Figure - available from: The International Journal of Advanced Manufacturing Technology
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Structure of the full-aperture lapping turntable based on the RDLS system: (1) metal-tin lapping pad; (2) support plate (material: cast iron); (3) core shaft; (4) high-precision ball bearings for turntable; (5) torque motor; (6) rotary joint; (7) high-precision water chillers

Structure of the full-aperture lapping turntable based on the RDLS system: (1) metal-tin lapping pad; (2) support plate (material: cast iron); (3) core shaft; (4) high-precision ball bearings for turntable; (5) torque motor; (6) rotary joint; (7) high-precision water chillers

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Surface shape and accuracy of the metal lapping pad have a significant impact on the performance of the lapping process for flat optical components, which are usually improved by the dressing process. A real-time dressing system for metal lapping pad surface shape (RDLS system) based on the bimetal thermal deformation effect is proposed. Unlike tra...

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Citations

... The paper [10] is dedicated to studying the surface quality of parts that are subject to double-sided planetary-type lapping. In order to ensure sufficient surface quality and treatment accuracy, various techniques are used for dressing the working members (laps, polishers, etc.) [11]. The novel approaches of predicting and monitoring the surface profile during the lapping process are considered in [12], while the possibilities of improving the surface quality by enhancing the lapping machine design are presented in [13]. ...
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Vibratory technological machines are widely implemented in various branches of industrial, manufacturing, and mechanical engineering. Particularly, such equipment can be effectively used while conducting finishing technological operations, e.g., lapping and polishing of different machine parts. The present paper is focused on developing the control system for the novel design of a vibratory lapping-polishing machine driven by six solenoids. The main purpose consists in providing the circular trajectory of the working member and ensuring the machining uniformity at each point of the surface being treated. In such a case, it is proposed to actuate the solenoids with the specified time shift depending on the forced frequency needed to be provided. The duration of the signal actuating the solenoid is equal to one-sixth of the total duration of a cycle (period) of the working body oscillation. The corresponding control approach is developed and simulated in the Tinkercad application, while the control system is designed based on the Arduino software and hardware. In addition, the laboratory prototype of the vibratory lapping-polishing machine and the corresponding control system are implemented in practice. The performed experimental investigations substantiate the possibilities of generating the circular oscillations of the working member of the vibratory lapping-polishing machine. The obtained results may be useful for engineers and technologists dealing with control systems of various vibratory technological equipment based on electromagnetic and solenoid-type drives.
... In [11], the influence of various lapping conditions on the roughness parameters is studied taking into account the characteristics of the working medium and the material of the workpieces being treated. The novel method of dressing the metal working members of lapping machines is proposed and experimentally tested in [12]. ...
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Vibratory treatment is widely used in various industries for performing finishing technological operations, e.g., lapping, polishing, glazing, strengthening (hardening), etc. The problems of maximizing the treatment accuracy and performance of vibratory technological equipment provide the necessity of optimizing the motion trajectory (path) of the corresponding working member. The main purpose of these investigations is to substantiate the possibilities of generating the translational (reciprocating) motion and plane (plane-parallel) oscillations of the working members of vibratory lapping-polishing machines. The research methodology consists of the following stages: substantiating the ideas of improving the vibratory lapping-polishing machines; designing the dynamic diagrams of the machines' oscillatory systems; developing the mathematical models to describe their dynamic behavior; numerical modeling of the machines' motion conditions. The obtained results present the possible motion trajectories (paths) of the working member (lap, polisher, grazer, etc.). The main scientific novelty of these investigations is substantiating the idea and possibilities of implementing various motion conditions of the working member for adjusting the vibratory lapping-polishing machine in accordance with the technological requirements, as well as for increasing the wear-out period and durability (normal operating period) of the working member. The obtained results can be used for improving the performance and accuracy of similar vibratory lapping-polishing machines.