Abstract:
A manufacturing method of a semiconductor device including an isolation process is provided to reduce a depth of an isolation pattern by applying a bias to a conductive pattern included in the isolation pattern. A plurality of isolation patterns including conductive patterns(14a) are formed on an upper surface of a semiconductor substrate(10). A gap(19) is formed between the isolation patterns. An active pattern(20) is formed on the semiconductor substrate in order to bury the gap formed between the isolation patterns. A gate insulating layer(22) is formed on an upper surface of the isolation pattern and an upper surface of the active pattern. A gate pattern(24) is formed on an upper surface of the gate insulating layer.
Abstract:
A dual gate FET(Field Effect Transistor) and a manufacturing method thereof are provided to prevent the degradation of electrical properties by forming thickly a non-channel gate oxide layer on predetermined portions of a silicon substrate. A plurality of fins(102) are protruded from a silicon substrate(100b) of an active region, wherein each fin has a first and second side. A source and drain region are formed at both edges of the fin. A channel region is formed in the fin. A channel gate oxide layer(180) is formed on the first and second sides of the fin. A pad insulating pattern(110a) is formed on the fin. An isolation pattern(170a) is filled in a trench isolation region. A non-channel gate oxide layer(106a) is formed between the fins on the substrate. A gate line(190) is formed on the resultant structure.
Abstract:
본 발명의 반도체 장치의 제조방법은 반도체 기판 상에 도전 패턴을 포함하는 소자 분리 패턴을 복수개 형성하고, 소자 분리 패턴들 사이에 갭을 형성한다. 이어서, 반도체 기판 상에 갭을 매립하는 액티브 패턴을 형성한다. 소자 분리 패턴 및 액티브 패턴 상에 게이트 절연막을 형성한다. 게이트 절연막 상에 게이트 패턴을 형성한다. 소자 분리 패턴은 상기 반도체 기판 상에 형성된 제1 절연 패턴과, 상기 제1 절연 패턴 상에 형성된 상기 도전 패턴과, 상기 도전 패턴의 양측벽에 형성된 제2 절연 패턴이고, 상기 도전 패턴은 상기 제1 절연 패턴, 상기 제2 절연 패턴 및 상기 게이트 절연막에 의하여 둘러싸진다.
Abstract:
반도체장치및 그의형성방법을제공할수 있다. 이를위해서, 반도체기판상에셀 비트라인패턴및 주변게이트패턴을형성할수 있다. 상기셀 비트라인패턴은반도체기판의셀 활성영역주변의비활성영역상에배치될수 있다. 상기주변게이트패턴은반도체기판의주변활성영역상에배치될수 있다. 상기셀 비트라인패턴및 셀활성영역사이에셀 콘택플러그를형성할수 있다. 상기주변게이트패턴의측부에위치하도록주변활성영역상에주변콘택플러그가배치될수 있다. 상기셀 비트라인패턴, 주변게이트패턴, 셀및 주변콘택플러그들의상면들을실질적으로동일레벨에서노출시키는절연막이배치될수 있다.
Abstract:
PURPOSE: A manufacturing method of a semiconductor device is provided to reduce an electrical short between a landing pass and a recess contact plug in an integrated semiconductor device by increasing a separation distance between the landing pass and the recess contact plug. CONSTITUTION: Gate lines(108) are formed on a semiconductor substrate(101). An interlayer insulation film(110,128) insulates the gate lines. A first contact plug(114) and a second contact plug penetrate the interlayer insulation film, and are formed on the semiconductor substrate between the gate lines. A landing pad(122) is formed on the interlayer insulation film and the first contact plug, and is overlapped with a part of the first contact plug. A recess contact plug(126) is formed by etching the second contact plug.
Abstract:
A method for manufacturing a semiconductor device for reducing a thermal budget to impurity regions of a peripheral circuit region is provided to improve characteristics of the semiconductor device by forming a peripheral transistor after performing a high-temperature process. A substrate(110) including a cell array region and a peripheral circuit region is prepared. The cell array region includes a cell activation region(112c). The peripheral circuit region includes peripheral activation regions(112a,112b). A cell gate pattern(126a) and a peripheral gate pattern(126b) are formed across the cell activation region and the peripheral activation region. A plurality of first cell impurity regions(130c) are formed in the cell activation regions of both sides of the cell gate pattern. A cell bottom interlayer dielectric(136) and a peripheral insulating layer are formed on the substrate in order to cover the cell array region and the peripheral circuit region, respectively. A plurality of cell conductive pads(144c) are formed through the cell bottom interlayer dielectric in order to be electrically connected with the first cell impurity regions. The peripheral insulating layer is removed to expose the peripheral activation regions of both sides of the peripheral gate pattern.
Abstract:
A method of operating a DRAM device including a FIN transistor and a DRAM device thereof are provided to increase integration density of the DRAM device without comprising a generator to apply a body bias to a peri/core region of the DRAM device and thus to reduce operation failure. A semiconductor substrate(100) comprises a FIN active region formed with a FIN transistor, an isolation region and an active region connected to a body part of the FIN transistor as having a flat plane. A gate structure is formed on the center of the FIN active region. A dummy gate structure is formed at the edge of the FIN active region. A source/drain(108) are formed below the surface of the FIN active region on both sides of the gate structure. A first interlayer insulation film(110) covers the gate structure and the dummy gate structure. A bit line structure is electrically connected to the drain. A second interlayer insulation film(114) covers the bit line structure. A capacitor structure(130) is electrically connected to the source. A third interlayer insulation film(120) covers the capacitor. A line structure is connected to the active region surface and the dummy gate structure at the same time, and is connected to a port applied with a ground level from the outside to ground the body of the FIN transistor.
Abstract:
A fin field effect transistor and a manufacturing method thereof are provided to reduce off current and gate induced drain leakage by extending an effective distance between a source and a drain. An active pin(118) having a round trench(114) on an upper surface. A gate insulation film is formed on a surface of the active fin. A gate electrode(122) is formed in an inner surface of the trench, and has a line width narrower than an upper width of the trench. Impurity regions are formed under the surface of the active fin at both sides of the gate electrode. The trench extends to edges of both sides of the active fin in a first direction perpendicular to a longitudinal direction of the active fin.
Abstract:
A method for manufacturing a semiconductor device and the semiconductor device manufactured thereby are provided to improve a current driving capability and to enhance the degree of integration by using multi-channel transistors. An isolation layer for defining an active region is formed on a semiconductor substrate. A plurality of pre-semiconductor pillars are formed within the active region. The pre-semiconductor pillars are self-aligned with the active region and spaced apart from each other. Semiconductor pillars(180,185,190a,190b) are formed on the resultant structure by etching selectively the pre-semiconductor pillars. Each semiconductor pillar has a hole. At least one gate structure(320a to 320c) are formed on the resultant structure to cross over the semiconductor pillars and the holes of the semiconductor pillars.