Abstract:
Disclosed is a light-emitting diode package according to an embodiment, including; a body having a cavity formed therein, a lead frame placed in the cavity; and a light emitting diode electrically connected to the lead frame while having a slope angle relative to the bottom surface of the cavity, wherein a light emitting part and a non-light emitting part are present on the light emitting diode, and wherein a connection part is provided in a region of the cavity to be connected to at least a region of the non-light emitting part.
Abstract:
A light emitting device array includes a substrate including a first region and a second region that is inclined with respect to the first region, a first light emitting device package arranged on the first region, and a second light emitting device package that is arranged on the second region and is inclined with respect to the first light emitting device package at an inclination angle between 90° and 160°.
Abstract:
Disclosed is a light emitting device array. The light emitting device array comprises a light emitting device and a body comprises first and second lead frames electrically connected to the light emitting device and a substrate on which the light emitting device package is disposed, the substrate comprises a base layer and a metal layer disposed on the base layer and electrically connected to the light emitting device package, wherein the metal layer comprises first and second electrode patterns electrically connected to the first and second lead frames and a heat dissipation pattern insulated from at least one of the first or(and) second electrode patterns, absorbing heat generated from at least one of the base layer or(and) the light emitting device package and then dissipating the heat.
Abstract:
A safe driving providing system for supporting a safe driving of a vehicle includes: a radar for transmitting a signal of a predetermined frequency bandwidth to a plurality of vehicles, analyzing signals provided by the vehicles, calculating location information and distance information of the vehicles, and finding inter-vehicle distance information of the vehicles based on the location information and the distance information; and a controller for receiving operation speed information from a vehicle information terminal device installed in each vehicle, determining driving safety of the plurality of vehicles based on the received operation speed information and inter-vehicle distance information provided by the radar, and transmitting a warning message for safe driving to the vehicle information terminal device.
Abstract:
Provided is a method for generating a 3D stereoscopic image, which includes: generating at least one 3D mesh surface by applying 2D depth map information to a 2D planar image; generating at least one 3D solid object by applying a 3D template model to the 2D planar image; arranging the 3D mesh surface and the 3D solid object on a 3D space and fixing a viewpoint; providing an interface so that cubic effects of the 3D mesh surface and the 3D solid object are correctable on the 3D space, and correcting the cubic effects of the 3D mesh surface and the 3D solid object according to a control value input through the interface; and obtaining a 3D solid image by photographing the corrected 3D mesh surface and 3D solid object with at least two cameras.
Abstract:
A device for allocating a channel by using wireless access in a vehicular environment in which an onboard unit is provided in a vehicle and at least one roadside unit is provided, receives a service announcement message from at least one roadside unit, uses the service announcement message to generate an available service table, determines whether the available service table has roadside unit entries for transmitting the service announcement message, and if so, compares average RSSI provided by the roadside units to select a roadside unit to access, selects a channel that corresponds to the service provider ID with the highest priority from among the service provided by the selected roadside unit, and assigns the selected channel as a service channel to exchange information with the roadside unit.
Abstract:
Embodiments are about light emitting devices array. The light emitting device array according to embodiments may include a printed circuit board including a base layer, a first protection layer which is in contact with at least one surface of the base layer, an insulating layer disposed on the base layer, and a conduction layer disposed on the insulating layer and a light emitting device package mounted on the conduction layer, wherein the base layer includes iron (Fe).
Abstract:
A light emitting device array includes a substrate including a first region and a second region that is inclined with respect to the first region, a first light emitting device package arranged on the first region, and a second light emitting device package that is arranged on the second region and is inclined with respect to the first light emitting device package at an inclination angle between 90° and 160°.
Abstract:
Disclosed is a light-emitting diode package according to an embodiment, including; a body having a cavity formed therein, a lead frame placed in the cavity; and a light emitting diode electrically connected to the lead frame while having a slope angle relative to the bottom surface of the cavity, wherein a light emitting part and a non-light emitting part are present on the light emitting diode, and wherein a connection part is provided in a region of the cavity to be connected to at least a region of the non-light emitting part.
Abstract:
A microelectromechanical system (MEMS) resonator, a sensor having the same and a method for manufacturing the MEMS resonator are provided. The MEMS resonator includes a base substrate of the MEMS resonator, the base substrate having a recess portion recessed into one surface thereof, an oscillator mounted at the base substrate and at least partially overlapping the recess portion to be vibrated using an empty space of the recess portion, and a wire connected to the oscillator and the base substrate, respectively, to control a natural frequency of the MEMS resonator by supporting at least part of the oscillator. Accordingly, the natural frequency of the resonator can be easily controlled.