Abstract:
A robot may perform emergency stopping. The robot includes: a driving device configured to perform movement of the robot; a stop switch configured to output a stop switch signal; a controller configured to output a stop signal; and a stop circuit configured to output a first control signal and a second control signal for stopping the driving device. The stop circuit may output the first control signal and the second control signal in response to the stop signal and the stop switch signal.
Abstract:
A mobile terminal including a display unit having a main display region exposed on a front surface and an auxiliary display region exposed on a lateral surface; and a controller configured to display at least one display object on the main display region, and move the at least one display object from the main display region to the auxiliary display region in response to a received move command.
Abstract:
A mobile terminal is disclosed. A mobile terminal according to one embodiment of the present invention includes a memory configured to store at least one command in advance, a display module configured to output a screen containing at least one selected from the group consisting of a text data, an image data and a video data, a first user interface module configured to detect a first touch of a user, a controller configured to execute a first command on the basis of the detected first touch and a second user interface module configured to detect a second touch of the user, wherein the controller is configured to control a second command to be executed on the basis of the detected second touch.
Abstract:
A mobile terminal and a method for controlling the mobile terminal are disclosed. A mobile terminal according to one embodiment of the present invention comprises at least one sensor; a first processor for controlling operation of the at least one sensor; a second processor for controlling an application; and a vibration unit detecting a force applied by the user, where the vibration unit is woken up when a force applied by the user exceeds a predetermined magnitude while the at least one sensor, the first processor, the second processor, and the vibration unit are all in a sleep state; and if the first processor is woken up by the vibration unit, the first processor wakes up the second processor based on sensing data collected by the at least one sensor.
Abstract:
The present specification discloses a smart shoe for detecting a motion and a method for processing motion data detected by the smart shoe, according to the present invention. According to the present invention, one embodiment of the smart shoe comprises a sensor unit including an acceleration sensor, a gyro sensor, and a pressure sensor which is switched according to step-units and senses the pressure of the smart shoe, and a data processing unit for acquiring and processing motion data of the smart shoe on the basis of the sensing data of the sensor unit. Here, the data processing unit removes the step noise of the smart shoe motion data on the basis of the acceleration sensor data and gyro sensor data, which are sensed by the acceleration sensor and the gyro sensor, by referring to the zero velocity data detected from the pressure sensor data sensed the pressure sensor, and filters the motion data, from which the step noise is removed, so as to process the motion data of the smart shoe on the basis of the filtered motion data and a predefined first threshold value.
Abstract:
A smart terminal service system and a smart terminal processing data are disclosed. The smart terminal service system comprises smart shoes and the smart terminal. The smart shoes comprises a memory, a pressure sensor sensed by a predetermined pressure of a user, and a controller for calculating sensor velocity data on the basis of sensor data sensed by the pressure sensor and transmitting the calculated sensor velocity data to the smart terminal. And, the smart terminal comprises a communication unit for transmitting and receiving a signal to and from the smart shoes, a receiving unit for receiving GPS velocity data and sensor velocity data of the smart shoes, a memory, and a controller for controlling an execution of a smart shoes application and for calculating movement data of the smart shoes based on the received GPS velocity data and sensor velocity data which is sensed by the pressure sensor provided in the smart shoes.
Abstract:
Disclosed herein are a motor safety control method that can efficiently detect an abnormality of a motor sensor configured to sense a rotational motion of a motor and control a safety operation of the motor based thereon, and a robot for implementing the method. The motor safety control method for a robot may include receiving a first motor value from a high-resolution sensor of a motor, receiving a second motor value from a low-resolution sensor of the motor, and comparing a threshold with a difference between the first motor value and the second motor value, and transmitting an operation signal to a motor driver for the motor to continue or stop operation of the motor.
Abstract:
A mobile terminal includes a display unit disposed on a front surface and including a first portion and a second portion formed to be rotatable with respect to a boundary portion formed on one side of the first portion so as to be in a state in which the second portion covers the first portion or a state in which the second portion does not cover the first portion, a first sensing unit disposed on a left end of the terminal body and generating a first signal on the basis of a movement of the left end, a second sensing unit disposed on the right end of the terminal body and generating a second signal on the basis of a movement of the right end, and a controller controlling at least one of functions executable on the terminal on the basis of the first signal and the second signal.
Abstract:
A mobile terminal according to the present invention comprises a motion sensor sensing a motion of the user while maintaining an activation state even when the main processor is in a sleep state; a grip sensor being deactivated in case the main processor is in the sleep state and sensing the user's grip; and a sub-processor, where the sub-processor, in case a predetermined motion of the user is detected while the main processor is in the sleep state, determines the user's grip by activating the grip sensor and wakes up the main processor in the event of sensing the user's grip but keeps the main processor in the sleep state otherwise.