Abstract:
PURPOSE: A composition for filling TSVs(Through Silicon Via), a filling method thereof, and a substrate including a TSV filling material manufactured using the composition are provided to improve brittleness, impact resistance, and moisture absorption resistance by providing toughness to an intermetallic compound. CONSTITUTION: Metal powder(100) provides necessary intensity and toughness in a TSV(Through Silicon Via). The 1 to 50 volume% of the metal powder is included based on a gross volume of a composition for TSV filling. Solder power(200) provides an electrical passage while forming an inter metallic compound with the metal powder. A hardened resin(300) absorbs displacement according to stress of metal or a thermal expansion coefficient. The hardened resin prevents moisture from being penetrated into metal or the inter metallic compound in a moisture-absorption reliability test.
Abstract:
PURPOSE: A manufacturing method of a semiconductor chip including a penetration electrode is provided to remove an edge of a first substrate without adding a resizing process by removing a recess region in forming a penetration hole. CONSTITUTION: In a manufacturing method of a semiconductor chip including a penetration electrode, a first substrate(100) has first and second sides which are faced with each other. The first side of the first substrate is selectively etched to form a recess region and a reserved penetration hole. A metal layer(160) is formed on one side of the second substrate(150). The metal layer of the second substrate and the first side of the first substrate are combined to form a combination structure. A penetration hole exposes the metal layer to the outside. A penetration electrode(140) filling a penetration hole is formed.
Abstract:
충진 조성물, 이를 포함하는 반도체 소자 및 반도체 소자를 제조하는 방법을 제공한다. 충진 조성물은, 구리 및 은으로 이루어진 군에서 선택된 적어도 하나를 포함하는 제1 입자, 제1 입자 사이를 전기적으로 연결하는 제2 입자 및 고분자 화합물, 경화제 및 환원제가 함유된 수지를 포함한다. 이때, 경화제는 아민 및 무수물로 이루어진 군에서 선택된 적어도 하나를 포함하고, 환원제는 카르복실기를 포함할 수 있다.
Abstract:
The present invention provides a transceiver module having advantages of minimizing the number of optical parts by using an optical collimator to which a lens having the same shape as a diameter of an optical fiber is attached on a light input/output end. An transceiver module according to the present invention includes, laser diode for generating an optical signal to transmit, a first photodiode for controlling the laser diode, a second and third photodiodes for receiving an optical signal of a first and second wavelengths, and an optical collimator formed at a light input/output end. On the optical collimator, a lens having an optical fiber shape is attached in a direction the light proceeds.
Abstract:
본 발명은 광통신에 적용되는 광소자를 모듈화함에 있어 필요한 광학 부품을 고정하기 위한 광모듈 제작용 구조물에 관한 것으로 종래의 구조물들과 달리 커플링 렌즈, 콜리메이터, 미러 등의 광학 부품를 양방향으로 정확한 위치에 부착할 수 있으며 결과적으로 소자에서 나오는 광을 용도에 따라 정확하게 조절할 수 있는 위치에 렌즈를 위치시킬 수 있게 되어 우수한 광특성을 확보할 수 있는 광부품 부착용 구조물을 제공하기 위한 것이다.
Abstract:
PURPOSE: A zig for aligning an optical fiber and a method for aligning an optical fiber by using the same are provided to easily align the optical fiber provided with a previously fabricated optical fiber. CONSTITUTION: A zig for aligning an optical fiber includes a first zig(3), a second zig, a third zig(7), a fourth zig(11), a fifth zig and a sixth zig. The first silicon bench which is formed thereon a plurality of holes for finally supporting a plurality of optical fibers is fixed to the first zig(3). The second silicon bench which is formed thereon a plurality of holes for supporting a plurality of optical fibers is fixed to the second zig. The third zig(7) is provided with a plurality of first pins for temporally supporting the optical fiber aligned to the second silicon bench. The fourth zig(11) supports optical fiber for preventing the dispersion of the optical fiber. The fifth zig supports the third silicon bench which is formed thereon a hole for temporally supporting the optical fiber selected from the plurality of optical fibers. And, the sixth zig is provided with a second pin for temporally supporting the optical fiber aligned at the third silicon bench.
Abstract:
PURPOSE: A silicon optical bench for the packaging of an optical switch device, an optical switch package using the same, a manufacturing method thereof are provided to be capable of exactly carrying out an aligning process between the optical switch device, a light input part, and a light output part. CONSTITUTION: A silicon optical bench(100) includes a silicon substrate(110). At this time, the silicon substrate includes the first region for loading an optical switch device, the second region located at the first side of the first region for forming a light input part, and the third region located at the second side of the first region for forming a light output part. A vacant space(120) is formed through the silicon substrate at the first region. A plurality of grooves(131,132,133) formed on the silicon substrate at the second and third region for loading a lens and an optical fiber.
Abstract:
PURPOSE: A zig for aligning an optical fiber and a method for aligning an optical fiber by using the same are provided to easily align the optical fiber provided with a previously fabricated optical fiber. CONSTITUTION: A zig for aligning an optical fiber includes a first zig(3), a second zig, a third zig(7), a fourth zig(11), a fifth zig and a sixth zig. The first silicon bench which is formed thereon a plurality of holes for finally supporting a plurality of optical fibers is fixed to the first zig(3). The second silicon bench which is formed thereon a plurality of holes for supporting a plurality of optical fibers is fixed to the second zig. The third zig(7) is provided with a plurality of first pins for temporally supporting the optical fiber aligned to the second silicon bench. The fourth zig(11) supports optical fiber for preventing the dispersion of the optical fiber. The fifth zig supports the third silicon bench which is formed thereon a hole for temporally supporting the optical fiber selected from the plurality of optical fibers. And, the sixth zig is provided with a second pin for temporally supporting the optical fiber aligned at the third silicon bench.