Abstract: A charging robot includes a memory storing computer-executable instructions, at least one processor that accesses the memory and executes the instructions, an output device, and a first position recognition device that identifies a vehicle approaching a charging specification. The processor determines at least one of a first distance between the vehicle identified by means of the first position recognition device and the charging robot, a first movement direction of the vehicle, or a first movement speed of the vehicle, or any combination thereof and charges the vehicle, based on that a position of the vehicle is included in a charging position which is a position at which the charging robot is able to charge the vehicle, based on the at least one of the first distance, the first movement direction, or the first movement speed, or the any combination thereof.

Abstract: An embodiment data processing device includes a communication device configured to support communication between the data processing device and a control server, a memory configured to store a program, and one or more processors configured to access the memory and execute the program, wherein the program includes computer-executable instructions for receiving target data from the control server through the communication device, attempting to identify channel filter information regarding the target data in a router database, obtaining encapsulated target data by applying the target data and the channel filter information to a first filter that encapsulates the target data based on the channel filter information being identified in the router database, and transmitting the encapsulated target data to a target service module of the target data by applying the encapsulated target data to a second filter that converts a format of the encapsulated target data.

Abstract: An embodiment robot includes a communication device configured to communicate with a control server based on a first communication protocol and a second communication protocol, a network device configured to determine a network connection state between the communication device and the control server based on a setting of the first communication protocol and a setting of the second communication protocol, and a controller configured to control an operation of the robot based on the network connection state determined by the network device.

Abstract: A system for controlling a robot is provided. The system may comprise a controller configured to communicate with a robot, over a network via a communication device, wherein the controller may comprise a workflow engine and configured to determine a state of the robot and a state of the network, transmit at least one of a command or a scenario to the robot, cause, based on a first state of the robot, the robot to receive a task group from the controller, and perform an operation associated with the command, wherein the command is associated with at least one task of the task group, and cause, based on a second state of the robot, the robot to receive the scenario from the controller, apply, to another workflow engine, the scenario to obtain a plurality of tasks, and perform an operation associated with the plurality of tasks.

Abstract: An embodiment device for managing an operation of a robot includes a memory configured to store computer-executable instructions, a communication device configured to be in communication with a control server, and at least one processor configured to access the memory and execute the instructions, to cause the at least one processor to set a driving time of at least one module included in a target operation among a plurality of operations classified based on driving of at least one module included in the robot, set a driving option of the at least one module whose driving time is set, verify the target operation via simulation of a graphic object corresponding to the robot, and transmit the verified target operation to the control server via the communication device such that the verified target operation is applied to the robot.

Abstract: An authentication device and an authentication processing method thereof are provided. The authentication device includes a communication device, data storage, one or more processors, and memory. The memory stores instructions that, when executed by the one or more processors, configure a microservice architecture (MSA) of the authentication device to: receive an authentication request from a client device, determine an authentication request target based on the authentication request, request via the communication device an encrypted payload from a first service among a plurality of services of the MSA that corresponds to the authentication request target, determine an identifier corresponding to the first service, store in the data storage the identifier and the encrypted payload, and generate based on the identifier an authentication token, and send the authentication token to the client device.

Abstract: A robot control device and a robot management method thereof are provided. The robot control device includes a detection module that recognizes an abnormal state generated in at least one external robot based on raw data received from the at least one external robot and provides an external user device with an alarm associated with the abnormal state based on a predetermined abnormal state response rule, a log module that stores the raw data and data associated with the abnormal state, and a robot management module that transmits a command to control at least one of an operation or a state of the at least one external robot to the at least one external robot, based on the abnormal state response rule.

Abstract: A robot control system and a method may be operated in a microservices architecture (MSA)-based control environment. The robot control system includes an application programming interface (API) gateway that connects an authentication server for authenticating a robot, a management server for managing the robot, and an operation server for operating the robot in a Hyper Text Transfer Protocol (HTTP) communication method and an administrator terminal that communicates with the robot through WebRTC (Web Real-Time Communication).

Abstract: A robot control system and a method may be operated in a microservices architecture (MSA)-based control environment. The robot control system includes an application programming interface (API) gateway that connects an authentication server for authenticating a robot, a management server for managing the robot, and an operation server for operating the robot in a Hyper Text Transfer Protocol (HTTP) communication method and an administrator terminal that communicates with the robot through WebRTC (Web Real-Time Communication).