Abstract:
PURPOSE: A device for developing a portable avionics system and an operation method thereof are provided to be implemented by software operated on a general purpose operating system and to be manufactured at low costs. CONSTITUTION: A simulation unit(12) executes a simulation model corresponding to avionics equipment and performs simulation. A display unit displays a simulation performance result. A storage unit stores a simulation model, a simulation engine, and a general purpose operating system. A control unit performs simulation for the avionics equipment. [Reference numerals] (11) Operator interface unit; (12) Simulation unit; (13) Aviation electronics equipment unit;
Abstract:
PURPOSE: A flight simulation system for an aircraft, a method for separating a malfunctioned sensor thereof, and an altitude flight alarm simulation method for the aircraft can efficiently provide vital flight data on the flight and navigation of an aircraft to a pilot. CONSTITUTION: A flight simulation system for an aircraft comprises a first sensor device(131), a second sensor device(132), a first automatic flight device, a second automatic flight device, first task computer(121), a second task computer(122), a fist simulation part, a second simulation part, an independent gauge, and a selection switch. When one of the first and second sensor devices is normally operated, the other one is operated in a backup mode. The first and second automatic flight devices make an aircraft automatically fly based on signals detected from the first or second sensor device. The first and second task computers control one of the first and second automatic flight devices with the signals detected from the first or second sensor device. The first simulation part simulates information on the first sensor device and the first automatic flight device. The second simulation part simulates information on the second sensor device and a second automatic flight device. The independent gauge displays flight information which is independent to the first and second sensor devices. The selection switch is operated to ignore the signals transmitted from one of the sensor devices exceeding a predetermined threshold valve.
Abstract:
본 명세서는 항공기 계기 비행에 측면 항법을 적용하는 기동 헬기 측면 항법 운용 장치 및 그 방법에 관한 것이다. 이를 위하여 본 명세서에 따른 기동 헬기 측면 항법 운용 장치는, 제1 및 제2 자동 조종 컴퓨터, 데이터 획득 처리 장치 및, 초단파 전방향 거리탐지기와 연동하는 이중 구조로 형성되는 기동 헬기 측면 항법 운용 장치에 있어서, 상기 기동 헬기 측면 항법 운용 장치는, 주요 비행정보 시현 페이지를 표시하며, 상기 표시 중인 주요 비행정보 시현 페이지에서 선택된 항법 소스의 모드를 확인하는 제1, 제2, 제3 및, 제4 다기능시현기; 상기 기동 헬기 측면 항법 구동을 위한 하나 이상의 파라미터 값을 설정하는 제1 및 제2 통제시현장치; 항로 노브를 설정하는 제1 및 제2 비행조종 패널; 및 상기 선택된 항법 소스 모드가 비행 계획, 초단파 전방향 거리탐지기/계기착륙장치, 홈 모드일 때, 상기 제1 및 제2 비행조종 패널의 항로 노브로 설정된 수동 항로 방향을 근거로 계획된 구간을 설정하고, 롤 명령을 계산하는 제1 및 제2 임무 컴퓨터;를 포함한다.
Abstract:
PURPOSE: A helicopter intercom device equipped with a noise cancelling function and a method thereof are provided to remove noises mixed in an audio signal during internal communications between a pilot and a crew member, thereby enabling internal communications between the pilot and the crew member to be accurately performed. CONSTITUTION: A communications repeater (400) is connected with a user terminal. The communications repeater internally or externally relays the communications of a signal from the user terminal. A two-way radio (500) is connected with the communications repeater. The two-way radio transmits and receives a signal to and from the outside for the communications repeater. An external control center (100) is wirelessly connected with the two-way radio. The external control center transmits and receives a signal to and from the two-way radio. [Reference numerals] (100) External control center; (210) User device 1; (220) User device 2; (230) User device 3; (240) User device 4; (400) Communications repeater; (500) Two-way radio
Abstract:
The present invention relates to a device for measuring the corrosion of a bore using a laser displacement sensor, capable of quickly, accurately, and automatically measuring the internal crack state and corroded position and depth of a bore using laser beams and a CCD image sensor. The device comprises: a measurement device body (100) linearly moving in the bore (410) of a gun barrel (400), and measuring the internal crack state and corroded position and depth of the bore using a prism rotation body (130), the color CCD image sensor (120), and a laser displacement sensor (150); and a control device (200) for processing and revealing all kinds of data transmitted from the measurement device body (100), and remote-controlling the measurement device body (100). Accordingly, the present invention can inspect the bore faster and more accurately than an existing way for operating mechanical or electromechanical equipment, and can reveal and determine the internal state of the bore almost in real time.
