AI, IoT hardware and Algorithmic Considerations for Hearing aid and Extreme Edge Applications

R. Brennan
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Abstract

Artificial Intelligence (AI) has made many significant advances over recent years. Starting out as mainly university research endeavors, recent significant breakthroughs have pushed the practicality of AI to the forefront. It is making fast inroads to traditional industrial applications and it is clear that given sufficient computing resources, AI is applicable to almost anything.The breakthrough referenced is mostly the result of the diligent persistence of a number of AI researchers in combination with large increases in available computation power to reconsider much deeper neural networks than previously used which were consistently rejected because of their large complexity reasons. Deep Neural Nets have proven to be an adept framework and up to solving the difficult challenges proven previous machine learning approaches could not solve.Recently, driven by enhanced computational power and necessity, edge applications have arisen to the forefront. Generally, now that cloud computing is available, a choice may be made where to locate the recognition engine, local to the data source or on the cloud where considerable computing resources are available.Hearing aids, a product on the edge now connected via one or more wireless links and fully immersed in IoT are the subject and consideration of this paper. It is natural to consider whether, via these links, remote computation is possible and appropriate for hearing aid applications. Difficulties arise when remote computation is attempted simply because the local data to be inferenced must be transmitted. Summarizing, utilizing remote computing for local recognition creates, two immediate problems: 1) the transmission of possibly private data across an insecure channel, and 2) the channel may not exist in remote or adverse transmission environments. Two further difficulties emerge in an important subset of applications, including hearing aids and hearable products: 1) Delay from the transmission latency required to obtain Cloud computation – although fast and capable – once the information is obtained and 2) Transmission power.
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助听器和极端边缘应用的人工智能,物联网硬件和算法考虑
近年来,人工智能(AI)取得了许多重大进展。一开始主要是大学的研究工作,最近的重大突破将人工智能的实用性推到了最前沿。人工智能正在迅速进入传统的工业应用领域,很明显,只要有足够的计算资源,人工智能几乎可以应用于任何领域。所提到的突破主要是许多人工智能研究人员的勤奋坚持,以及可用计算能力的大幅提高,以重新考虑比以前使用的更深层次的神经网络,这些神经网络由于其巨大的复杂性原因而一直被拒绝。深度神经网络已经被证明是一个熟练的框架,可以解决以前的机器学习方法无法解决的困难挑战。最近,在增强的计算能力和需求的驱动下,边缘应用程序已经出现在最前沿。通常,既然有了云计算,就可以选择在哪里定位识别引擎,是在数据源本地还是在有大量计算资源可用的云上。助听器是一种边缘产品,现在通过一个或多个无线链路连接,完全沉浸在物联网中,这是本文的主题和考虑。人们自然会考虑,通过这些环节,远程计算是否可能和适合助听器应用。由于必须传输要推断的本地数据,因此在尝试远程计算时就会出现困难。综上所述,利用远程计算进行本地识别会产生两个直接的问题:1)通过不安全的通道传输可能私有的数据;2)该通道可能不存在于远程或不利的传输环境中。在一个重要的应用子集中,包括助听器和可听产品,出现了两个进一步的困难:1)获得信息后,获得云计算所需的传输延迟(尽管速度快、能力强)和2)传输功率。
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