A framework for rapid virtual prototyping: a case study with the Gunnerus research vessel

IF 1.4 Q3 ENGINEERING, MARINE
P. Major, R. Zghyer, Houxiang Zhang, H. P. Hildre
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引用次数: 4

Abstract

ABSTRACT Virtual prototypes (VPs) are digital models that mock-up existing or conceptual systems' behaviour. In offshore operations, VPs find usages in design, proof of concept for new equipment or method, control system testing, procedure planning, and expert crew training. Moreover, VP can be used in full mission simulators with crews of maritime and offshore engineers, in which case they integrate with control systems such as handles and dynamic positioning systems. Putting the human in the loop sets high requirements for the fidelity of the visual 3D-models and the mathematical models' validity. VPs are thus time-consuming to create and difficult to validate, even based on an existing offshore system. This paper presents an innovative framework for rapid virtual prototyping of ships for hardware and human in the loop simulations and validates the results with data gathered in a sea trial performed on a research vessel, with satisfying results for position keeping. Abbreviations: CLI, Command line interpreter; DP, Dynamic positioning system: ship equipment used to maintain position and heading; DM, Damping matrix; Force FBK, Force Feedback Thruster1; HIL, Hardware in the loop; HITL, Human in the loop; JNI, Java native interface; LC, Loading condition; RAO, Response amplitude operator; RPM, Revolutions per minute; RPM FBK, RPM Feedback Thruster2/3 (Main/Azimuth); SCM, Source code management system; SOG, Speed over ground; VP, Virtual prototyping/prototype; VST, Virtual sea trial; sea trial performed in a simulation
快速虚拟原型的框架:以Gunnerus研究船为例研究
虚拟原型(VPs)是模拟现有或概念系统行为的数字模型。在海上作业中,副总裁在设计、新设备或新方法的概念验证、控制系统测试、程序规划和专家船员培训等方面发挥作用。此外,VP可用于海上和海上工程师的全任务模拟器,在这种情况下,它们与手柄和动态定位系统等控制系统集成在一起。将人置于循环中对视觉三维模型的保真度和数学模型的有效性提出了很高的要求。因此,即使基于现有的海上系统,vp的创建也非常耗时且难以验证。本文提出了一种创新的船舶快速虚拟样机框架,用于硬件和人在环仿真,并通过在一艘科考船上进行的海上试验数据验证了结果,取得了令人满意的位置保持结果。缩写:CLI,命令行解释器;DP:动态定位系统:用于保持船舶位置和航向的设备;DM,阻尼矩阵;力FBK,力反馈推力器;HIL,硬件在循环;人类在循环中;JNI, Java本机接口;LC:加载状态;RAO:响应幅度算子;RPM,每分钟转数;转速FBK,转速反馈推力器2/3(主/方位);单片机,源代码管理系统;SOG:地面速度;虚拟样机/原型副总裁;虚拟海试;在模拟中进行海上试验
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来源期刊
Ship Technology Research
Ship Technology Research ENGINEERING, MARINE-
CiteScore
4.90
自引率
4.50%
发文量
10
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