会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 11. 发明公开
    • 가변성 미세패턴을 구비한 미세구조체 제조방법
    • 具有可变微尺寸的精细结构的制造方法
    • KR1020140015211A
    • 2014-02-06
    • KR1020130089033
    • 2013-07-26
    • 서울대학교산학협력단
    • 권성훈이호원박태준정유신
    • B81C1/00G01N33/48G06K7/10
    • B81C1/00119B81B2201/0214B81B2201/05B81C1/00349G01N33/48G06K7/10
    • Provided is a fabrication method for fine structures with variable micropatterns including: a step of forming a mixture containing photochromic materials and curable materials; a step of providing the mixture for a microfluidic tube; a step of forming variable micropatterns by applying patterned energy to a desired spot of the mixture and hardening the mixture; and a step of forming fine structures by injecting curable materials and applying additional energy to the microfluidic tube. [Reference numerals] (AA) Start; (BB) End; (S1) Forming a mixture containing photochromic materials and curable materials; (S2) Providing the mixture for a microfluidic tube; (S3) Forming variable micropatterns by applying patterned energy to a desired spot of the mixture and hardening the mixture; (S4) Forming fine structures by injecting curable materials and applying additional energy to the microfluidic tube
    • 提供了一种具有可变微图案的精细结构的制造方法,包括:形成含有光致变色材料和可固化材料的混合物的步骤; 提供微流体管的混合物的步骤; 通过将图案化的能量施加到混合物的所需点并硬化混合物来形成可变微图案的步骤; 以及通过注射可固化材料并向微流体管施加附加能量来形成精细结构的步骤。 (附图标记)(AA)开始; (BB)结束; (S1)形成含有光致变色材料和可固化材料的混合物; (S2)提供微流体管的混合物; (S3)通过将图案化的能量施加到混合物的所需点并硬化混合物来形成可变微图案; (S4)通过注射可固化材料并向微流体管施加额外的能量来形成精细结构
    • 12. 发明公开
    • 미세장치 매립형 온도센서 및 그 제조방법
    • 用于微型器件的可植入温度传感器及其制造方法
    • KR1020130090706A
    • 2013-08-14
    • KR1020120012036
    • 2012-02-06
    • 한국과학기술원
    • 권세진박현철정은상문용준김용대
    • G01K7/12G01K7/13G01K1/20B81C1/00
    • G01K7/13B81C1/00349G01K1/20H01L21/0226
    • PURPOSE: A temperature sensor buried in a minute device and a manufacturing method thereof are provided to directly install a thermocouple and temperature compensating circuit, which are formed with silicide material and non-precious metal, at a region for measuring a temperature gradient without interruption to a local space or a flow field, thereby measuring a wide temperature range. CONSTITUTION: A temperature sensor buried in a minute device includes a first thermocouple (20), a second thermocouple (30), a high temperature part (40), a low temperature part (50), and a temperature compensating part (60). The mutually separated thermocouples are formed with different materials, and are respectively and longitudinally placed. The high temperature part is in contact with one ends of the thermocouples. The low temperature part is placed at the other end of the first thermocouple. The temperature compensating part is placed between the other ends of the thermocouples.
    • 目的:埋在微型装置中的温度传感器及其制造方法,用于在不中断温度梯度的区域直接安装由硅化物材料和非贵金属形成的热电偶和温度补偿电路 局部空间或流场,从而测量宽的温度范围。 构成:埋在微型装置中的温度传感器包括第一热电偶(20),第二热电偶(30),高温部分(40),低温部分(50)和温度补偿部分(60)。 相互分离的热电偶由不同的材料形成,分别且纵向放置。 高温部分与热电偶的一端接触。 低温部分放置在第一热电偶的另一端。 温度补偿部件位于热电偶的另一端之间。
    • 13. 发明公开
    • 3차원 미세유체집속채널구조를 이용하는 균일한 미세 액적 및 단분산성 입자의 제조 방법
    • 使用具有三维地形图的微流量聚焦装置的均匀分散滴定剂和聚合单体颗粒的制备方法
    • KR1020130079799A
    • 2013-07-11
    • KR1020120000511
    • 2012-01-03
    • 한국과학기술원
    • 양승만정웅찬최재훈
    • B81B1/00B81C1/00B82B3/00B82Y40/00
    • B81B1/006B81C1/00349B82B3/0004B82Y40/00
