Abstract:
본 발명은 진단 키트를 사용하여 호흡기 질환을 진단함에 있어서, 샘플에 대한 전처리 과정이 진단 키트 내에서 이루어질 수 있도록 하여, 샘플 채취로부터 진단 결과를 확인하는 모든 단계가 진단 키트 내에서 자동적으로 이루어지는 호흡기 질환용 진단 키트에 관한 것이다. 본 발명의 호흡기 질환용 진단 키트는 장소에 구애됨이 없이 어디서나 현장진단이 가능하며, 일반인도 용이하게 정확한 진단 결과를 얻을 수 있는 특징을 갖는다. 호흡기, 질환, 진단, 키트, 바이러스
Abstract:
PURPOSE: A solar cell is provided to improve efficiency by using a carbon nanotube electrode having excellent electric conductance and light transparency instead of a metal or an oxide electrode. CONSTITUTION: A first electrode(210) made of a p-type carbon nanotube layer is positioned on a substrate(100). A CIGS light absorption layer(300) is positioned on the first electrode. A buffer layer(400) is positioned on the CIGS light absorption layer. An intrinsic layer(500) is positioned on the buffer layer. A second electrode(610) made of an n-type carbon nanotube layer is positioned on the intrinsic layer.
Abstract:
질병을 진단할 수 있는 일회용 진단 키트가 제공된다. 일회용 진단 키트는 다양한 종류의 바이오 물질들을 포함하는 유체로부터 타겟 물질들을 필터링하는 전처리부, 타겟 물질들과 반응하는 감지 물질들이 표면에 고정화되는 회절 격자를 포함하며, 타겟 물질들에 따라 회절 격자를 통과하는 빛의 파장이 변화되는 타겟 물질 반응부, 및 필터링된 상기 유체를 상기 전처리부로부터 타겟 물질 반응부로 이동시키는 미세 유체 채널을 포함한다. 비표지식, 공진 반사광, 모세관력
Abstract:
PURPOSE: A gold-silver alloy nanoparticle chip, a manufacturing method thereof, and a microorganism detection method using thereof are provided to optically and easily detect microorganisms using the gold-silver alloy nanoparticle chip obtained by attaching gold-silver alloy nanoparticles on glass. CONSTITUTION: A gold-silver alloy nanoparticle chip comprises the following: a glass substrate(100) processed to have the hydrophilic property; a self-assembled film(200) formed on the glass substrate; and gold-silver alloy nanoparticles(300) fixed on the self-assembled film. The glass substrate contains a hydroxyl group on the surface. 500~1,000 particles per 1square-micro meter of the gold-silver alloy nanoparticles are attached on the s substrate.
Abstract:
PURPOSE: A light biosensor, light biosensor array and biomass detecting method using the same are provided to detect biomass using the surface plasmon absorption of gold nanoparticle. CONSTITUTION: A light biosensor comprises a light emitting diode(100), an optical detector(300), an optical fiber(200) and a micro fluidic channel(400). The light emitting diode produces light. The optical fiber interlinks the light emitting diode and optical detector. The micro fluidic channel is formed on the optical fiber. Gold nanoparticle(800) is formed on the micro fluidic channel in which bio antibody or aptamer is fixed. The light emitting diode is light emitting diode of single light source. The optical detector has the highest sensitivity about the single light source of the light emitting diode.
Abstract:
본 발명은 휴대형 광바이오 센서 측정 시스템에 관한 것으로, 내장된 파장가변광원, 출력세기검출부 및 출력파장검출부를 이용해 파장가변광원의 파장을 바꾸어 가면서 항원, 항체 반응 전후의 광바이오센서의 반사율 스펙트럼 또는 투과율스펙트럼, 또는 반사율 스펙트럼과 투과율 스펙트럼 변화를 정확하게 측정하여 항원의 농도를 정확하게 측정할 수 있는 효과가 있다. 광바이오센서, 파장가변광원, 반사율, 투과율
Abstract:
A portable biophotonic sensor measurement system is provided to obtain accurate output wavelength of a light source by using a built-in small wavemeter and measure the wavelength variation before and after antigen-antibody reaction accurately. A portable biophotonic sensor measurement system comprises a light source(408) emitting light, a first light distribution part(404) splitting the light emitted from the light source into first and second optical paths, an output intensity detection part detecting the output intensity of the light split into the first path, a second light distribution part(407) which splits the light split into the second path into third and fourth paths again, an output wavelength detection part detecting the wavelength of the light split into the third path, a biophotonic sensor(414) which passes or reflects the light split into the fourth path according to antigen-antibody reaction, a transmittance detection part(415) which detects is the light intensity transmitted through the sensor, and a reflectivity detection part(416,417) which is detects the light intensity reflected from the sensor.
Abstract:
A turbidimeter and a turbidity measuring method using optical cavity are provided to determine the turbidity in a receptacle by detecting the decrease rate of the light intensity measured in the optical detector. A turbidimeter using optical cavity comprises a light source(100) outputting light of specific wavelength, a receptacle(140) in which a liquid to measure the turbidity is stored, an optical cavity(110) in which high reflectivity mirrors are arranged face to face in order to make the output of the light source penetrate through the liquid in the receptacle repetitively, a light detecting part(120) measuring the intensity of the light outputted from the optical cavity after the repetitive penetration of the liquid, and a controller(160) calculating the turbidity of the liquid by measuring the decrease rate of the light intensity which repetitively penetrates the liquid.
Abstract:
A guided mode resonance filter and a biosensor using the same are provided to obtain a resonant spectrum having high symmetry and a sharp shape by using a material having a low refractive index. A guided mode resonance filter includes a substrate(110) and a grating layer(120). The substrate has a first refractive index. The grating layer is formed on the substrate as having a second refractive index larger than the first refractive index. The first refractive index is 1.24 to 1.38. The substrate is composed of one or more elements selected from a group including a polymer resin obtained by polymerizing MgF2, PTFE(Poly Tetra Fluoro Ethylene), and PMMA(Poly Methyl Methacrylate), and a monomer, a first polymer material, a second polymer material, a third polymer material.
Abstract:
A micro-sized semiconductor light-emitting diode having an emitting layer including silicon nano-dots, a semiconductor light-emitting diode array, and a fabrication method thereof are provided to improve light-emitting efficiency by forming a light-emitting layer with a thin film including silicon nano-dots. A light-emitting layer(106) is formed on an upper surface of a silicon substrate(100). The light-emitting layer includes silicon nano-dots. A hole injection layer(104) and an electron injection layer(110) are formed opposite to each other between the light-emitting layers. A transparent conductive electrode layer(112) is formed on the electron injection layer. A first electrode(108) and a second electrode(118) are formed on the hole injection layer and the transparent conductive electrode layer to inject electrons. The light-emitting layer is composed of an amorphous silicon nitride.