Abstract

There is an increasing number of devices available for the Internet of Multimedia Things (IoMT). The demands these ever-more complex devices make are also increasing in terms of energy efficiency, reliability, quality-of-service guarantees, higher data transfer rates, and general security. The IoMT itself faces challenges when processing and storing massive amounts of data, transmitting it over low bandwidths, bringing constrained resources to bear and keeping power consumption under check. This paper’s research focuses on an efficient video compression technique to reduce that communication load, potentially generated by diverse camera sensors, and also improve bit-rates, while ensuring accuracy of representation and completeness of video data. The proposed method applies a video content-based solution, which, depending on the motion present between consecutive frames, decides on whether to send only motion information or no frame information at all. The method is efficient in terms of limiting the data transmitted, potentially conserving device energy, and reducing latencies by means of negotiable processing overheads. Data are also encrypted in the interests of confidentiality. Video quality measurements, along with a good number of Quality-of-Service measurements demonstrated the value of the load reduction, as is also apparent from a comparison with other related methods.

Highlights

  • The Internet of Things (IoT) is described as a network of smart objects collecting, processing and sharing data, with sensors and actuators enhancing object functionality

  • Returning to a discussion of the current paper’s research, the results show that transmitted video data are usually reduced by a significant amount through use of the proposed method of video compression allied with motion detection

  • Resources are limited in an Internet of Multimedia Things (IoMT), which has similar limitations to the IoT, of which it is a subset

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Summary

Introduction

The Internet of Things (IoT) is described as a network of smart objects collecting, processing and sharing data, with sensors and actuators enhancing object functionality. The number of such connected devices, as a result of rapid expansion, is estimated to reach 31 billion by 2020 [1]. The IoT infrastructure has been linked to event-based systems. These systems [2] identify events, which cause streaming of structured or scalar data, for example the streaming of the ambient temperature of an object or its energy consumption.

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