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Performance evaluation and comparison of a serial–parallel hybrid multichamber piezoelectric pump

Performance evaluation and comparison of a serial–parallel hybrid multichamber piezoelectric pump
Performance evaluation and comparison of a serial–parallel hybrid multichamber piezoelectric pump

To improve the output capability of piezoelectric pumps, researchers have made an attempt to combine multiple single-chamber pumps either in series or in parallel. In this article, a serial–parallel hybrid multichamber piezoelectric pump is presented. The novel serial–parallel hybrid multichamber piezoelectric pump structure is characterized by the simultaneous occurrence of serial/parallel forms through a combination of synchronous and asynchronous modes of piezoelectric actuators. Moreover, the pump can be operated in multiple working modes to obtain the desired chamber volume and number through different serial–parallel configurations. The performance characteristics of the pump with various serial–parallel hybrid combinations were experimentally investigated and evaluated using a quintuple-chamber pump at 90 V with a frequency range of 60–400 Hz. Experimental results showed that the characteristics in terms of flow rate and backpressure changed significantly with different serial–parallel modes. Nevertheless, the backpressure presented very similar characteristics for the serial–parallel hybrid multichamber piezoelectric pump with the same number of in-phase parallel actuators. Meanwhile, the frequency-dependent flow rate characteristics were approximately similar for those pumps with symmetric serial–parallel combinations. It was found that the flow rate and backpressure mainly depended on the actuation frequency and serial–parallel modes, respectively. Compared with the quintuple-chamber pump with full out-of-phase actuators, the maximum powers of the serial–parallel hybrid multichamber piezoelectric pump with two, three, four, and five in-phase actuators were decreased by 21.1%, 51.4%, 77.7%, and 94.4%, respectively.

multichamber pump, Piezoelectric, pressure, serial–parallel combination, unequal-volume chamber
1045-389X
1-13
Zhang, Zhonghua
b1260250-3d99-455e-a915-1b088e7596c9
Chen, Song
fde033ee-619b-4bf3-bed4-8ee8a9076e2f
Wang, Shuyun
934f5949-99bb-4a81-843d-ef122890d8c7
Kan, Junwu
cafc6747-a5c7-41b3-a463-c7c641104dd2
Wen, Jianming
7ee3e194-bbb6-4267-badf-830966e67ae9
Yang, Can
e005c727-7c00-43ac-9dc4-f23fb7be4f58
Zhang, Zhonghua
b1260250-3d99-455e-a915-1b088e7596c9
Chen, Song
fde033ee-619b-4bf3-bed4-8ee8a9076e2f
Wang, Shuyun
934f5949-99bb-4a81-843d-ef122890d8c7
Kan, Junwu
cafc6747-a5c7-41b3-a463-c7c641104dd2
Wen, Jianming
7ee3e194-bbb6-4267-badf-830966e67ae9
Yang, Can
e005c727-7c00-43ac-9dc4-f23fb7be4f58

Zhang, Zhonghua, Chen, Song, Wang, Shuyun, Kan, Junwu, Wen, Jianming and Yang, Can (2018) Performance evaluation and comparison of a serial–parallel hybrid multichamber piezoelectric pump. Journal of Intelligent Material Systems and Structures, 1-13. (doi:10.1177/1045389X18758181).

Record type: Article

Abstract

To improve the output capability of piezoelectric pumps, researchers have made an attempt to combine multiple single-chamber pumps either in series or in parallel. In this article, a serial–parallel hybrid multichamber piezoelectric pump is presented. The novel serial–parallel hybrid multichamber piezoelectric pump structure is characterized by the simultaneous occurrence of serial/parallel forms through a combination of synchronous and asynchronous modes of piezoelectric actuators. Moreover, the pump can be operated in multiple working modes to obtain the desired chamber volume and number through different serial–parallel configurations. The performance characteristics of the pump with various serial–parallel hybrid combinations were experimentally investigated and evaluated using a quintuple-chamber pump at 90 V with a frequency range of 60–400 Hz. Experimental results showed that the characteristics in terms of flow rate and backpressure changed significantly with different serial–parallel modes. Nevertheless, the backpressure presented very similar characteristics for the serial–parallel hybrid multichamber piezoelectric pump with the same number of in-phase parallel actuators. Meanwhile, the frequency-dependent flow rate characteristics were approximately similar for those pumps with symmetric serial–parallel combinations. It was found that the flow rate and backpressure mainly depended on the actuation frequency and serial–parallel modes, respectively. Compared with the quintuple-chamber pump with full out-of-phase actuators, the maximum powers of the serial–parallel hybrid multichamber piezoelectric pump with two, three, four, and five in-phase actuators were decreased by 21.1%, 51.4%, 77.7%, and 94.4%, respectively.

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More information

Accepted/In Press date: 1 March 2018
e-pub ahead of print date: 4 March 2018
Keywords: multichamber pump, Piezoelectric, pressure, serial–parallel combination, unequal-volume chamber

Identifiers

Local EPrints ID: 421590
URI: http://eprints.soton.ac.uk/id/eprint/421590
ISSN: 1045-389X
PURE UUID: 27b6e095-ba77-4d79-aa4e-10722c588893

Catalogue record

Date deposited: 15 Jun 2018 16:30
Last modified: 15 Mar 2024 19:36

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Contributors

Author: Zhonghua Zhang
Author: Song Chen
Author: Shuyun Wang
Author: Junwu Kan
Author: Jianming Wen
Author: Can Yang

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