A strategy of cutting fluid system optimization for low-carbon oriented manufacturing is proposed to reduce pollution and waste in the extensive supplying systems of traditional manufacturing. A resource consummation model for cutting fluid cycling system in workshop is constructed
which indicates two ways for low-carbon oriented cutting fluid system optimization
supplying equipment improvement and cutting fluid volume optimization. Then the influences of cutting fluid on machining process are analyzed. A system controlling software platform is established and some numerical simulations are carried out. It is feasible to adjust the flux volume
pressure and jetting distance of cutting fluid according to the friction coefficient and temperature in cutting zone. Good lubricating and cooling effects greatly owe to the good flow state of cutting fluid in cutting zone
the chip deformation and cutting force as well as temperature reduction and vibration energy distributes more uniformly with the reduced friction coefficient
which validates the reliability of this strategy.
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references
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