用于传感器网络的超低功耗处理器

ASPLOS XI Pub Date : 2004-10-07 DOI:10.1145/1024393.1024397
Virantha N. Ekanayake, IV ClintonKelly, R. Manohar
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引用次数: 137

摘要

我们提出了一种新的处理器架构,专门用于低功耗无线传感器网络节点。我们的传感器网络异步处理器(SNAP/LE)基于异步数据驱动的16位RISC内核,具有极低的空闲状态,唤醒响应延迟为数十纳秒。处理器指令集针对传感器网络应用程序进行了优化,支持事件调度、伪随机数生成、位域操作和无线电/传感器接口。SNAP/LE具有硬件事件队列和事件协处理器,这允许处理器避免操作系统软件的开销(例如任务调度程序和外部中断服务),同时仍然为设计人员提供直接的编程接口。该处理器可以满足数据监控应用所需的性能水平,同时以数十皮焦耳的能量执行指令。我们用几个代表数据采集无线传感器网络工作负载的应用程序来评估SNAP/LE的能耗。我们将我们的架构和软件与现有的传感器网络平台进行比较,量化我们方法的软件和硬件优势。
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An ultra low-power processor for sensor networks
We present a novel processor architecture designed specifically for use in low-power wireless sensor-network nodes. Our sensor network asynchronous processor (SNAP/LE) is based on an asynchronous data-driven 16-bit RISC core with an extremely low-power idle state, and a wakeup response latency on the order of tens of nanoseconds. The processor instruction set is optimized for sensor-network applications, with support for event scheduling, pseudo-random number generation, bitfield operations, and radio/sensor interfaces. SNAP/LE has a hardware event queue and event coprocessors, which allow the processor to avoid the overhead of operating system software (such as task schedulers and external interrupt servicing), while still providing a straightforward programming interface to the designer. The processor can meet performance levels required for data monitoring applications while executing instructions with tens of picojoules of energy.We evaluate the energy consumption of SNAP/LE with several applications representative of the workload found in data-gathering wireless sensor networks. We compare our architecture and software against existing platforms for sensor networks, quantifying both the software and hardware benefits of our approach.
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