反坦克导弹(ATGM)仪表、控制和导航(ICON)系统的研制

H. Y. Irwanto
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引用次数: 2

摘要

反坦克导弹(ATGM)是印尼陆军的主要防御装备,其可用性取决于从国外购买。对其他国家的依赖造成了许多弱点,使印度尼西亚仅仅是一个用户,对国防设备的进口无能为力。此外,作为有义务向生产商报告国防设备状况的用户,印度尼西亚的国家安全受到威胁。因此,印尼有必要根据军队的需要研制自己的反坦克导弹。仪表、控制和导航(ICON)系统是ATGM的大脑。与ATGM相关的整个过程,从发射前的状态开始,在飞行过程中,当击中目标时,将通过ICON进行控制和通信。因此,ICON板载控制器必须具有非常高的处理速度,能够接收各种输入,并能够向具有不同特性和不同通信协议的多个模块发送输出。随着集成仿真系统(ISS)的早期开发,ICON的硬件在环仿真(HILS)的开发变得更加容易。因此,ICON的开发更侧重于ATGM的建模仿真,以确保目前使用NI MyRIO(现场可编程门阵列/ FPGA基础微控制器)的主板载控制器能够完成ATGM所需的整个过程。作为初始仿真,ICON已经能够基于点火助推器和控制系统(滚转和俯仰)的优化来模拟范围。助推器的推力为140 kgf,燃烧时间为0.25秒,支撑架的平均推力为140 kgf,燃烧时间为4秒,后动翼具有俯仰控制,同时点火支撑架的启动时间;这使得最高速度达到532.9公里/小时,最大行驶距离达到789.6米,最远行驶距离达到2.31公里。仿真结果表明,通过HILS可以很好地模拟整个飞行过程,ICON可以作为真正的机载控制器。进一步的改进需要包括增益、时间和其他影响飞行测试结果的关键变量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of Instrumentation, Control and Navigation (ICON) for Anti Tank Guided Missile (ATGM)
Anti-Tank Guided Missile (ATGM) is Indonesian Army' main defense equipment, whose availability depends on purchasing from abroad. The dependency to other countries allows many weak points and makes Indonesia merely a user, which cannot do anything against the import of defense equipment. Moreover, as a user having obligation to report the status of the defense equipment to the producer, Indonesia's national security is at stake. Therefore, it is necessary for Indonesia to develop its own kind of ATGM according to the needs of the military. Instrumentation, Control and Navigation (ICON) system is the brain of ATGM. The whole process related to ATGM, starting from condition before it is launched, during the flight and when hitting the target, will be controlled and communicated through ICON. Therefore, ICON on board controller must have a very high processing speed and have the ability to receive various inputs and to send outputs to multiple modules with different characteristics and different communication protocols. Facilitated with Integrated Simulation System (ISS) being developed earlier, the development Hardware in the Loop Simulation (HILS) of ICON becomes easier. Thus, ICON development is more focused on modeling of ATGM for simulation to ensure that the main onboard controller currently using NI MyRIO (field programmable gate array / FPGA base micro controller) is able to do the whole process required by ATGM. As an initial simulation, ICON has been able to simulate the range based on the ignition booster - sustainer and optimization of control systems (roll and pitch). Booster is designed with a thrust of 140 kgf, burning time 0.25 sec and sustainer's average thrust of 140 kgf, burning time 4 sec, with pitch control on the rear moving fin, and at the same time kick-off timing of ignition sustainer; this results in maximum speed of 532.9 km/h, apooge 789.6 m and distance/range as far as 2.31 km. This simulation shows that ICON can function as real Onboard Controller, because the whole process of flying is simulated well through HILS. Further refinement needs to include gain, timing and other key variables that affect the outcome of the flight test.
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