Samsung Electronics Co., Ltd.

Samsung Electro-mechanics Co., Ltd.

Jae-ho You

Byoung-lyong Choi

Jin-Hwan Kim

Hong-seok Lee

Jeong-gun Lee

Yoon-sun Choi

Eun-kyung Lee

Hyung Ki Choi

Jin-seung Choi

Chang-eun Yoo

Su-Mi Lee

Jee-hong Min

Jun-Hong Min

In-ho Lee

Young-rok Kim

Woong-lin Hwang

Ki-woong Han

Woon-bae Kim

Yong-sung Kim

Seung-wan Lee

Che-Heung Kim

Seung-Ho Nam

Jun-young Kim

Jeong-yub Lee

Seung-Tae Choi

Eung-Yeoul Yoon

Byoung-ho Cheong

Kyung-yeup Kim

Seong-mo Hwang

Seung-ho Nam

Young-jin Song

Provided herein is a method and apparatus for disrupting cells and purifying nucleic acids in a single chip. The method comprises irradiating a chip with a laser beam, wherein the chip comprises a solid support on which a cell lysis enhancing metal oxide layer, and a cell binding metal oxide layer have been deposited.

Method and apparatus for disrupting cells and purifying nucleic acid using a single chip

A liquid optical lens which changes a focus due to a change in a shape of a translucent elastic membrane according to a change in a fluid pressure of a lens chamber and a manufacturing method thereof are provided. The liquid optical lens forms a dampproof coating membrane on the translucent elastic membrane to prevent a fluid from permeating through the translucent elastic membrane and a swelling phenomenon of the translucent elastic membrane.

Optical lens and manufacturing method thereof

Provided are a method of adjusting a photonic bandgap of a photonic crystal, a method of manufacturing a reflective color filter using the same, and a display device including the reflective color filter. The method of adjusting a photonic bandgap of a photonic crystal includes forming the photonic crystal having a photonic bandgap on a substrate, and changing the photonic bandgap by irradiating light onto the photonic crystal. In addition, the display device includes a backlight, a transflective liquid crystal panel including liquid crystal cells sealed between first and second substrates. Each liquid crystal cell corresponding to a pixel includes a transmissive area and a reflective area. A transmissive color filter is formed on the first substrate, which faces the backlight, and a reflective color filter is formed on each reflective area.

Method of adjusting photonic bandgap of photonic crystal, method of manufacturing reflective color filter using the same, and display device including the reflective color filter

An illuminating apparatus providing polarized color light and a display apparatus including the illuminating apparatus are provided. The illuminating apparatus includes a light source; a polarization light guide plate (LGP) unit which converts a polarization direction of light emitted from the light source into linearly polarized light, and collimates the linearly polarized light; and a cholesteric liquid crystal color filter which disposed on an upper portion of the polarization LGP unit, and selectively reflects light according to a polarized status and a wavelength of the light.

Illuminating apparatus wherein the plurality of polarization separating layers are disposed only to face the plurality of reflective patterns of the polarization light guide plate unit

A light guide plate having a multi-periodic micro pattern, which can minimize chromatic dispersion, and an illumination apparatus for a display device employing the light guide plate are provided. The light guide plate includes a top surface and a micro pattern formed on the top surface and allowing light, which is incident from a first side surface of the light guide plate, to be emitted from the top surface. The micro pattern is a combination of at least two periodic patterns having different periods to reduce chromatic dispersion of light emitted from the top surface.

Light guide plate having multi-periodic patterns and illumination apparatus for display device using the light guide plate

A diffuser sheet which compensates for chromatic dispersion generated in a hologram light guide plate, and an illumination apparatus employing the diffuser sheet are provided. The diffuser sheet includes a plate type light-transmissive substrate and a light diffusion layer disposed on a light emission surface of the light-emission substrate. A light-incident surface of the light-transmissive substrate has declined surfaces and flat surfaces which are alternatively and repeatedly formed thereon. The declined surfaces are declined at a predetermined angle.

