machine efficiency.
