Lg Electronics Inc.

Zkw Group Gmbh

Qualcomm Incorporated

Hankyu Cho

Jaehwan Kim

Dongki Paik

Kyunghyun Kim

Hyunha Kim

Sejoon You

Jeongsoo Lee

Euna Moon

Shinwoo Yoon

Jaehoon Chung

Eunjong Lee

Kyujin Park

Sunjung Park

Sanghyun Park

Sangcheon Kim

Sangcheol Lee

Young-Ki Baik

Hyeuk Chang

Juung Jo

Jeong-Kyun Lee

Bongho Kim

Yongkyo Kim

Daehyuk Lee

Dongju Kim

Siyoung Kim

Myungwoo Jung

Limkyoung Ha

Doohyun Sung

Donki Paik

Chang Hyeuk

Jeahyun Jeong

Techniques and systems are provided for determining features of one or more objects in one or more images. For example, an image of an object and a three-dimensional model associated with the object can be obtained. From the image, a sample point on the object can be determined. A depth and an angle of the sample point of the object can be determined. A pose and a shape of the three-dimensional model associated with the object can be determined based on the depth and the angle.

Point-based object localization from images

The present invention provides a car lamp, including a light source unit provided with a plurality of semiconductor light emitting devices, and having a planar shape, the light source unit having a light emitting region emitting light and a non-light emitting region formed along an edge of the light emitting region, and a filter unit located to overlap the light emitting region so as to transmit only light of a predetermined wavelength band therethrough, wherein the light emitting region of the light source unit is provided with a plurality of regions, and is configured such that at least one of the plurality of regions selectively emits light.

Car lamp using semiconductor light emitting device

A lamp for a vehicle includes an array module comprising a plurality of micro Light Emitting Diode (LED) chips that are arranged in one or more patterns and that are configured to generate light, where the array module has a shape that is concave in a first direction.

Lamp for vehicle and vehicle

A lamp for a vehicle includes an array module including a plurality of micro Light Emitting Diode (LED) chips. The array module includes a plurality of regions, where each region includes one or more arrays. Each array includes at least a portion of the plurality of micro LED chips. At least one of the plurality of regions includes arrays that are stacked to each other, where a number of arrays stacked at a first region among the plurality of regions is different from a number of arrays stacked in a second region among the plurality of regions.

A lamp for a vehicle includes: a light generation unit including an array provided with a plurality of micro-light emitting diode (micro-LED) chips arranged therein; and a lens configured to redirect light beams generated by the light generation unit. The light generation unit is configured to output a plurality of beams having a divergence angle defined in a vertical direction. The lens is arranged to have a largest vertical cross-section thereof inscribed in the divergence angle of the beams that are output from the light generation unit.

Lamp for vehicles and vehicle having the same

A lighting apparatus is provided. The lighting apparatus may include a mounting block provided on a heat sink and having a plurality of light emitting modules installed thereon, and a bulb surrounding the mounting block. One or more reflectors may reflect light emitted by the light emitting modules so as to distribute light within a predetermined light distribution area.

Lighting apparatus having a predetermined light distribution area

A resource allocation method of a relay station in a wireless communication system employing the relay station is provided. The method includes: receiving information on a resource allocation pattern for an access link and a backhaul link of a first frequency band; and determining a resource allocation pattern for an access link and a backhaul link of a second frequency band on the basis of the resource allocation pattern of the first frequency band, wherein the first frequency band is any one of an uplink frequency band and a downlink frequency band, and the second frequency band is a remaining one of the uplink frequency band and the downlink frequency band.

Resource allocation method for backhaul link and access link in a wireless communication system including relay

LED lamp

A lighting apparatus is disclosed. The lighting apparatus may include a heat sink, an LED module provided on the heat sink, an enclosure provided over the heat sink to surround the LED module, an insulator provided between the heat sink and the enclosure, a power module provided below the heat sink to provide power to the LED module, a housing attached to the heat sink to house the power module, and a power socket mounted to the housing and electrically connected to the electronic module. The heat sink may include a channel formed to correspond to a shape of the enclosure and the insulator may be provided in the channel, the insulator and the enclosure being formed of different materials.

Lighting apparatus having a thermal insulator

A light emitting diode (LED) based lamp is provided that may include a housing, a LED module having at least one LED to emit light, and a lens to receive the light from the LED and to guide the light to a specific area. An outer circumference of the lens may have a different surface roughness than an inner surface of the lens or may have a different light transmissivity than the inner surface of the lens. The outer circumference of the lens may minimize light from being transmitted to a region outside the specific area.

LED based lamp and method for manufacturing the same

A lighting apparatus is disclosed. The lighting apparatus may be an omni-directional LED light source. The lighting apparatus may include a heat sink and at least one LED module provided on the heat sink. The LED module may be mounted on a mounting block that protrudes a prescribed height over the heat sink. A first reflector may be provided over the heat sink and below the LED module, and a second reflector may be provided over the LED module. An upper surface of the first reflector may be sloped at a first prescribed angle with respect to a central vertical axis of the heat sink, and a bottom surface of the second reflector may be sloped at a second prescribed angle with respect to the central vertical axis of the heat sink. The first and second reflectors reflect light emitted from the LEDs to produce omni-directional light patterns.

Lighting apparatus

A lighting apparatus is disclosed herein that may omni-directionally radiate light emitted from a light emitting diode (LED). The lighting apparatus may include a heat sink and a mounting block provided over the heat sink. A light emitting module may be provided on a side surface of the mounting block. A reflector may be provided over the heat sink, adjacent to a lower end of the mounting block, to reflect light from the LED. An enclosure may be provided over the heat sink to surround the mounting block to diffuse the light. The light axis of the LED may be directed to a side region of the bulb and the reflector may include an inclined surface that is inclined at a second prescribed angle away from the light axis to distribute the light in an omni-directional angular region.

A lighting apparatus is disclosed. The disclosed lighting apparatus omni-directionally radiates light emitted from a light emitting diode (LED) in a uniform light intensity. The lighting apparatus may include at least one LED and a reflector to reflect light emitted from the at least one LED. The reflector may include openings that are positioned to correspond to a position of a respective LED. The LED may emit light in a first direction and the reflector may reflect the light in a second direction such that a difference in light intensity at any angle within a first range between 0&#xb0; to 135&#xb0; with respect to the first direction is less than or equal 20% of an average light intensity of the entire range, and a light flux within a second range between 135&#xb0; to 180&#xb0; is greater than or equal to 5% of the total flux.

A lighting apparatus may include a case, a circuit board, a light source including a light emitting diode (LED), and a light controlling layer to reflect light from the light source toward an inside of the case to prevent the light from being directly radiated to an outside of the case.

Lighting apparatus with light controlling reflective layer

A flat LED lighting device may include a flat LED light source having a plurality of light emitting diodes (LED) devices, a diffuser for scattering a light from the LED devices, a glare preventive member for preventing as a side glare, and an intermediate layer provided between the diffuser and the glare preventive member. The intermediary layer may have a different refractive index than the diffuser. The glare preventive member may include a transparent plate and a plurality of micro-lenses on the transparent plate for changing a distribution of the light.

Growing community of inventors

Seoul, South Korea

Hankyu Cho