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    • 81. 发明公开
    • 주의 경고 패널의 소형화 및 저 전력화 방법
    • 小型化方法和小功率小心警告面板
    • KR1020130039446A
    • 2013-04-22
    • KR1020110103991
    • 2011-10-12
    • 한국항공우주산업 주식회사
    • 김영기임형수길동균
    • B64D45/00B64D43/00B60Q11/00
    • B64D45/00B64D43/00B64D47/02G08B5/22H05B37/02
    • PURPOSE: A method for reducing the size and power consumption of a caution warning panel is provided to prevent the increased weight and number of parts necessary to a visual lamp and to reduce power consumption. CONSTITUTION: A method for reducing the size and power consumption of a caution warning panel is as follows. A discrete signal input circuit is designed by a programmable logic with 144 ports. The discrete signal input circuit converts the discrete signals of 80 series to signal levers according to operational conditions. The converted input discrete signals are inputted as CPLD in high and low states and is stored as discrete signal input data. In case of checking whether or not the input discrete signals are inputted, a main control device transmits a checking command to the CPLD. The CPLD analyzes an address contained in the command of the main control device by the checking command and transmits the 8-bit input data of the relevant address to the main control device.
    • 目的:提供一种用于减小警告警告面板的尺寸和功耗的方法,以防止增加视觉灯所需的重量和数量,并降低功耗。 构成:小心警告面板的尺寸和功耗的降低方法如下。 离散信号输入电路由具有144个端口的可编程逻辑设计。 离散信号输入电路根据操作条件将80系列的离散信号转换为信号杆。 转换后的输入离散信号作为CPLD输入高,低状态,作为离散信号输入数据存储。 在检查输入离散信号是否被输入的情况下,主控装置向CPLD发送检查命令。 CPLD通过检查命令分析主控装置的命令中包含的地址,并将相关地址的8位输入数据发送到主控装置。
    • 83. 发明公开
    • Nose boom probe and component method
    • NOSE BOOM探索和组件方法
    • KR20120077056A
    • 2012-07-10
    • KR20100138880
    • 2010-12-30
    • KOREA AEROSPACE RES INST
    • CHOI IN HOPARK YOUNG MIN
    • G01L9/00B64D43/00B81B7/02
    • PURPOSE: A nose boom probe and a method for constituting the same are provided to reduce a delay difference and a delay error generated when measuring a voltage and constant-pressure, thereby enhancing the accuracy of flight inspecting data. CONSTITUTION: A nose boom probe(200) comprises a voltage tube(220), a constant-pressure tube(230), and a balance chamber(240). The voltage tube is connected to a voltage chamber(210), thereby being constituted. The constant-pressure tube is constituted to be parallel to the voltage tube. The balance chamber has a sum of volumes of the voltage chamber and voltage tube as the volum. The balance chamber is connected to the constant-pressure tube, thereby being constituted.
    • 目的:提供鼻梁探头及其构成方法,以减少测量电压和恒压时产生的延迟差和延迟误差,从而提高飞行检查数据的准确性。 构成:鼻梁探针(200)包括电压管(220),恒压管(230)和平衡室(240)。 电压管连接到电压室(210),由此构成。 恒压管构成为与电压管平行。 平衡室具有作为体积的电压室和电压管的体积的总和。 平衡室与恒压管连接,构成。
    • 84. 发明公开
    • 항전장비의 압력강하 특성 모사 방법
    • 航空电子设备压降模拟装置及方法
    • KR1020120058976A
    • 2012-06-08
    • KR1020100120525
    • 2010-11-30
    • 한국항공우주산업 주식회사
    • 서동연김명호한경아
    • G01M99/00B64D43/00B64D45/00
    • PURPOSE: A device and method for simulating pressure drop characteristics of avionics are provided to accurately detect a flow rate not only in a high-speed area but also in a low-speed area by comprising a flow meter directly detecting the flow rate. CONSTITUTION: A device(10) for simulating pressure drop characteristics of avionics comprises a duct(11), a temperature sensor(12), a pressure sensor(13), a flow meter(14), and a conical valve(15). A cooling fluid generated in an environmental control system of aircrafts for cooling avionics through the duct. The temperature sensor detects a temperature of the cooling fluid flowing inside the duct. The pressure sensor detects a pressure of the cooling fluid flowing inside the duct. The flow meter directly detects a flow rate of the cooling fluid flowing inside the duct. The conical valve controls a flow of the fluid to simulate pressure drop characteristics of the avionics based on values detected by the temperature sensor, the pressure sensor, and the flow meter.
