Abstract:
An electronic device for a vehicle includes a power supply configured to supply power, an interface configured to receive high-definition (HD) map data of a specified region and to receive data of an object from an object detection device, and a processor configured to continuously acquire electronic horizon data of the specified region based on the HD map data in a state in which the power is received, to perform map matching based on the data of the object, and to perform map matching based on a second object set to new map matching feature when map matching based on a first object preset to map matching feature fails. Data generated by the electronic device for a vehicle is transmitted to an external device through a 5G communication method. The electronic device for a vehicle is embodied using an artificial intelligence (AI) algorithm. The data generated by the electronic device for a vehicle is embodied as augmented reality (AR) content.
Abstract:
A path providing device configured to provide a path information to a vehicle includes: a telecommunication control unit configured to receive, from a server, map information including a plurality of layers of data, an interface unit configured to receive sensing information from one or more sensors disposed at the vehicle, and a processor. The process is configure to determine an optimal path for guiding the vehicle from an identified lane, generate autonomous driving visibility information based on the sensing information and the determined optimal path, and update the optimal path based on dynamic information related to a movable object located in the optimal path and the autonomous driving visibility information. The process includes a map cacher, a map matcher, a path generator, a horizon generator, an Advanced Driver Assistance Systems Interface Specification generator, and a transmitter.
Abstract:
A path providing device configured to provide a path information to a vehicle includes: a communication unit configured to receive, from a server, map information including a plurality of layers of data, an interface unit configured to receive sensing information from one or more sensors disposed at the vehicle, a processor, and an event data recorder (EDR) configured to store vehicle status information including first sensor data sensed by a first sensor associated with an operation of the vehicle, and second sensor data sensed by a second sensor associated with surrounding information of the vehicle. The processor is configured to determine an optimal path for guiding the vehicle from an identified lane, generate autonomous driving visibility information, update the optimal path based on dynamic information and the autonomous driving visibility information, and include the vehicle status information stored in the EDR in the autonomous driving visibility information.
Abstract:
A path providing device for providing a route to a vehicle includes a first communication module configured to receive a high-definition (HD) map information from an external server, a second communication module configured to receive external information generated by an external device located within a predetermined range from the vehicle, and a processor configured to generate forward path information for guiding the vehicle based on the HD map and provide the forward path information to at least one of electric components provided in the vehicle. The processor is configured to generate dynamic information related to an object to be sensed by the at least one of the electric components based on the external information and to match the dynamic information to the forward path information.
Abstract:
A control method of a laundry treating apparatus includes rotating a drum at a reference rotational speed that is lower or higher than a resonance rotational speed of the laundry treating apparatus; measuring the maximum displacements of tub front and rear surfaces and a phase difference between the maximum displacements during the rotation of the drum at the reference rotational speed; determining a front unbalance (UB) mass located in a drum front area, a rear UB mass located in a drum rear area, and an angle between the UB masses based on the maximum displacements and the phase difference; and accelerating a drum rotational speed to a target rotational speed that is higher than the reference rotational speed and the resonance rotational speed, when the front and rear UB masses are in a preset allowable mass range and an angle between the UB masses is in an allowable angle range.
Abstract:
Disclosed is a laundry treatment apparatus including a cabinet defining an external appearance of the laundry treatment apparatus, a drum rotatably provided inside the cabinet, the drum being configured to accommodate laundry therein, a drive unit configured to generate torque required to rotate the drum, a power transmission unit provided on one surface of the drum, the power transmission unit being configured to transmit the torque generated by the drive unit to the drum so as to rotate along with the drum, and at least one balancer provided on an inner circumferential surface of the drum. Water is selectively supplied into the balancer so as to eliminate unbalance occurring in the drum.
Abstract:
Disclosed are an electronic device and a method for controlling the same. The electronic device and the method for controlling the same, according to the present invention, comprise: an output unit for emitting a radiated signal to at least one subject; a receiving unit for detecting a reflected signal of the radiated signal by the at least one subject; and a control unit for calculating the distance to the at least one subject on the basis of the reflected signal and transforming the wave form of the radiated signal of the output unit to change the measurable range of the distance. According to the present invention, it is possible to transform the wave form of a radiated signal to change the measurable range of the distance to a subject.
Abstract:
The present invention relates to an RGB-IR sensor, and a method and an apparatus for obtaining a 3D image by using the same. The RGB-IR sensor according to the present invention comprises: a first pixel basic unit including one of each of R, G, B and IR pixels; and a second pixel basic unit in which the R, G, B and IR pixels are arranged in a different order from those in the first pixel basic unit, wherein the RGB-IR sensor is comprised by alternately arranging the first pixel basic unit and the second pixel basic unit in a horizontal direction, and wherein R, G, B and IR pixel arrangements in the first pixel basic unit and the second pixel basic unit are determined so that the position of IR-pixels in the RGB-IR sensor are not equidistance apart from each other.
Abstract:
An electronic device for a vehicle includes a power supply configured to supply power, an interface configured to receive high-definition (HD) map data of a specified region and event occurrence information from a server through a communication device, and a processor configured to continuously generate electronic horizon data of the specified region based on the HD map data in a state in which the power is received, and to change the electronic horizon data based on the event occurrence information.
Abstract:
The present disclosure relates to a vehicular electronic device including a power supply configured to supply power, an interface configured to receive HD map data on a specific area from a server through a communication device and receive data on driving condition information of a vehicle, and a processor configured to continuously generate electronic horizon data on a specific area based on the high-definition (HD) map data in the state of receiving the power and to set a geographical range of the electronic horizon data based on data on the driving condition information.