System Of The Intellectualized Video Monitoring for Goal-Directed Interaction with Autonomous Mobile Robot

O. M. Sukhoruchkina, M. Progonnyi
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Abstract

Introduction. One of the conditions for increasing the autonomous capabilities of mobile robots is their awareness of the state of the environment in which they operate. A class of so-called indoor robots requires the timely acquisition of position data both on obstacle objects and goal interest objects for the robot actions. As a rule, the sources of data on surrounding objects are sensor devices of various types installed on the board of the robot. In modern robotics, such devices are rangefinders or scanners with various data acquisition principles and video cameras. It is images from the video cameras that contain the most complete information about the state of the mobile robot’s working room. But computer analysis and content interpretation of visual data require the development of appropriate information technologies. Successful software implementations of rather complex algorithms for visual object recognition and methods for determining these object positions relative to the room coordinate system, which were previously created as separate functional modules of the intelligent mobile robot control system, can be used to create other applied artificial intelligence systems. The formation of generalized images (models) of the environment and the states of the robot in it is important for the intelligent control system of autonomous mobile robots. Images from the robot’s onboard video camera are the most informative source of timely detection of the positions of static and dynamic objects in the robot’s working areas. Using additional information from an external video camera can not only increase the general situational awareness of an autonomous robot but also speed up the achievement of goal states, as long as the external video monitoring control system has an interface for goal-directed interaction with the mobile robot intelligent control system and conforming data structures for the representation of surrounding objects. The purpose of the article is to describe the results of the development of a control system of intellectualized video monitoring in the autonomous mobile robot working environment, as an additional external source of the object’s location data. Methods. 3D modeling of technical systems and spatial scenes, content interpretation of data, and object-oriented programming. Results. The functioning of the developed system of intellectualized video monitoring has been studied. Accuracy of the positions of static and dynamic objects obtained by this system both as a separate applied system of artificial intelligence and as an additional source of data on the presence and position of objects in the working room while interacting with an autonomous mobile robot has been estimated. Conclusions. The analysis of the functioning results of the system of intellectualized video monitoring which is intended for detecting objects and determining their positions in the room, and which is described in the article, shows that such a system can have a number of independent applications. Its most productive use is in the autonomous mobile robot working environment. Wide awareness of the autonomous mobile robot about the surrounding objects due to the interaction of two technical systems of artificial intelligence, namely, the intelligent control system of the mobile robot and the control system of the intellectualized video monitoring leads to the increase in the autonomous capabilities of the robot to perform complex tasks given by the user in a shorter time.
面向目标交互的自主移动机器人智能化视频监控系统
介绍。提高移动机器人自主能力的条件之一是它们对其操作环境状态的感知。一类所谓的室内机器人需要及时获取障碍物和目标兴趣物体的位置数据,以便机器人进行动作。通常,周围物体的数据来源是安装在机器人板上的各种类型的传感器设备。在现代机器人技术中,这样的设备是具有各种数据采集原理的测距仪或扫描仪和摄像机。来自摄像机的图像包含了关于移动机器人工作室状态的最完整的信息。但是计算机分析和可视化数据的内容解释需要适当的信息技术的发展。以前作为智能移动机器人控制系统的独立功能模块创建的相当复杂的视觉对象识别算法和确定这些对象相对于房间坐标系统位置的方法的成功软件实现可用于创建其他应用人工智能系统。对于自主移动机器人的智能控制系统来说,环境和机器人状态的广义图像(模型)的形成是非常重要的。来自机器人机载摄像机的图像是及时检测机器人工作区域内静态和动态物体位置的最信息来源。只要外部视频监控控制系统具有与移动机器人智能控制系统进行目标导向交互的接口,并具有用于表示周围物体的一致数据结构,利用外部视频摄像机的附加信息不仅可以提高自主机器人的总体态势感知能力,还可以加快目标状态的实现速度。本文的目的是描述自主移动机器人工作环境中智能视频监控控制系统的开发结果,作为物体位置数据的额外外部来源。方法:技术系统和空间场景的三维建模,数据的内容解释,以及面向对象的编程。结果。对所开发的智能化视频监控系统的功能进行了研究。通过该系统获得的静态和动态物体的位置精度,既可以作为人工智能的单独应用系统,也可以作为与自主移动机器人交互时工作室内物体存在和位置的附加数据源。结论。本文所描述的用于检测房间内物体并确定其位置的智能视频监控系统的运行结果分析表明,该系统可以具有多个独立的应用。它最有生产力的应用是在自主移动机器人的工作环境中。由于人工智能的两个技术系统,即移动机器人的智能控制系统和智能视频监控的控制系统的相互作用,自主移动机器人对周围物体的广泛感知,使得机器人在更短的时间内完成用户赋予的复杂任务的自主能力增强。
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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