Abstract:
A method for controlling a portable device is provided. The method includes detecting bending of the portable device and determining whether to perform motion sensing correction due to the bending; acquiring a motion sensing correction factor for performing the motion sensing correction due to the bending; performing motion sensing correction of at least one motion sensor using the motion sensing correction factor; and controlling the portable device according to the corrected motion sensing.
Abstract:
A smart watch is disclosed in which a part of the wrist of a user connected to the palm when the smart watch is worn by the user is constructed to be thin. According to an embodiment, the smart watch includes a display part configured to display digital content, a first connection part connected to one side of the display part, the first connection part including a camera unit, a second connection part connected to the other side of the display part, the second connection part including a battery unit, and a comfort part configured to connect the first connection part and the second connection part, wherein thickness of the comfort part is thinner than thickness of the display part, the first connection part, and the second connection part.
Abstract:
A processor of a device for providing a route, provided in a server, according to an embodiment of the present invention sets a segment that serves as a standard for generating an optimal route in lane units, generates an optimal route in lane units on the basis of the set segment, and varies the length of the segment on the basis of satisfying a preset condition.
Abstract:
The present disclosure provides a path providing device for providing a path (route) to a vehicle, and a path providing method thereof. The path providing device includes an image sensor, and the image sensor and a processor are provided on one printed circuit board. The path providing device further includes a data fusion unit configured to extract a portion that needs to be updated from the map information using an image received from the image sensor.
Abstract:
A heat exchanger of the present disclosure is operated in a cooling operation mode in which a region to be heat-exchanged is cooled by the heat exchanger or in a drying operation mode in which the heat exchanger is supplied with wind from a blowing fan, and comprises: a refrigerant pipe which forms a flow path of a refrigerant; a cooling fin which is coupled to the refrigerant pipe; and a hydrophilic coating with which the surface of at least one of the refrigerant pipe and the cooling fin is coated, wherein the hydrophilic coating contains: a first type transition metal oxide which becomes acidic by reacting with water formed on the refrigerant pipe or the cooling fin, so as to have antimicrobial activity when the heat exchanger is operated in the cooling operation mode; and a second type transition metal oxide or a post transition metal oxide which has antimicrobial activity when the heat exchanger is operated in the drying operation mode.
Abstract:
Disclosed herein is a user interface apparatus for vehicles including light sources, a touch sensor to sense touch, light guides to transfer light generated by the light sources, and a top cover to cover the light sources, the touch sensor and the light guides and to transmit light emitted from the light guides to the interior of a vehicle. The light sources includes a first light source and at least one second light sources, the light guides includes first and second light guides to receive light generated by the first light source and to transfer the light to first and second regions and at least one third light guide configured to receive light generated by the at least one second light source and to transfer the light to a third region, and light generated by the first light source is dispersed and provided to the first and second light guides.
Abstract:
Adevice (100) formeasuringfloatingmicro-organismsaccording to the present embodiment comprises an air flow path (250) through which air including floating micro-organisms flow, a first main body (210) which is provided on a side of the air flow path (250) and has a first space portion (231) and a second space portion (233), a second main body (220) which is provided on the other side of the air flow path (250) and in which a collecting portion (260) for collecting the floating micro-organisms are installed, a light emitting unit (310) which is installed in the first space portion (231) and emits a preset wavelength region of light toward the collecting portion (260), and a light receiving unit (370) which is installed on the second space portion (233) and detects a fluorescence signal generated from light which acts on riboflavin contained in the floating micro-organisms.