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基于ANSYS的膀胱动力泵特性仿真分析
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国家自然科学基金资助项目(50775040);广东省自然科学基金资助项目(07001746)


Simulation Analysis of Bladder Power Pump Based on ANSYS
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    摘要:

    为了研究膀胱动力泵的电磁驱动特性、温升特性及排尿动力特性,建立电磁驱动系统及膀胱动力泵3D有限元模型,仿真分析电磁铁电流、气隙和永磁体数量对电磁驱动力、温升、膀胱压、尿流率及排尿时间的影响。结果表明:所建立的有限元模型有效实用;增加电磁铁电流、永磁体数量和减小气隙,有利于提高电磁驱动力、膀胱压、尿流率并缩短膀胱压达峰时间及排尿时间;在辅助排尿期,初始电磁驱动力可达8.50 N,膀胱压峰值可达8.36 kPa,尿流率峰值可达25 mL/s,膀胱压达峰时间为5 s,排尿时间为40 s,温升仅为9.42 ℃,符合人体排尿动力特性要求。研究结果可为设计适用于动物和临床实验的膀胱动力泵提供理论指导。

    Abstract:

    To study the electromagnetic driven performance, temperature rise performance and micturition performance of the bladder power pump, 3D FE models of the electromagnetic driven system and the bladder power pump were established. Based on the models, the electromagnetic driven force, temperature rise, intravesical pressure, urine flow rate and urination time were investigated, taking into account the effects of the electromagnet current, air gap and number of permanent magnets. The results show that the 3D FE models are effective and practical; the electromagnetic driven force, intravesical pressure and urine flow rate are enhanced and the times of intravesical pressure peak and urination are reduced by increasing the current, number of permanent magnets and reducing the air gap; the initial electromagnetic driven force is 8.50 N, the maximum intravesical pressure is 8.36 kPa, the maximum urine flow rate is 25 mL/s, the time to intravesical pressure peak is 5 s, the urination time is 40 s, the temperature rise is 9.42 ℃, the results accord with the micturition performance of human.The research provides theoretical guidance for design of the bladder power pump for animal and clinical studies.

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曹睿,李笑,关婷,肖远松.基于ANSYS的膀胱动力泵特性仿真分析[J].机床与液压,2019,47(7):124-127.
. Simulation Analysis of Bladder Power Pump Based on ANSYS[J]. Machine Tool & Hydraulics,2019,47(7):124-127

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  • 在线发布日期: 2019-12-04
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