Samsung Electronics Co., Ltd.

Jeong-gon Song

Jang-youn Ko

Ju-sang Lee

Sam-jong Jeung

Ki-man Kim

Sang-yong Lee

Kwang-soo Lim

Hak-bong Lee

Kyoung-woung Kim

Myeong-ho Kim

Kyoung-mu Lee

Jang-keun Oh

Jee-su Park

Yun-sup Hwang

Kyu-Chang Park

Kwang-su Kim

Dae-hyung Kim

Seung-bin Moon

Kyong-hui Jeon

Heung-yi Kim

Sam-hyun Choi

Sun-gi Hong

Hwa-gyu Song

Young-ik Cho

Il-du Jung

Kyong-Hui Jeon

Seung-Bin Moon

Dong-lyoul Shin

Yoon-kyunh Cho

Se-wook Kim

Hyun-eung Kim

Jin-seul Joung

Yoon-kyung Cho

Sam-Jong Jeung

Kwang-Soo Lim

Tae-young Ryu

Seo-young You

Krasnoslobodtsev Valeri

Disclosed is a mobile robot system having a plurality of exchangeable work modules, thereby providing a mobile robot capable of performing various functions at a low cost. The mobile robot system comprises a plurality of work modules, which perform different works, respectively; a module station for connecting the plurality of work modules; and a mobile robot, which selects and connects to one of the plurality of work modules from the module station according to a work task to be performed. The mobile robot autonomously operates to perform the work task.

Mobile robot system having a plurality of exchangeable work modules and method of controlling the same

An improved cleaning robot that uses a simple structure to sense an obstacle is provided. The cleaning robot includes a robot main body comprising a driving unit to drive the cleaning robot, and a cleaning unit to remove dust, a bumper unit which is movably mounted in the robot main body to protect the robot main body from collision with an obstacle, a sensor unit which supports the bumper unit movably in a plurality of directions to sense the collision of the bumper unit and the obstacle, and a control unit which controls the driving unit on the basis of a signal sensed by the sensor to avoid the obstacle.

Cleaning robot

A system and method for detecting a traveling state. The system includes an image receiving unit acquiring two consecutive images and detecting first traveling information from image information regarding each of the two consecutive images, a traveling information processing unit connected to a driver moving in a direction perpendicular to a direction in which the images are acquired, the traveling information processing unit detecting second traveling information from information regarding the driver, and a control unit determining the traveling state based on the first traveling information and the second traveling information.

System and method for detecting traveling state

A wheel driving apparatus for a moving apparatus is provided. The wheel driving apparatus includes a wheel, a driving motor to generate a driving power to rotate the wheel, a gear box to transmit the rotational force of the driving motor to the wheel, and a guide shaft movable vertically with respect to the base member, wherein the wheel, the driving motor, the gear box, and the guide shaft are connected integrally with each other to move vertically with respect to the base member in unison.

Wheel driving assembly of a moving apparatus

A robot system includes a supply station. The system further includes: a robot, a robot tank adapted to store a liquid and disposed at the robot; and a supply station configured to supply additional liquid to the tank.

Mobile robot system having liquid supply station and liquid supply method

A robot cleaner system is disclosed. The robot cleaner system includes a robot cleaner to carry out a cleaning operation while automatically traveling around along a surface to be cleaned, and a charging station connectable with the robot cleaner to charge a charging battery mounted in the robot cleaner with electricity. The charging station includes a setting switch to selectively set up a value of threshold height. The robot cleaner includes a control unit to receive the value of threshold height set up at the charging station from the charging station, to store the received value of threshold height in a memory, to compare a value of threshold height detected by a height sensor of the robot cleaner in traveling of the robot cleaner with the value of threshold height stored in the memory, to control the robot cleaner to travel while crossing over a threshold when the detected value of threshold height is the same as and less than the stored value of threshold height and to control the robot cleaner to travel after backing up and rotating when the detected value of threshold height exceeds the stored value of threshold height.

Robot cleaner system and control method thereof

A control method for a robot cleaner that includes: driving a driving part to move the robot cleaner by a predetermined distance in an opposite direction to a proceeding direction thereof when a bumper sensor detects a collision with an obstacle, measuring the number of times in which the robot cleaner repeats moving in real-time, comparing the measured number with a predetermined reference number, and stopping the robot cleaner when the measured number is more than the reference number. With this method, the robot cleaner can diagnose a breakdown of the bumper sensor to stop the cleaner, and inform a user of the breakdown.

