Abstract:
A resistivity memory device and a manufacturing method thereof by using the resistance of the resistance alteration material are provided to maintain the resistance law of the first resistance alteration layer although the lateral part of the first resistance alteration layer is damaged by etching. A resistivity memory device comprises a first electrode(100), a first insulation layer, a first resistance alteration layer(120) and a first switching device. The first insulation layer is equipped on the first electrode. The first insulation layer has the first hole exposing a part of the first electrode. The first resistance alteration layer is contacted with the exposed first electrode. The first resistance alteration layer is expanded on the first insulation layer of the first around hole. The first switching device is electrically connected to the first resistance alteration layer.
Abstract:
본 발명은 고밀도 비휘발성 메모리 소자를 구현하기 위하여 별도로 형성된 스위칭 소자가 필요없이 간단한 구조로 구동할 수 있는 다이오드 특성을 지닌 비휘발성 메모리 소자 및 이를 포함하는 메모리 어레이에 관한 것이다. 제 1전극; 상기 제1전극 상에 형성된 다이오드-스토리지 노드; 및 상기 다이오드-스토리지 노드 상에 형성된 제 2전극;을 포함하는 비휘발성 메모리 소자를 제공한다. 저항 변화 메모리, 다이오드, 비휘발성 메모리, 크로스 포인트
Abstract:
An oxide thin film transistor and a manufacturing method thereof are provided to improve electrical characteristic by forming a capping layer with high work function in a channel region. A channel(14) and a capping layer(15) with a work function higher than the channel are consecutively formed in the position corresponding to a gate(12). A gate insulator(13) is formed between the gate and the channel. A source(16a) and a drain(16b) are formed while contacting two parts of the capping layer. A passivation layer is formed by coating the insulating material on the capping layer. The channel is made of the In-Zn oxide coated with Ni.
Abstract:
An etching solution of a Zn oxide and a Zn oxide thin film transistor are provided to remove damage area formed in a channel in a source and drain forming process as a channel surface is partly removed and a recessed portion is formed. A Zn oxide thin film transistor comprises a gate(32), a channel(34), a gate insulator, a source(35a), a drain(35b), and a recessed portion(R). The channel is formed of a Zn oxide in a location corresponding to the gate. The gate insulator is formed between the gate and channel. The source and drain are formed with contacting two part of the channel. The recessed portion is formed in the channel between the drain and source.
Abstract:
A resistivity memory device and manufacturing method thereof are provided to control the location and form of an overhanging construction selectively and arbitrarily by providing various manufacturing methods of the overhanging construction formed in a middle electrode. A resistivity memory device comprises a middle electrode(32), a resistance conversion layer(33) and an upper electrode(34). The middle electrode is formed on a switch(31). The middle electrode is composed of a overhanging construction(p). The resistance conversion layer is formed on the middle electrode. The upper electrode is formed on the resistance conversion layer.
Abstract:
A non-volatile memory transistor having a polysilicon fin, a stacked non-volatile memory device having the transistors, a method of manufacturing the transistor, and a method of manufacturing the memory device are provided to reduce a leakage current and increase an on-current and a program/erasure window by forming a pillar type polysilicon fin in the non-volatile memory transistor. A non-volatile memory device includes an active fin(100a), a first charge storage pattern(117'), a first control gate line(119c), an interlayer dielectric(120), a polysilicon fin(135a), a second charge storage pattern(137'), and a second control gate line(139c). The active fin is protruded upwards from a semiconductor substrate. The first charge storage pattern covers an upper surface and a sidewall of the active fin. The first control gate line covers the upper surface of the first charge storage pattern and traverses an upper surface of the active fin. The interlayer dielectric is arranged on the first control gate line. The polysilicon fin is arranged on the interlayer dielectric. The second charge storage pattern covers the upper surface and the sidewall of the polysilicon fin. The second control gate line covers the upper surface of the second charge storage pattern and traverses the upper portion of the polysilicon fin.
Abstract:
본 발명은 광대역 무선접속 통신시스템을 이용한 위치정보기반 광고정보제공을 위한 장치 및 방법에 관한 것으로 광대역 무선접속 통신시스템을 이용한 위치정보기반 광고대상정보를 제공하는 광고정보제공 시스템에 있어서, 사업자 서버로 광고대상정보를 제공하는 매장 단말기와, 상기 매장 단말기가 제공한 상기 광고대상정보를 과금대상정보로 사용하고, 사용자 단말기로 길안내 정보를 제공하는 사업자 서버와, 상기 사업자 서버로부터 광고대상정보를 제공받아, 사용자 단말기로 상기 광고대상정보를 방송 또는 선택전송하고, 상기 사용자단말기로부터의 길안내 승인정보를 상기 사업자서버로 전송하는 기지국과, 상기 기지국으로부터 광고대상정보를 수신하고, 상기 사업자서버로부터 길안내정보를 수신하여 길안내기능을 구동하는 사용자 단말기를 포함하는 것으로 사용자의 선택에 따른 광고정보 또는 방송광고정보와 길안내 정보를 제공하여 사용자에게 편리한 서비스를 제공할 수 있는 이점이 있다. 또한, 광대역 무선접속 통신망을 이용하여 광고대상정보를 전송하므로 이동통신망을 이용한 서비스보다 양질의 광고정보를 전송할 수 있는 이점이 있다. 광대역 무선접속 통신시스템, 사용자 단말기, IEEE 802.16, 사업자서버, 기지국. 제어국.
Abstract:
A resistive memory device having transition metal solid solution and a method for manufacturing the same are provided to obtain stable set voltage, reset voltage, and resistance characteristics during an operation. A resistive memory device having transition metal solid solution includes a lower electrode(21), a solid solution layer(24), a resistive layer(22), and a upper electrode(23). The solid solution layer is formed on the lower electrode. The resistive layer is formed on the solid solution layer. The upper electrode is formed on the resistive layer. The solid solution layer is a transition metal solid solution. The resistive layer is formed of a transition metal oxide. The transition metal oxide includes at least one of Ni oxide, Ti oxide, Hf oxide, Zr oxide, Zn oxide, W oxide, Co oxide, or Nb oxide.
Abstract:
A semiconductor wafer with an identification part is provided to prevent residues from remaining on an identification part by including an identification part located in a position from the outer circumference of a semiconductor wafer to a position not deeper than the depth of a notch wherein the identification part is adjacent to the notch. A notch(110) is formed of an empty space positioned at one part of the edge of a body(102) of a flat plate, having a predetermined depth(D) facing toward the center of the body. An identification part(120) is formed in the surface of the body adjacent to the notch, located in a distance from the outer circumference of the body to a position not deeper than the depth of the notch. The notch can be an open space of a V shape, having first and second sides(112,114) confronting each other.
Abstract:
A SOI(Silicon On Insulator) substrate and a manufacturing method thereof are provided to radiate the heat generated from a device onto a lower silicon substrate through silicon plugs. An insulating layer(220) is formed on a first silicon substrate(210), and then is etched to form plural contact holes exposing the first silicon substrate. The exposed silicon substrate is selectively epitaxially grown to plural silicon plugs(225) which fill the contact holes. The first silicon substrate is connected to a second silicon substrate via the silicon plugs formed on the insulating layer. The insulating layer is formed by subjecting a thermal oxidation process on the first silicon substrate.