Implementation of a data acquisition Scheduler-on-Chip (SchoC) for heterogeneous multi-channel signals

M. Abdallah
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Abstract

Data acquisition (DAQ) is a crucial component in instrumentation and control. It typically involves the sampling of multiple analog signals, and converting them into digital formats so that they can be processed. DAQ systems also involve microprocessors, microcontrollers, digital signal processing, and/or storage devices. Many multi-channel DAQs, which utilize some sort of processing for simultaneous input channels, are found in various applications. In this research, for heterogeneous multichannel signals, different sampling rates are identified for each channel, and optimized for best data quality with minimal storage requirement. Accordingly, power consumption and transmission times can be reduced. The fidelity of the proposed Scheduler-on-Chip (SchoC) is increased by using reconfigurable chip technology, where flexibility, concurrency, speed and reconfiguration can be achieved in hardware. Therefore, SchoC can be utilized in various real world applications especially hazardous environments, or isolated areas, for remote architecture reconfiguration, while keeping the cost of the device low. Performance evaluations show that the speed of the proposed SchoC is 24% faster than a comparable software-based scheduler. The proposed SchoC reduces the amount of data being acquired by 59%, which in turn decreases memory requirements.
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异构多通道信号的数据采集调度芯片(SchoC)的实现
数据采集(DAQ)是仪器仪表和控制系统的重要组成部分。它通常包括对多个模拟信号进行采样,并将其转换为数字格式,以便对其进行处理。DAQ系统还包括微处理器、微控制器、数字信号处理和/或存储设备。在各种应用程序中可以找到许多多通道daq,它们利用某种处理来同时输入通道。在本研究中,对于异构多通道信号,为每个通道确定不同的采样率,并优化以最小的存储需求获得最佳数据质量。因此,可以减少功耗和传输次数。通过使用可重构芯片技术,可以在硬件上实现灵活性、并发性、速度和可重构,从而提高了所提出的片上调度器(SchoC)的保真度。因此,SchoC可以用于各种现实世界的应用,特别是危险环境或孤立区域,用于远程架构重新配置,同时保持设备的低成本。性能评估表明,所提出的SchoC的速度比类似的基于软件的调度器快24%。所提出的SchoC将被获取的数据量减少了59%,这反过来又降低了内存需求。
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