Load Specification: Determine the specific requirements for lifting a maximum load of 100 kg, considering factors such as safety margins, load distribution, and lifting height.
Mechanical Design: Develop a robust mechanical design for the Screw Jack, considering factors such as thread pitch, screw diameter, and material strength to ensure efficient load lifting.
Material Selection: Choose appropriate materials for the screw, nut, and other components, balancing strength, weight, and cost considerations.
Analysis and Simulation: Utilize engineering analysis tools to simulate and analyze the performance of the Screw Jack under different loading conditions, ensuring structural integrity and identifying potential failure points.
Safety Features: Integrate safety features such as a locking mechanism, overload protection, and fail-safes to prevent accidents or damage during operation.
Efficiency Optimization: Optimize the design for mechanical efficiency, minimizing friction and energy losses to ensure the Screw Jack operates with maximum effectiveness.
Prototyping: Build a functional prototype of the Screw Jack based on the optimized design, allowing for practical testing and validation of the theoretical analysis.
Testing and Validation: Conduct a series of tests to validate the Screw Jack’s performance under various load conditions, comparing the results with theoretical predictions.
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