Abstract:
The present specification relates to an apparatus and a method for operating lateral navigation in a utility helicopter in which the lateral navigation is applied to aeronautical instrument flying. The apparatus for operating the lateral navigation in the utility helicopter according to the present specification comprises a first, a second, a third, and a fourth multifunctional display for displaying a main flying information display page and for confirming a mode of a navigation source selected in the displayed main flying information display page; a first and a second control apparatus for setting one or more parameter values for operating the lateral navigation in the utility helicopter; a first and a second flying control panel for setting a course knob; and a first and a second assignment computer for setting a section planned based on a manual course direction set by the course knob of the first and the second flying control panel and for calculating a role command when the selected navigation source mode is a flying plan, very high frequency front direction distance detector/instrument landing apparatus, and a home mode in the apparatus for operating the lateral navigation in the utility helicopter having a dual structure connected to a first and a second automatic control computer, a data processor, and the very high frequency front direction distance detector.
Abstract:
The present specification relates to an integrated survivability demonstration apparatus of an aircraft which integrates a radar warning receiver, a laser warning receiver, a missile warning receiver, and a chaff/flare dispenser into an avionic system; and a method thereof. According to the present invention, the integrated survivability demonstration apparatus of the aircraft includes: an electronic warfare computer interlocked with a radar warning receiver, a laser warning receiver, a missile warning receiver, and a chaff/flare dispenser. The integrated survivability demonstration apparatus of the aircraft comprises: a plurality of mission computers receiving threat information, state information and response result information; a plurality of multifunctional demonstrators demonstrating the received treat information, state information and response result information by controlling the mission computers; and a plurality of control demonstrators demonstrating a plurality of components.
Abstract:
According to an embodiment of the present invention, an aircraft with a training system includes a plurality of multifunctional displays which display flight-related data to a user; and a control unit which controls devices in the aircraft based on user inputs and outputs data from the devices onto the multifunctional displays. In a first mode, the control unit actually controls the devices in the aircraft. In a second mode, the control unit virtually controls the devices in the aircraft, and the result data according to user inputs is outputted onto the multifunctional displays.
Abstract:
본 발명은 레이저 빔과 CCD 이미지 센서를 이용하여 신속 정확하게 포강 내부의 균열 상태와 마모 위치 및 그 깊이를 자동으로 측정할 수 있도록 한 레이저 변위 센서를 이용한 포강마모 측정장치에 관한 것으로서, 포신(400)의 포강(410) 내부에서 직선 이동하며, 프리즘 회전체(130)와 컬러 CCD 이미지 센서(120) 및 레이저 변위 센서(150)를 이용하여 포강 내면의 균열 상태와 마모 위치 및 깊이를 측정하는 측정장치 본체(100)와; 상기 측정장치 본체(100)로부터 전송된 각종 데이터를 처리 및 시현하고 상기 측정장치 본체(100)를 원격 조정 및 통제하는 제어장치(200);를 포함하는 것을 특징으로 한다. 이에 따라 기계식 또는 전기-기계식 장비를 운용하는 종래 방식에 비해 보다 신속하고 정확하게 포강 검사를 수행할 수 있으며, 거의 실시간으로 포강 내부의 상태를 시현 및 판정할 수 있게 된다.