    • PURPOSE: A method for stably manufacturing uniform nanometer-sized droplets and mono-dispersed particles using a three-dimensional microfluidic flow-focusing channel structure is provided to uniformly maintain the droplets and to freely control the size and the composition of the droplet. CONSTITUTION: A three-dimensional microfluidic flow-focusing channel structure has a water dispersed phase channel comprising an inlet and a guide tube. The channel is connected to an orifice. An oil continuous phase channel comprises an inlet and guide tubes at both sides of the inlet, and is connected to the orifice. A water-oil emulsion is generated in the orifice, passes through a downstream channel, and is discharged through an outlet. The heights of the water dispersed phase channel and the orifice are relatively below the heights of the oil continuous phase channel and the downstream channel. [Reference numerals] (AA) Continuous (oil) phase inlet; (BB) Dispersed (wool) phase inlet; (CC) Outlet; (DD) Countercurrent flow; (EE) Top view; (FF,LL) Continuous phase channel; (GG,NN) Downstream channel; (HH,KK) Dispersed phase channel; (II,MM) Orifice; (JJ) Side view
    • 目的:提供使用三维微流体聚焦通道结构稳定地制造均匀的纳米级液滴和单分散颗粒的方法,以均匀地保持液滴并自由地控制液滴的尺寸和组成。 构成:三维微流体聚焦通道结构具有包括入口和导管的水分散相通道。 通道连接到孔口。 油连续相通道包括入口两侧的入口和导管,并连接到孔口。 在孔中产生水油乳液,通过下游通道,并通过出口排出。 水分散相通道和孔口的高度相对低于油连续相通道和下游通道的高度。 (附图标记)(AA)连续(油)相入口; (BB)分散(羊毛)相入口; (CC)出口; (DD)逆流; (EE)顶视图; (FF,LL)连续相位通道; (GG,NN)下行通道; (HH,KK)分散相通道; (II,MM)孔; (JJ)侧视图
    • 15. 发明公开
    • 마이크로 미러 제조방법
    • 用于通过填充柱形轴来改善镜子的整体反射度的微型镜的方法
    • KR1020050017716A
    • 2005-02-23
    • KR1020030054834
    • 2003-08-08
    • 동부일렉트로닉스 주식회사
    • 박건욱
    • B81C1/00
    • B81C1/00095B81C1/00063B81C1/00349B81C1/00436B81C2201/01
    • PURPOSE: A method for fabricating a micro-mirror is provided to improve an entire reflection degree of a mirror by filling a pillar shaft hole formed in a surface of the mirror. CONSTITUTION: A structure is formed on a substrate. A micro-mirror(36) is formed at an upper portion of a driving part installed on the substrate. A method for fabricating the micro-mirror(36) includes a step of forming a coupling joint. Polymer is formed on an upper portion of the coupling joint and is patterned. An inner portion of the polymer is filled with a predetermined material. The micro-mirror(36) is formed on the substrate through a photography process and an etch back process. The polymer is removed by using solvent. The micro-mirror(36) is preferably formed by depositing aluminum, titanium, and nitride titanium on the substrate.
    • 目的:提供一种制造微镜的方法,通过填充形成在反射镜表面中的柱轴孔来提高反射镜的整体反射度。 构成:在基板上形成结构。 微镜(36)形成在安装在基板上的驱动部件的上部。 一种制造微反射镜(36)的方法包括形成耦合接头的步骤。 聚合物形成在耦合接头的上部并被图案化。 聚合物的内部填充有预定的材料。 微镜(36)通过摄影过程和回蚀工艺在衬底上形成。 通过使用溶剂除去聚合物。 微反射镜(36)优选通过在基板上沉积铝,钛和氮化钛而形成。
    • 17. 发明公开
    • 감광성유리의 가공방법
    • 感光玻璃加工方法
    • KR1020020039523A
    • 2002-05-27
    • KR1020000069383
    • 2000-11-21
    • 조수제
    • 조수제
    • B81C1/00
    • B81C1/00198B81C1/00349B81C1/00436B81C1/00841B81C2201/0101
    • PURPOSE: A photosensitive glass processing method is provided to obtain a high precision fine structure by crystallizing the portion which is not exposed to an ultraviolet light and selectively etching the crystallized portion. CONSTITUTION: A photosensitive glass processing method comprises a first step of selectively radiating an ultraviolet light(9) generated from a light source to a photosensitive glass(8); a second step of crystallizing a portion(11) which is not exposed to the ultraviolet light by performing a heat treatment to the portion; and a third step of obtaining a fine structure(14) by selectively removing the crystallized portion through an etching process(13) by dipping the resultant structure into a hydrogen fluoride(HF) solution.
    • 目的:提供一种感光玻璃加工方法,通过使不暴露于紫外光的部分结晶并选择性地蚀刻结晶部分来获得高精度的精细结构。 构成:感光玻璃处理方法包括:将从光源产生的紫外光(9)选择性地辐射到感光玻璃(8)的第一步骤; 第二步骤,通过对所述部分进行热处理来结晶未暴露于紫外光的部分(11); 以及通过将所得结构浸入氟化氢(HF)溶液中,通过蚀刻工艺(13)选择性地除去结晶部分来获得精细结构(14)的第三步骤。