Robot cleaner and control method thereof

A system for returning a robot to a charger includes: a homing signal transmitter, including at least first, second, and third signal transmitters, each adapted to be provided at a front side of the charger and to respectively transmit signals which are different from each other in at least one of a code and a transmission distance, and a fourth signal transmitter, adapted to be provided on at least one lateral side of the charger and to transmit a signal which is different from the signals of the first, second, and third transmitters in code; a homing signal receiver provided at the robot and to receive at least one signal transmitted from the homing signal transmitter; and a controller adapted to identify the at least one signal and to control the robot to return to the charger based at least in part on the at least one signal.

System and method for returning robot cleaner to charger

A robot cleaner system and a method for the robot cleaner to return to an external recharging apparatus. The robot cleaner system has an external recharging apparatus including a charging stand having a charging terminal, and a plurality of transmission parts for sending signals having different codes and strengths; a robot cleaner including a rechargeable battery, a connection terminal for connection with the charging terminal to supply power to the rechargeable battery, a receiving part for receiving signals from the plurality of transmission parts, and a control part for controlling a movement of the robot cleaner using the signals received by the receiving part, so that the connection terminal is connected to the charging terminal.

Robot cleaner system and a method for returning to external recharging apparatus

A robot cleaner includes a drive unit for driving a plurality of wheels, a camera disposed in a body for photographing an upper image extending perpendicular to a running direction, a controller for recognizing a position by using position information obtained from a recognition mark formed on a ceiling of a working area that is photographed by the camera, and controlling the drive unit by using the recognized position information to correspond to a target cleaning operation. Accordingly, since the recognition mark for the recognition of a current position of the robot cleaner is formed on a ceiling that has a few changes, the position recognition is performed with more accuracy and the traveling of the robot cleaner to the target work area and a cleaning operation is performed efficiently.

Robot cleaner, robot cleaning system and method of controlling same

A coordinates compensation method of a robot cleaner using an angle sensor compensates coordinates of the robot cleaner with reference to absolute coordinates of a recharging station, so as to improve robot cleaner's path following. The robot cleaner is in a standby mode at the recharging station, and moves to an operation area to perform a given job. The robot cleaner stops the given job upon determining an accumulative angle exceeding a predetermined level, and returns to the recharging station. Current coordinates of the robot cleaner are aligned with reference coordinates of the recharging station, and the robot cleaner moves to a previous spot where it was before it returns to the recharging station, and resumes the work from where it stopped.

Robot cleaner coordinates compensation method and a robot cleaner system using the same

A power recharger for use with a robot cleaner has a recharging terminal to which a battery terminal of the robot cleaner is docked and an anchor member on a rear side of the body of the recharging unit. The anchor member fills in the space defined between the wall of the room and the power recharger. The anchor member therefore securely supports the power recharger in the battery recharging process.

Power recharger for use with robot cleaner

A robot cleaner for simultaneously and selectively performing automatic floor cleaning and automatic floor disinfection. The robot cleaner includes a body traveling automatically on a surface to be cleaned, a driving unit for driving a plurality of wheels provided under the body, and obstacle detecting sensors positioned to a front of the body for detecting an obstacle located ahead of a traveling direction. The robot cleaner also includes memory for storing position information of the obstacle detected by the obstacle detecting sensor, a dust vacuuming and collecting section installed to the body for vacuuming dust on a floor, and a disinfecting section installed under a bottom portion of the body for disinfecting the floor. The robot cleaner also includes a control section for controlling the driving unit to traverse the robot cleaner along a given traveling path, and also control the dust vacuuming and collecting section and the disinfecting section.

Robot cleaner having floor-disinfecting function

A method of compensating a gyro sensor of a robot cleaner is provided. The method includes changing to a compensation mode if a robot cleaner travels greater than a compensation reference, and compensating an output value of the gyro sensor by use of an upper camera.

Method compensating gyro sensor for robot cleaner

A location mark detecting method of a robot cleaner capable of accurately detecting location marks from an image captured by an upwardly looking camera. The location mark detecting method comprises the steps of obtaining from the image object marks to be compared with the reference location marks, determining whether shapes of the object marks are identical to those of the reference location marks, determining whether a distance separating the object marks is identical to that between the reference location marks if it is determined that the shapes are identical, determining whether a surrounding image of the object marks is identical to that of the reference location marks if it is determined that the distances are identical, and identifying the object marks as the location marks if it is determined that the surrounding images are identical. A robot cleaner capable of wirelessly communicating with an external device comprises a driving unit, an upwardly-looking camera for capturing an image of a ceiling above an area to be cleaned on which location marks are disposed, and a control unit for detecting the location marks from the image captured by the upwardly-looking camera, the control unit commanding the driving unit utilizing information of the current location to perform a work command.

Growing community of inventors

Gwangju, South Korea

Jeong-gon Song