公开(公告)号：US20070001582A1

公开(公告)日：2007-01-04

申请号：US11473188

申请日：2006-06-23

申请人： Su-ho Shin ,  Chang-youl Moon ,  Kyu-ho Shin ,  Soon-cheol Kweon ,  Seung-tae Choi ,  Ki-hwan Kwon

发明人： Su-ho Shin ,  Chang-youl Moon ,  Kyu-ho Shin ,  Soon-cheol Kweon ,  Seung-tae Choi ,  Ki-hwan Kwon

IPC分类号： H01J1/62

CPC分类号： F21V29/51 ,  F21K9/00 ,  F21V29/52 ,  F21V29/67 ,  F21V29/677 ,  F21Y2105/10 ,  F21Y2115/10 ,  H01L33/648 ,  H01L2224/48091 ,  H01L2224/73265 ,  H05K1/0203 ,  H05K1/0272 ,  H05K2201/10106 ,  H01L2924/00014

摘要： A light emitting diode (LED) array module includes a plurality of LEDs; and a substrate which mounts the LEDs and has a built-in cooling device for cooling heat generated when the LED is driven. The cooling device includes a heat radiation space formed on the substrate and a minute passage member which is wick- or mesh-structured to form a plurality of minute passages that operate by a heat pipe principle in the heat radiation space. The cooling device operating by the heat pipe principle is integrally formed on the substrate mounted with the LEDs, so heat radiation performance of the LEDs is enhanced, such that the LEDs can operate stably for a long time.

摘要翻译： 发光二极管（LED）阵列模块包括多个LED; 以及安装LED并具有内置冷却装置的基板，用于冷却LED被驱动时产生的热量。 冷却装置包括形成在基板上的散热空间和微通道构件，其是芯或网状构造以形成通过热管原理在热辐射空间中操作的多个微小通道。 通过热管原理操作的冷却装置一体地形成在安装有LED的基板上，因此LED的散热性能得到增强，使得LED可以长时间稳定地工作。

公开(公告)号：US06557968B2

公开(公告)日：2003-05-06

申请号：US10043512

申请日：2002-01-11

申请人： Byoung-chan Lee ,  Soon-cheol Kweon ,  Kyoung-jin Park

发明人： Byoung-chan Lee ,  Soon-cheol Kweon ,  Kyoung-jin Park

IPC分类号： B41J2015

CPC分类号： B41J2/14064 ,  B41J2/1603 ,  B41J2/1628 ,  B41J2/1629 ,  B41J2/1639 ,  B41J2/1645 ,  B41J2/1646

摘要： A fluid jetting apparatus for a print head employed in an output apparatus, and a manufacturing process thereof. The process for manufacturing a fluid jetting apparatus includes: (1) forming a heat driving part having a sacrificial layer; (2) forming a membrane on the heat driving part which includes the sacrificial layer; (3) forming a nozzle part on the membrane; and (4) removing the sacrificial layer. The step (1) further includes: (i) forming an electrode and an exothermic body on a substrate; (ii) laminating a working fluid barrier on the electrode and the exothermic body, and forming a working fluid chamber in the working fluid barrier; (iii) forming a protective layer on the working fluid barrier, the electrode, and the exothermic body; (iv) forming a sacrificial layer within the working fluid chamber at a same height as the working fluid barrier. The fluid jetting apparatus includes a heat driving part for generating a driving force, a nozzle part having a jetting fluid chamber interconnected to an exterior through a nozzle, and a membrane for transmitting the driving force generated from the heat driving part to the nozzle part. Here, the heat driving part includes an electrode and a heating element formed on a substrate; a plane layer formed on the substrate at the same height as the electrode and the heating element combined; a protective layer laminated on the plane layer; and a working fluid chamber laminated on the protective layer, the working fluid chamber for holding a working fluid which is to be expanded by the exothermic body to generate the driving force. Accordingly, since the heat driving part, the membrane, and the nozzle part are sequentially laminated to be integrally formed with each other, an adhering process is no longer required. As a result, due to a very simplified manufacturing processes, productivity, reliability, and quality of the fluid jetting apparatus are enhanced, while a percentage of defective parts is decreased.