    • 目的:提供一种用于模拟航空电子设备的压降特性的装置和方法,用于通过包括直接检测流量的流量计来精确地检测不仅在高速区域中而且在低速区域中的流量。 构成:用于模拟航空电子设备的压降特性的装置(10)包括管道(11),温度传感器(12),压力传感器(13),流量计(14)和锥形阀(15)。 在用于通过管道冷却航空电子设备的飞行器的环境控制系统中产生的冷却流体。 温度传感器检测在管道内流动的冷却流体的温度。 压力传感器检测在管道内流动的冷却流体的压力。 流量计直接检测在管道内流动的冷却流体的流量。 锥形阀控制流体的流动,以基于由温度传感器,压力传感器和流量计检测的值来模拟航空电子设备的压降特性。
    • 87. 发明授权
    • 무인 비행체의 비행고도 제어장치
    • 无人机飞行高度控制系统
    • KR100995362B1
    • 2010-11-19
    • KR1020100057849
    • 2010-06-18
    • 주식회사 네스앤텍
    • 이기성
    • B64C13/18G05D1/04B64D43/00B64D45/00
    • PURPOSE: A device for controlling the flying altitude of a manless air vehicle is provided to control the altitude of a low-altitude flight using a low-capacity memory and a processor. CONSTITUTION: A device for controlling the flying altitude of a manless air vehicle comprises a GPS module(10), a memory(20), a distance measuring unit(30), and a flying altitude controller(40). The GPS module measures the current position and the flying altitude of a manless air vehicle. The memory stores distance indexes of a distance from a starting point and the flying altitude matching with each distance index. The distance measuring unit calculates a distance from the starting point to the current position of the manless air vehicle. The flying altitude controller searches the flying altitude from the memory and controls the manless air vehicle.
    • 目的:提供一种用于控制无人驾驶飞行器的飞行高度的装置,以使用低容量存储器和处理器来控制低空飞行的高度。 构成:用于控制无人驾驶飞行器的飞行高度的装置包括GPS模块(10),存储器(20),距离测量单元(30)和飞行高度控制器(40)。 GPS模块测量无人机的当前位置和飞行高度。 存储器存储与起点距离的距离指数和与每个距离指数匹配的飞行高度。 距离测量单元计算从无人机的起点到当前位置的距离。 飞行高度控制器从内存中搜索飞行高度,并控制无人机。
    • 90. 发明授权
    • 무인 항공기 자동 항법 시스템의 관성 값 계산 장치 및 그방법
    • 무인항공기자동항법시스템의관성값계산장치및그방
    • KR100648882B1
    • 2006-11-27
    • KR1020050090589
    • 2005-09-28
    • 강민영
    • 강민영김형일박종승전동익
    • B64D43/00G01C21/00G01C21/12
    • An apparatus and a method for calculating an inertia value in a navigation of an unmanned aerial vehicle are provided to accurately recognize a condition of an unmanned aerial vehicle by improving the accuracy of inexpensive sensors. In an apparatus for calculating an inertia value in a navigation of an unmanned aerial vehicle, an inertia sensing part(210) includes a plurality of inertia sensors arranged in the shape of a pyramid. A satellite sensor part(250) receives satellite data. A physical quantity sampling part(230) extracts plural physical quantities of an axial direction included in a measured sensing value. A compensation part(240) compensates the plural physical quantities of the axial direction. And, an inertia value calculating part(260) calculates an inertia value by using the satellite data received at the satellite sensor part and the compensated physical quantities.
    • 提供了一种用于计算无人驾驶飞行器的导航中的惯性值的设备和方法,以通过提高廉价传感器的精度来准确地识别无人飞行器的状况。 在用于计算无人飞行器的导航中的惯性值的设备中,惯性感测部件(210)包括以金字塔形状布置的多个惯性传感器。 卫星传感器部件(250)接收卫星数据。 物理量采样部(230)提取测量出的感测值中包含的轴向的多个物理量。 补偿部分(240)补偿轴向的多个物理量。 并且,惯性值计算部分(260)通过使用在卫星传感器部分接收的卫星数据和补偿的物理量来计算惯性值。