Recent Development for Ultra-Precision Macro–Micro Dual-Drive System: A Review

Gui, Haochen; Zhang, Chuanwei; Zhao, Shuanfeng; Han, Feiyan; Dang, Meng; Zhang, Bin

doi:10.3390/machines11010096

Cited by 9 publications

(2 citation statements)

References 101 publications

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“…Dual-driven and single-driven feed systems are the mechanisms various machines apply to transport materials or components through a processing or assembly line. Several studies have been offered to provide a comprehensive understanding of DDFS [16,17,[29][30][31]. While comparing these two different feeding systems, as shown in Table 1, this research considers the number of motors, the control, the speed, the structural complexity, and the load distribution.…”

Section: Comparing Perspectives Between Dual-and Single-drive Feed Sy...mentioning

confidence: 99%

Analysis of Dual-Driven Feed System Vibration Characteristics Based on Computer Numerical Control Machine Tools: A Systematic Review

Chantal,

Lu,

Liu

et al. 2023

Symmetry

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Vibration in state-of-the-art machining impacts accuracy by diminishing the machine’s dynamic precision and the workpiece surface quality. The dependability of the cutters and productivity becomes a severe problem for optimizing the computer numerical control machine tools’ (CNCMT) efficiency. Therefore, investigating the twin ball screw drive system vibration properties as well as its corresponding control measures is vital. This paper thoroughly reviews the recent works on methods of analyzing and controlling vibration for dual-driven feed systems (DDFS). The research on vibration control technologies, parameter identification, and system modeling are identified and summarized; the merits and drawbacks of various methods are discussed for comparative purposes. Furthermore, the asymmetrical relation between DDFS and single-driven feed systems are thoroughly discussed based on their dynamic properties. Finally, based on existing studies, related research prospects are described systematically, and these research directions are sure to markedly contribute to developing methods for dampening vibrations on DDFS of CNCMT.

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Section: Comparing Perspectives Between Dual-and Single-drive Feed Sy...mentioning

confidence: 99%

Analysis of Dual-Driven Feed System Vibration Characteristics Based on Computer Numerical Control Machine Tools: A Systematic Review

Chantal,

Lu,

Liu

et al. 2023

Symmetry

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“…Independently of the action system, a microcontroller and electrical actuators are implemented in modern pipe organs as controllers of the registration and used to control the type and the volume of the sound [15]. Voice coil motor actuators (VCMs) are widely used in precision motion systems, miniaturization of electronic equipment and dynamic keyboard systems of musical instruments, which are known for their high-speed and high-precision positioning systems, as well as their simple design and easy control [16][17][18][19]. VCM actuators, which most commonly have a structure similar to hard disk drives (HDDs), are characterized by their small size in the direction of the rotational axis, allowing many actuators to be placed side-by-side in small spaces for miniature organ instruments [20,21].…”

Section: Introductionmentioning

confidence: 99%

A Control Strategy for Mechatronic Action of a Pipe Organ Using a VCM Actuator

Kowol,

Nowak,

Lo Sciuto

2023

Electronics

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In pipe organs, the oldest and most commonly chosen system for connecting the organist operator to the source of sound (i.e., the pipes to the action) is mechanical action. This article presents a mechatronic action with a voice coil motor (VCM) actuator to reproduce the action of a mechanical action on pipe organ. The mechatronic action makes it feasible to mechanically separate the keyboard from the pipes and to determine the control strategy for the mechatronic action by utilizing sensors, an actuator and a microcontroller. The time response of the organ pipe with mechanical action and the requirements for mechatronic action were outlined. The control strategy was preceded by measurements of the mechanical action and measurements of the behavior of the VCM actuator system, which moves the pneumatic valve pallet. Two control strategies, open-loop and closed-loop, were proposed and analyzed for the mechatronic action with the VCM actuator. According to the results, the suggested control strategies successfully reproduce the mechanical action’s behavior to a good extent.

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