The application provides a floor
grinding machine gear box guide plate structure parameter optimization design method, which is used for determining the optimal values of three radial clearances between the guide plate and the
gear tooth top. Firstly, a parameterized gear
box model containing clearance as a variable is constructed, and a
gear oil stirring loss theoretical model is established based on the boundary layer theory and the fluid resistance theory; taking the maximum
lubrication efficiency as the target and the oil stirring
power loss not exceeding the set threshold as the constraint condition, a
central composite design method is used to select representative sample points in the
design space; through computational fluid dynamics
simulation, a moving particle semi-implicit method is used for splash
lubrication transient analysis to obtain performance data of each point; based on the
simulation data, a high-precision proxy model is constructed; finally, under the condition of meeting the oil stirring
power loss constraint condition, the maximum
lubrication efficiency is taken as the target for optimization solving to obtain the optimal clearance combination. The method realizes the
quantitative design from parameters to performance, and effectively replaces the traditional
trial and error method.