荒野中的协同设计

D. Gale
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引用次数: 0

摘要

硬件技术平台的边缘正在变得模糊,因为集成前沿和协同设计前沿有望通过光子和流体技术实现超越电子和软件的新功能。这里的问题很复杂,因为考虑到多种技术分区和探索权衡的可能性,所以这个协同设计前沿在很大程度上是未驯服的。一个协同设计的“盒子”,从本质上来说多少有些经验性,支持探索性的研究兴趣。它的动机是试图合并两种活动:一种涉及电子软件快速原型设计,另一种涉及设计和制造新颖的非电子设备或结构。最初的期望是从嵌入式系统的角度来证明新颖的流体装置是否如预期的那样运行。未来还会考虑其他设备。在这些前沿领域工作的个人和团体试图促进某种程度的标准化,这可能有助于为支持较少经验性的协同设计技术扫清道路。微电子学的经验最常被用作参考叶细胞、组件、功能指定的子系统和定义的物理和信号接口的层次结构的模型。互联网连接的物理方面是光子学-电子学前沿使用多信号波长和涉及软件、微电子、光子学和信号转换的命令、控制和通信取得进展的一个例子。流体技术的进展尚处于早期阶段,无论是在医疗保健、环境还是其他领域,都将取得重大成果,其变革性不亚于过去20年互联网的发展。携带电子、光子和流体信号的复杂装置或微型组件现在已经有规律地制造出来。协同设计技术虽然严重滞后,但有可能减少集成前沿的探索障碍,增加越来越多的从业者所追求的探索路径的数量,并比预期更快地产生有益的结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Co-design in the wilderness
Hardware technology platforms are blurring at the edges as the integration frontier, a co-design frontier, holds promise of new functionality being achieved beyond electronics and software, through photonic and fluidic technologies. The problems here are complex as one considers the multiple technology partitions and the possibilities for exploring trade-offs and so this co-design frontier is largely untamed. A co-design "box", somewhat empirical by nature, supports exploratory research interests. It is motivated by trying to merge two lines of activity: one involving electronic-software rapid-prototyping and the other involving the design and fabrication of novel non-electronic devices or structures. The expectation initially is to demonstrate from an embedded system perspective whether novel fluidic devices perform as intended. Other devices will be considered in the future. Individuals and groups working in these frontier areas have attempted to promote some degree of standardization which might help clear a path forward in support of less empirical co-design techniques. Experience with microelectronics is most often used as a model with reference to the hierarchy of leaf-cells, components, functionally-designated subsystems and defined physical and signal interfaces. Physical aspects of internet connectivity are an example of advances made at the photonics-electronics frontier using multiple signal wavelengths and command, control and communication involving software, microelectronics, photonics and signal conversion. Progress with fluidics is at an early stage and major outcomes, no less transformative than the internet in the last 20 years, will occur whether in health-care or the environment or in some other sector. Complex devices or micro-assemblies that carry electronic, photonic and fluidic signals are now made regularly. Co-design technology, while lagging seriously, has the potential to reduce exploration barriers at the integration frontier, multiplying the number of exploratory paths being pursued by an increasing number of practitioners and yielding beneficial outcomes sooner than might otherwise be expected.
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