公开(公告)号：KR1020140050263A

公开(公告)日：2014-04-29

申请号：KR1020120116417

申请日：2012-10-19

Applicant: 국방과학연구소

Inventor： 김갑진 ,  안재민 ,  김정빈 ,  김재길 ,  이성윤 ,  이제원 ,  송기원

IPC: G01S19/01

Abstract: The present invention relates to a global positioning system (GPS) signal acquisition system and a method thereof and, more specifically, to a one-dimensional GPS signal acquisition system with low complexity for acquiring a carrier phase using a multi-stage partial cross-correlator after acquiring an accurate code phase through a code phase acquisition process with a Delay-Multiply technique. According to the present invention, a proposed carrier phase acquisition structure operates after acquiring the accurate code phase accurately using the Delay-Multiply technique which is resistant to carrier phase errors in an acquisition process of the one-dimensional GPS signal, wherein the maximum size of the allowable carrier phase errors is 50 kHz. [Reference numerals] (110) Signal reception unit; (120) Code copy unit; (130) Code phase acquisition unit; (140) Carrier wave phase acquisition unit; (150) Carrier wave phase error compensation unit; (160) Compensating signal; (AA,BB) Time control signal; (CC) Phase signal

Abstract translation: 本发明涉及一种全球定位系统（GPS）信号采集系统及其方法，更具体地涉及一种具有低复杂度的一维GPS信号采集系统，用于使用多级部分互相关器获取载波相位 在通过采用延迟乘法技术的码相位获取过程获得准确的码相位之后， 根据本发明，提出的载波相位获取结构在使用在一维GPS信号的获取处理中抵抗载波相位误差的延迟乘法技术获得准确的码相位之后进行操作，其中最大尺寸 允许的载波相位误差为50 kHz。 （附图标记）（110）信号接收单元; （120）代码复制单元; （130）码相位采集单元; （140）载波相位采集单元; （150）载波相位误差补偿单元; （160）补偿信号; （AA，BB）时间控制信号; （CC）相位信号

公开(公告)号：KR1020100027862A

公开(公告)日：2010-03-11

申请号：KR1020080086950

申请日：2008-09-03

Applicant: 국방과학연구소

Inventor： 김준오 ,  송기원 ,  김영백

IPC: H01Q21/24 ,  H01Q5/10 ,  H01Q3/24 ,  H01Q1/28

CPC classification number: H01Q21/24 ,  H01Q1/288 ,  H01Q3/24 ,  H01Q5/10 ,  H01Q21/245

Abstract: PURPOSE: A broadband antenna and an antenna system thereof are provided to improve a reception rate for two linear polarizations by forming two conductive parts which are orthogonal. CONSTITUTION: A first conductive part(110) and a second conductive part(120) are formed to a bow-tie form. The first and the second conductive parts are arranged to be crossed in the center. The first and the second conductive parts comprise plate type conductors(111,112,121,122) which are symmetrically arranged based on the respective center. The conductors comprise a triangular shape body part and a triangular shape side expansion part expanded as a twisted form in two edges of the body part.

Abstract translation: 目的：提供一种宽带天线及其天线系统，通过形成正交的两个导电部分来提高两线性极化的接收速率。 构成：第一导电部分（110）和第二导电部分（120）形成为领结形式。 第一和第二导电部件布置成在中心交叉。 第一和第二导电部件包括基于相应中心对称布置的板状导体（111,112,121,122）。 导体包括在主体部分的两个边缘中以扭曲形式扩展的三角形体部分和三角形形状的侧面扩张部分。

公开(公告)号：KR1020090079543A

公开(公告)日：2009-07-22

申请号：KR1020080005605

申请日：2008-01-18

Applicant: 국방과학연구소

Inventor： 박재영 ,  이승재 ,  송기원

IPC: H01L29/00

Abstract: A manufacturing method of a micro silicon reflector having a plurality of orthogonal reflecting surfaces is provided to obtain a high reflectance by depositing a metallic thin film for improving the reflectance on the orthogonal reflecting surfaces. Layers for forming masks are formed on upper and lower surfaces of a silicon wafer substrate. Mask patterns are formed on the layers. The silicon wafer substrate having the mask patterns is etched in a wet-etch manner. A vertical protrusion having mirror surfaces is formed vertically along a crystalline surface of the silicon wafer substrate. A metallic thin film is deposited on each of the mirror surfaces in order to improve a reflectance of the mirror surface of the vertical protrusion. The silicon wafer having the vertical protrusion is cut in a predetermined width with respect to the longitudinal direction of the protrusion. A cutting process is performed to cut both ends of a plurality of cross orthogonal structures. A cross-orthogonal type vertical reflector is obtained.

Abstract translation: 提供具有多个正交反射面的微硅反射体的制造方法，通过沉积用于提高正交反射面的反射率的金属薄膜来获得高反射率。 用于形成掩模的层形成在硅晶片衬底的上表面和下表面上。 在层上形成掩模图案。 具有掩模图案的硅晶片衬底以湿蚀刻方式被蚀刻。 具有镜面的垂直突起沿着硅晶片衬底的晶体表面垂直地形成。 为了提高垂直突起的镜面的反射率，在每个镜面上沉积金属薄膜。 具有垂直突起的硅晶片相对于突起的纵向被切割成预定的宽度。 执行切割处理以切割多个交叉正交结构的两端。 得到交叉正交型垂直反射器。

公开(公告)号：KR1020090040742A

公开(公告)日：2009-04-27

申请号：KR1020070106234

申请日：2007-10-22

Applicant: 국방과학연구소

Inventor： 김동현 ,  오영진 ,  송기원

IPC: H04B10/11 ,  H04B10/2575 ,  H04B10/00

CPC classification number: H04B10/11

Abstract: A scanning system of a wireless optical sensor network is provided to obtain high energy efficiency by using a pattern which reversely reflects a light source by using a sensor node including an orthogonal reverse reflector. A wireless optical sensor network system includes a light source(102), a scanning mirror, at least one sensor node(108,110), a beam splitter(104) and a synchronization unit(100). The scanning mirror is formed to be rotary at a constant angle on an advance path of an optical signal, and adjusts the advance path of the optical signal by reflecting the optical signal. At least one sensor node reflects an optical signal reflected from the scanning mirror, and the beam splitter passes or reflects the optical signal reflected from the sensor node.

Abstract translation: 提供无线光学传感器网络的扫描系统，通过使用通过使用包括正交反向反射器的传感器节点反向反射光源的图案来获得高能量效率。 无线光传感器网络系统包括光源（102），扫描镜，至少一个传感器节点（108,110），分束器（104）和同步单元（100）。 扫描镜形成为在光信号的前进路径上以恒定角度旋转，并且通过反射光信号来调整光信号的提前路径。 至少一个传感器节点反射从扫描反射镜反射的光信号，并且分束器通过或反射从传感器节点反射的光信号。