A Big Data Layered Architecture and Functional Units for the Multimedia Internet of Things

Kah Phooi Seng;Li-Minn Ang
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引用次数: 10

Abstract

The escalating growth of multimedia content in Internet of Things (IoT) applications leads to a huge volume of unstructured data being generated. Unstructured Big data has no particular format or structure and can be in any form such as text, audio, images, and video. Furthermore, current IoT systems cannot successfully realize the notion of having ubiquitous connectivity of everything if they are not capable to include ‘multimedia things’. In this paper, we address two issues by proposing a new architecture for the Multimedia Internet of Things (MIoT) with Big multimodal computation layer. We first introduce MIoT as a novel paradigm in which smart heterogeneous multimedia things can interact and cooperate with one another and with other things connected to the Internet to facilitate multimedia-based services and applications that are globally available to the users. The MIoT architecture consists of six layers. The computation layer is specially designed for Big multimodal analytics. This layer has four important functional units: Data Centralized Unit, Multimodal Data Aggregation Unit, Multimodal Data Divide & Conquer Computation Unit, and Fusion & Decision Making Unit. A novel and highly scalable technique called the Divide & Conquer Principal Component Analysis (DC-PCA) for feature extraction in the divide and conquer mechanism is proposed to be used together with the Divide & Conquer Linear Discriminant Analysis (DC-LDA) for multimodal Big data analytics. Experiments are conducted to confirm the good performance of these techniques in the functional units of the Divide & Conquer computational mechanisms. The final section of the paper gives application on a camera sensing IoT platform and real-world data analytics on multicore architecture implementations.
多媒体物联网的大数据分层体系结构和功能单元
物联网(IoT)应用中多媒体内容的不断增长导致了大量非结构化数据的生成。非结构化大数据没有特定的格式或结构,可以是任何形式,如文本、音频、图像和视频。此外,如果当前的物联网系统不能包括“多媒体事物”,那么它们就无法成功实现万物互联的概念。在本文中,我们通过提出一种具有大多模式计算层的多媒体物联网(MIoT)的新架构来解决两个问题。我们首先介绍了MIoT作为一种新的范式,在这种范式中,智能异构多媒体事物可以相互交互和合作,也可以与连接到互联网的其他事物进行交互和协作,以促进用户在全球范围内可用的基于多媒体的服务和应用。MIoT体系结构由六层组成。计算层是专门为大型多模态分析设计的。该层有四个重要的功能单元:数据集中单元、多模式数据聚合单元、多模态数据分治计算单元和融合决策单元。提出了一种用于分治机制中特征提取的新的、高度可扩展的技术,称为分治主成分分析(DC-PCA),与分治线性判别分析(DC-LDA)一起用于多模式大数据分析。实验证实了这些技术在分治计算机制的功能单元中的良好性能。论文的最后一部分介绍了相机传感物联网平台的应用以及多核架构实现中的真实世界数据分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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