Formulation of a generalized experimental model for a manually driven flywheel motor and its optimization

Area of Science:

• Mechanical Engineering
• Human-Machine Systems
• Sustainable Manufacturing

Background:

• A manually operated brick-making machine was developed using empirical methods.
• The machine comprises a pedal-driven flywheel motor, transmission, and process unit (auger, cone, die).
• Initial development relied on general mechanical design experience and intuition, proving functional and economical.

Purpose of the Study:

• To scientifically develop and model the pedal-driven flywheel motor component of the brick-making machine.
• To address the challenges of modeling a human-machine system where a logic-based approach is unsuitable.
• To optimize the motor's performance based on experimental data and multiple objective functions.

Main Methods:

• Adoption of an experimental methodology to overcome the limitations of a logic-based model for the human-machine system.
• Development of a generalized experimental model for the pedal-driven flywheel motor.
• Optimization of the experimental model to satisfy several defined objective functions.

Main Results:

• A functional and economically viable pedal-driven brick-making machine was initially created.
• A generalized experimental model for the pedal-driven flywheel motor was successfully evolved.
• The experimental model was optimized to meet multiple performance criteria.

Conclusions:

• The experimental approach is effective for developing and optimizing human-machine systems like the pedal-driven flywheel motor.
• Scientific development of the brick-making machine's components can enhance its overall performance and viability.
• This research provides a foundation for further scientific refinement of manually operated machinery.