Abstract:
A method for manufacturing an electronic device using a nanowire is provided to reduce a manufacturing cost and a manufacturing time for the electronic device by reducing a process using an E-beam. An electrode is formed on a substrate(S11). Plural nanowires are applied on the substrate on which the electrode is formed(S12). An image with respect to the substrate on which the nanowire and the electrode are formed is captured(S13). A virtual connection line connecting the nanowire to the electrode is drawn on the image by using an electrode pattern simulated through a computer program(S14). A photoresist for an E-beam is applied onto the substrate(S15). The photoresist formed on a position corresponding to the virtual connection line and the electrode pattern is removed by an E-beam lithography process(S16). A metal layer is deposited on the substrate(S17). The photoresist remaining on the substrate is removed by a lift-off process(S18).
Abstract:
Provided is a vertical electrode structure using a trench and a method of manufacturing the vertical electrode structure. The method of forming a vertical electrode structure using a trench includes steps of: forming the trench on a predetermined region of a semiconductor substrate; and forming electrode layers in predetermined regions of inner and outer portions of the trench. In this manner, the electrode deposition in the vertical direction is established by using the trench, so that it is possible to form a deposited electrode having a size of several hundred nm or less by a short processing time and a low processing cost.
Abstract:
가스 검출 장치, 및 방법이 개시된다. 가스 검출 장치는 전류 인가부, 자계 인가부, 전압 측정부, 및 가스 검출부를 포함한다. 전계 인가부는 나노선에 전류를 인가하고, 자계 인가부는 전류의 방향과 수직 방향 성분의 자계를 나노선에 인가하고, 전압 측정부는 나노선 상에서 전류 및 자계 방향과 각각 수직인 방향의 전압을 측정하며, 가스 검출부는 측정된 전압값을 이용하여 나노선에 접촉하는 가스를 검출한다. 이와 같이, 나노선을 이용한 가스 검출에 있어서, 홀 효과를 이용함으로써, 나노선과 전극 사이에 존재하는 접촉 저항의 영향을 받지 않고 효과적으로 가스 센싱을 수행할 수 있게 된다.
Abstract:
PURPOSE: A method for forming a fine electrode gap on a flexible substrate is provided to simplify a process by additionally forming an extended electrode on one side of an electrode using a shadow effect. CONSTITUTION: An electrode layer is formed on a plurality of preset areas on a flexible substrate(S110). A substrate angle is controlled at a preset angle(S120). An extended electrode layer is formed on a preset area between electrode layers using a shadow effect(S130). Deposition time is controlled according to preset time to control the thickness of the extended electrode layer(S140).
Abstract:
PURPOSE: A vertical electrode structure which uses a trench and a manufacturing method thereof are provided to perform a deposition process when a substrate is inclined to a predetermined direction, thereby effectively controlling a distance between electrodes. CONSTITUTION: A trench is formed on a predetermined region of a semiconductor substrate(S110). The semiconductor substrate is inclined to a predetermined direction(S120). An electrode layer is respectively formed on a predetermined region inside and outside of the trench(S130). A predetermined liquid material is sprayed on the substrate(S140). A solidified material in which the electrode layer is transferred is separated from the substrate(S150).
Abstract:
PURPOSE: A gas detecting device and a method thereof are provided to efficiently sense a gas by using a nano-wire without influences of a contact resistance between the nano-wire and extrude by using a hall effect. CONSTITUTION: A gas detecting device(100) comprises a current applying part(110), a magnetic field applying part(120), a voltage measuring part(130), and a gas detecting part(140). The current applying part applies currents to the nano-wire. The magnetic field applying part applies a magnetic field perpendicular to a direction of the current to the nano-wire. The voltage measuring part measures voltages respectively perpendicular to the direction of the current and magnetic field on the nano-wire. The gas detecting part detects gas contacted to the nano-wire by using the measured voltage value.
Abstract:
A method for selectively depositing a metal oxide nano material and a gas sensor using the same are provided to improve crystallization through a rapid thermal process by using a micro heater and to remove the moisture attached on the surface of a nano line. A substrate removing a central region is provided. A membrane(20) is formed in an upper part of the substrate. A micro-heater electrode(40) is formed in the upper part of the membrane of the central region. An insulating layer(30) covering the micro heater is formed in the upper part of the membrane. A sensing electrode(50) is formed in the upper part of the insulating layer of the micro heater electrode part. The metal oxide nano material is deposited in an upper part of the sensing electrode.