Diffuser sheet for compensating for chromatic dispersion and illumination apparatus employing the same

A slim optical pickup in which a leaf spring is combined with an upper surface of a semiconductor substrate, which is a silicon optical bench (SiOB) monolithically manufactured with a photodetector. The slim optical pickup has a substrate including a light source for generating a light beam, an optical element to irradiate light to an optical disc, a photodetector for receiving a light beam reflected by the optical disc, and a plurality of first bonding pads; a heat sink attached to the surface of the substrate; and a supporting means having a plurality of second bonding pads formed on an inner side of an array of the plurality of the first bonding pads on the substrate.

Slim optical pickup

An optical bench is provided, as are a thin optical pickup that employs the optical bench, and a method of manufacturing the optical bench. The optical bench includes a light source for generating light for recording and reproducing information to and from an optical disc, a light source stand on which the light source is mounted, a mirror adjacent to the light source stand, and a bottom surface at a lower point than the light source stand and between the light source stand and the mirror surface. Sides of the light source stand besides the side facing the mirror are connected to the surface of the substrate by a flat sloped surface. Along the sloped surface, two electrodes for supplying power to the light source are connected to the light source stand. Since the metal wirings are formed along the sloped surface without trenches or windings between the light source stand and the silicon substrate, no disconnection of metal lines at a corner occurs.

Optical bench, slim optical pickup employing the same and method of manufacturing the optical bench

A silicon optoelectronic device and a light-emitting apparatus using the silicon optoelectronic device are provided. The silicon optoelectronic device includes: a substrate based on an n-type or p-type silicon; a doped region formed on one surface of the substrate and doped to an ultra-shallow depth with a predetermined dopant to be an opposite type from that of the substrate to provide a photoelectrical conversion effect by quantum confinement in a p-n junction between the doped region and the substrate; and first and second electrodes formed on the substrate to be electrically connected to the doped region. The silicon optoelectronic device may further include a control layer formed on one surface of the substrate to act as a mask in forming the doped region and to limit the depth of the doped region to be ultra-shallow. The silicon optoelectronic device has excellent efficiency and can be used as either a light-emitting device or a light-receiving device. Since the optoelectronic device uses silicon as a base material, it can be manufactured at low cost.

Silicon optoelectronic device and light emitting apparatus using the same

A multiple wavelength surface-emitting laser device equipped with a substrate and a plurality of surface-emitting lasers formed on the substrate by a continuous manufacturing process is provided. Each surface-emitting laser includes a bottom reflection layer on the substrate, that is doped with impurities of one type and composed of alternating semiconductor material layers having different refractive indexes; an active layer that is formed on the bottom reflection layer; an intermediate layer that is doped with impurities of the other type on the active layer; a top electrode that is formed on the intermediate layer to have a window through which light is emitted; and a dielectric reflection layer where dielectric materials with different refractive indexes are alternately layered on the intermediate layer and/or the top electrode to a thickness suitable for a desired resonance wavelength, and the resonance wavelength is controlled by adjusting the thickness of the dielectric reflection layer.

Multiple wavelength surface-emitting laser device and method for its manufacture

A light-emitting device and a light-emitting apparatus using the same. The light-emitting device includes an n-type or p-type substrate, a doped region formed on a first surface of the substrate with a predetermined dopant to be an opposite type from that of the substrate, to an ultra-shallow depth such that light is emitted from a p-n junction between the doped region and the substrate by a quantum confinement effect, a resonator which improves the selectivity of wavelength of the light emitted from the p-n junction, and first and second electrodes formed on the first surface and a second surface of the substrate, respectively, for injection of holes and electrons. The light-emitting device includes the ultra-shallow doped region so that it can emit light with a quantum confinement effect in the p-n junction. A resonator structure to resonate only a particular wavelength range of light is added to the light-emitting device so that the selectivity of light wavelength is markedly improved with excellent efficiency. The intensity of light emission is amplified by the resonator structure, and the directional property of the emitted light can be improved further than that of conventional light-emitting devices.

Light-emitting device and light-emitting apparatus using the same

Growing community of inventors

Seoul, South Korea

Jae-ho You