Design improvement for suction shape in rotary compressor

Joonhyung Kim, Munseong Kwon, Jaewoo Park, Sunghyuk Park, Woong Hwang
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Abstract

Rotary compressors applied to heating and cooling cycles accounts for a large proportion of the total energy consumed in the system. Therefore, improving compressor efficiency is crucial in order to reduce energy consumption. Design review and improvement efforts have primarily focused on compression and discharge parts with high pressure. However, due to the limitations in design improvements for the compression and discharge parts, enhancements for other components are necessary to further increase compressor efficiency. In this study, the design of the suction part of the rotary compressor was modified using FSI (Fluid-Structure Interact) analysis scheme. In order to improve the design of the suction shape, new suction shape types were devised as alternatives to the existing through type. Both the newly devised C-type and E-type suction shapes presented an increase in cooling capacity due to reduced suction resistance, with the E-type demonstrating greater improvement compared to the C-type. Consequently, a verification of the effect based on the detailed design dimensions was further conducted for the E-type suction shape. The final selected improved model increased the suction flow rate by approximately 2.5% compared to the base model. This indicates that significant improvement for the compressor efficiency can be achieved through modifying designs in parts other than the compression and discharge sections. In addition, a design improvement process was established to analyze internal flow using FSI analysis.
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旋转式压缩机吸气形状的设计改进
用于加热和冷却循环的旋转式压缩机在系统总能耗中占很大比例。因此,提高压缩机的效率对于降低能耗至关重要。设计审查和改进工作主要集中在高压的压缩和排放部件上。然而,由于压缩和排放部件的设计改进存在局限性,因此有必要对其他部件进行改进,以进一步提高压缩机的效率。在本研究中,使用 FSI(流体-结构相互作用)分析方案对旋转式压缩机吸气部分的设计进行了改进。为了改进吸气形状的设计,设计了新的吸气形状类型来替代现有的直通型。新设计的 C 型和 E 型吸气形状都由于减少了吸气阻力而提高了冷却能力,其中 E 型吸气形状比 C 型吸气形状有更大的改进。因此,根据详细的设计尺寸,对 E 型吸气形状的效果进行了进一步验证。最终选定的改进型比基本型的吸气流量提高了约 2.5%。这表明,通过修改压缩和排气部分以外的其他部分的设计,可以显著提高压缩机的效率。此外,还建立了一个设计改进流程,利用 FSI 分析法对内部流动进行分析。
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