Design and Development of an IoT-Based Dynamic Self-Stabilizing Mobile Platform for Healthcare Applications

Abstract

Lifestyle has been much enhanced through the internet of things (IoT) and the internet of things multimedia (Name IoT smart Healthcare, IoT smart Homes and IoT Smart transport). we have a self-adaptive security model of the IoT multimedia and we describe one of the scenarios in the environment of a mobile e-health system where we utilize a knowledge adaptation loop, a type of loop of thought an adaptation model (monitor-analyze-plan- execute) in order to determine the demand of the adaption to the level of confidence of the various security factors. This is dictated by the adaptation requirement that indicates that within a constantly unstable and sustainable e-health IoT multimedia space, one will be required to adapt ionize the security issues to stabilize the IoT multimedia space. The given paper includes the construction and design of a two degree of freedom self-balancing mobile platform that is not only dynamic, but is also constructed using low-cost materials. This research covered self-stabilizing control system is not only applicable to the vast majority of medical, military and logistical systems but it is impossible not to attribute the importance of this control system in operation in the case where the surface of the ground cannot be considered even or smooth. The platform is developed in a mechanical manner boasting a two-degree freedom of motion. The whole stab system of the stabilization control is developed on the basis of Arduino UNO microcontroller. The longitudinal movement, and the lateral movement in reference to X and Y axis can be controlled with the help of the servomotors. This is an algorithm that was developed in order to convert the digital information of the gyroscope to the angular position of the system and apply the complementary filter and proportional controller on the same. The scale is further employed in determining the tilt of the platform by the comparison between the scale and a familiar functional. This angle of tilt is then converted to a rotation angle which would allow working of the servomotors.