Abstract:
System and method for graphically allocating robot's working space are provided. The system includes an image extractor, a task-allocating server and a robot. A graphic user interface (GUI) of the task-allocating server includes a robot's working scene area, a space attribute allocating area and a robot's task area. Thus, a user assigns one certain space area in the robot's working scene area with a “wall” attribute, or another space area with a “charging station” attribute. Meanwhile, by using the GUI, the user directly assigns the robot to execute a specific task at a certain area. Hence, the user or remote controller facilitates the robot to provide safer and more effective service through his/her environment recognition.
Abstract:
A system and method for operating a smart service robot includes: an integrated control server for storing and managing a plurality of service applications and providing a relevant service application according to a service application request from an intelligent service robot; and the intelligent service robot for requesting a specific service application from the integrated control server and downloading the application in order to provide a corresponding service. Accordingly, when a user using the intelligent service robot needs an application which is related to the operation of the intelligent service robot and which is for a specific purpose, the application for the specific purpose is easily downloaded online in order to be applied to the intelligent service robot of the user. Thus, the services that the robot provides are optimized for certain purposes and used.
Abstract:
A robot apparatus and a server communicate with each other in accordance with a SOAP protocol. The information pertinent to a service request, stated in an inquiry from the robot apparatus, the information pertinent to the robot apparatus and the supplementary information of the data or programs are matched to one another in such a manner that data or programs suited to the individual robot apparatus may be provided under a multi-platform environment where there reside plural robot apparatus different in hardware architecture or platforms.
Abstract:
The present invention relates to a system and method for operating a smart service robot. The system comprises: an integrated control server for storing and managing a plurality of service applications and providing a relevant service application according to a service application request from an intelligent service robot; and the intelligent service robot for requesting a specific service application from the integrated control server and downloading the application in order to provide a corresponding service. Accordingly, according to the present invention, when a user using the intelligent service robot needs an application which is related to the operation of the intelligent service robot and which is for a specific purpose, the application for the specific purpose may be easily downloaded online in order to be applied to the intelligent service robot of the user. Thus, the services that the robot provides may be optimized for certain purposes and used.
Abstract:
A robot server for controlling a robot, a system for providing content having the same, and a method thereof are provided. The robot server communicating with the robot includes a virtual robot object and a virtual robot object manager. The robot server executes commands that are generated in correspondence to the robot and received from the robot, and controls the robot. The virtual robot object manager generates the virtual robot object corresponding to the robot and activates the virtual robot object when connected to the robot.
Abstract:
Methods and robot management systems for building a robot mission based on mission metrics are described, including: providing a data record of mission files associated with a set of recorded robot missions; receiving an input from a user including an indication of one or more robot-agnostic tasks to be performed with respect to an environment; determining first contextual information associated with the one or more robot-agnostic tasks; searching the data record of the mission files and identifying, based on the search and the first contextual information, one or more mission files including one or more tasks that match the one or more robot-agnostic tasks; generating ranking information associated with the one or more identified mission files based on recorded metrics data associated with the one or more identified mission files; and providing the one or more identified mission files based on the ranking information.
Abstract:
System and method for graphically allocating robot's working space are provided. The system includes an image extractor, a task-allocating server and a robot. A graphic user interface (GUI) of the task-allocating server includes a robot's working scene area, a space attribute allocating area and a robot's task area. Thus, a user assigns one certain space area in the robot's working scene area with a “wall” attribute, or another space area with a “charging station” attribute. Meanwhile, by using the GUI, the user directly assigns the robot to execute a specific task at a certain area. Hence, the user or remote controller facilitates the robot to provide safer and more effective service through his/her environment recognition.
Abstract:
A robot server for controlling a robot, a system for providing content having the same, and a method thereof are provided. The robot server communicating with the robot includes a virtual robot object and a virtual robot object manager. The robot server executes commands that are generated in correspondence to the robot and received from the robot, and controls the robot. The virtual robot object manager generates the virtual robot object corresponding to the robot and activates the virtual robot object when connected to the robot.