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Energy recovery and conservation utilizing seawater pressure in the working process of Deep-Argo profiling float

机译:深孔仿形浮筒工作过程中利用海水压力进行能量回收和节约

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摘要

Argo profiling float is the key equipment of global ocean observation system. Energy supply issues have limited the working time and the exploring depth of Deep-Argo. In this paper, the scheme of energy recovery and conservation utilizing seawater pressure is put forward innovatively. The hydraulic motor is used to recover and conserve energy when seawater drives hydraulic oil moving from buoyancy bladder to storage bladder in the descending process of Deep-Argo. The working environment of Deep-Argo is defined by the data from sea trials and the simulation model based on AMESim-Simulink is verified by the experiment. Several cases are conducted to analyze the effect of energy recovery and conservation. It shows that the larger fluid drag coefficient of Deep-Argo will lead to the smaller motion speed and the larger energy consumption. The input pressure of hydraulic motor is related with its working time and working frequency. Under the condition that Deep-Argo could reach the target depth, the less volume of hydraulic oil driven by hydraulic pump and the higher input pressure of hydraulic motor will lead to better results of energy recovery and conservation. The recovered energy by the hydraulic motor can be 11.35% of the consumed energy by the hydraulic pump and the conserved energy can be 2.77% of the consumed energy by the hydraulic pump. This paper verifies the feasibility of the scheme for energy recovery and conservation utilizing seawater pressure for Deep-Argo profiling float, and provides the basis for further applied research.
机译:Argo剖面浮标是全球海洋观测系统的关键设备。能源供应问题限制了Deep-Argo的工作时间和勘探深度。本文创新地提出了利用海水压力进行能量回收和保存的方案。在Deep-Argo下降过程中,海水驱动液压油从浮力囊移动到存储囊时,液压马达用于回收和节省能量。通过海试数据定义了深海机器人的工作环境,并通过实验验证了基于AMESim-Simulink的仿真模型。进行了几个案例来分析能量回收和保存的效果。结果表明,深Argo流体阻力系数越大,运动速度越小,能量消耗越大。液压马达的输入压力与其工作时间和工作频率有关。在Deep-Argo可以达到目标深度的条件下,液压泵驱动的液压油量较小,而液压马达的输入压力较高,则能量回收和节约的效果更好。液压马达的回收能量可以是液压泵消耗能量的11.35%,节约的能量可以是液压泵消耗能量的2.77%。本文验证了利用海水压力进行深水Argo仿形浮标能量回收和保存方案的可行性,并为进一步的应用研究提供了依据。

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