提高船只航向的准确性

Mykola Khlopenko, I. Gritsuk, Oleksandr Sharko, Eduard Appazov
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引用次数: 0

摘要

研究的目的是通过在船载计算机中使用陀螺罗盘的数学模型来提高测量船舶航向和航向方位的精度。在现代船舶上,陀螺罗盘是主要的航向测量设备。陀螺罗盘的优点在于可以测量相对于地理子午线的当前航向,其读数不受磁场异常的影响,而使用磁罗盘时,磁场异常会导致控制对象部分或完全失去方向。同时,陀螺罗盘也有其缺点。其中最重要的是地球表面的曲率、航向的改变、船只的加速或减速所造成的敏感元件的惯性偏差。随着这些力矩的出现,陀螺罗盘的轴就会离开平衡位置,开始做偏移运动。为了减少惯性偏差,我们采用了建设性的解决方案,并向船长提出了考虑偏差误差的建议。结构性解决方案会导致重量增加、设计复杂、可靠性降低和成本增加。规范性文件中关于考虑陀螺罗盘敏感元件惯性偏差的建议在实践中很难实施,但可以通过使用敏感元件的数学模型在船舶控制系统的船载计算机中实施。本文开发了一种方法,通过在航向控制系统的船载计算机中使用基于陀螺罗盘数学模型建立的观测装置,提高陀螺罗盘航向测量的精度和航向定位的精度。这样就可以估算出航向测量的有用部分以及速度和航向变化、地球表面曲率造成的偏差误差。无偏差误差的有用部分将用于船舶的航向控制通道。所开发的方法可用于船舶,前提是将其集成到现有的船载计算机自动化系统中,以解决监测陀螺罗盘测量分量的问题。
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Increasing the accuracy of the vessel’s course orientation
The object of the study is the process of increasing the accuracy of measuring the vessel's course and course orientation by using the mathematical model of the gyrocompass in the on-board computer. On modern vessels, the gyrocompass is the main course measuring device. Its advantages lie in measuring the current course relative to the geographic meridian, its readings are not affected by magnetic anomalies, as was the case when using magnetic compasses, which led to a partial or complete loss of orientation of control objects. At the same time, gyrocompasses also have their drawbacks. The most significant of them is the inertial deviation of the sensitive element caused by the curvature of the Earth's surface, a change in course, acceleration or deceleration of the vessel. With the appearance of the moments of these forces, the axis of the gyrocompass leaves the equilibrium position and begins to make precessional movements. To reduce the inertial deviation, constructive solutions and recommendations to shipmasters regarding the consideration of deviational errors are used. Structural solutions lead to an increase in weight, complexity of the design, a decrease in reliability, and an increase in cost. The recommendations of regulatory documents regarding the consideration of the inertial deviation of the sensitive element of the gyrocompass are difficult to implement in practice, but they can be implemented in the on-board computer of the vessel control system by using a mathematical model of the sensitive element. The paper developed a method of increasing the accuracy of gyrocompass course measurement and the accuracy of course orientation by using an observation device built on the basis of a mathematical model of the gyrocompass in the on-board computer of the course control system. This makes it possible to estimate the useful component of course measurement and deviational errors from changes in speed and course, the curvature of the earth's surface. The useful component, without deviational errors, is used in the vessel's course control channel. The developed method can be used on vessels, provided it is integrated into the existing automated system of the on-board computer to solve the problem of monitoring the components of the gyrocompass measurement.
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0.00%
发文量
89
审稿时长
8 weeks
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