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Experimental Investigation of Resonant Flow Pulsation in Mesochannels Embedded with Wavy Fins

机译:嵌入波纹翅片中的Mesochannels中谐振流量脉动的实验研究

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The acute growth of the internet of things (IoT) has seen an rapid increase in Information Communication Technology (ICT) component density and power in an attempt to keep up with the staggering amount of data created and transferred daily. To increase performance, many data center (DC) facilities are moving to denser and more powerful servers to increase their data handling limits. This has led to standard DCs reaching a thermal bottleneck when air cooling techniques are utilized. The same problem was faced by high performance computing (HPC) facilities previously and solved by the adoption of liquid cooling technologies. The high heat fluxes found in modern CPUs require miniaturization of the cooling device to maintain temperatures within a safe limit. The scope of this work only extends to single phase flows, due to the added complexity of visualization and stable operation of two phase flows at the mesoscale. This work investigates the utilization of flow pulsation and embedded wavy fins within mesochannels ( Dh = 666μ m) for a low Reynolds number case ( Re=200). Pulsation waveforms including sinusoidal, triangular and two asymmetric ones are studied with frequencies of 16.55, 30, 40 and 50Hz corresponding to Womersley numbers of 3.6, 4.9, 5.7 and 6.3, respectively.
机译:事物互联网(物联网)的急性生长已经看到信息通信技术(ICT)组件密度和力量的快速增加,以试图跟上日报创造和转移的交错量。为了提高性能,许多数据中心(DC)设施正在移动到密度和更强大的服务器,以增加其数据处理限制。当使用空气冷却技术时,这导致标准DC达到热瓶颈。同样的问题面临着先前的高性能计算(HPC)设施,通过采用液体冷却技术解决。在现代CPU中发现的高热量助熔剂需要冷却装置的小型化,以保持安全限制的温度。由于在Mesoscale在Mesoscale处的两个相流的可视化和稳定运行,这项工作的范围仅延伸到单相流量。该工作调查了在Mesochannels(DH =666μm)内的流动脉动和嵌入波浪翅片的利用,用于低雷诺数案例(Re = 200)。将包括正弦波,三角形和两个不对称的脉动波形,频率为16.55,30,40和50Hz,分别对应于3.6,4.9,5.7和6.3的Womersley数量。

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