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Reliability-aware synthesis for flow-based microfluidic biochips by dynamic-device mapping

机译:动态设备映射通过动态装置映射的基于流动微流体生物芯片的可靠性感知合成

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On flow-based biochips, valves that are used to form peristaltic pumps wear out much earlier than valves for transportation since the former are actuated more often, which leads to a reduced lifetime of the chip. In this paper, we introduce a valve-role-changing concept to avoid always using the same valves for peristalsis. Based on this, we generate dynamic devices from a valve-centered architecture to distribute the valve actuation activities evenly and reduce the largest number of valve actuations with even fewer valves. In addition, we propose in situ on-chip storages, which can overlap with other devices, so that less area is needed compared with dedicated storages on traditional chips. Moreover, our method provides good support for assays requiring different volumes and ratios of samples. Experiments show that compared with traditional designs, the largest number of valve actuations can be reduced by 72.97% averagely, while the number of valves is reduced by 10.62%.
机译:在基于流动的生物芯片上,用于形成蠕动泵的阀门比以前更常见的阀门更早地磨损,这导致芯片的寿命减少了。在本文中,我们介绍了一个阀门角色变化的概念,以避免始终使用相同的阀门为Peristalsis。基于此,我们从阀中心架构产生动态设备,均匀地分配阀致动活动,并减少阀门更少的阀门致动。此外,我们提出了原位的片上存储,可以与其他设备重叠,以便与传统芯片上的专用存储相比,需要更少的区域。此外,我们的方法提供了对需要不同体积和样品比例的测定的良好支持。实验表明,与传统设计相比,平均值可以减少72.97%的最大数量的阀门致动,而阀门的数量减少了10.62%。

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