用于海洋研究的低成本自主上层海洋剖面系统设计

Danyi Chen, Danette Martinez, T. H. Taylor
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引用次数: 0

摘要

从海洋表面到200米深的区域,是生态学家、生物学家、海洋学家和其他对研究海洋生物和环境感兴趣的研究人员感兴趣的领域。虽然已经有自主水下航行器可以让研究人员在整个上层海域收集数据,但大多数这些解决方案都过于昂贵,无法让较小的机构和个人研究实验室进行自己的探索。该项目旨在创建一个自主的上层海洋区域分析系统,该系统相对便宜(< 2000美元),需要最少的维护,并且小型和/或内陆机构可以使用。通过提供一种更容易获得的数据收集手段,研究人员可以更经济有效地对海洋生态系统进行有针对性的研究,以更好地了解环境和主题,如气候变化对海洋的影响,或环境中浮游植物种群规模的变化等。通过与我们的利益相关者,威克森林大学(WFU)生物系的Sheri Floge博士以及电气和计算机工程师WFU工程系的Kyle Luthy博士的对话,我们确定我们的系统应该能够自主下潜到水下50到100米的深度,收集水温、压力等数据,并捕获图像。通过系统的设计过程,该团队能够将低成本模块化浮力控制胶囊的设计概念化。该太空舱将连接到一个浮标系统,以保持其纵向和纬度位置,从那里它将能够穿越上层海域收集数据。该团队目前正在对该系统进行原型制作和测试,虽然原型只有几个传感器,但设计的模块化将使未来的用户能够购买并安装适合他们需要的各种传感器(如浮游镜)。在接下来的几周内,该团队将完成原型机的组装并进行实验室和现场测试。
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Design of a Low-Cost Autonomous Epipelagic Profiling System for Oceanic Research
The epipelagic zone, the region from the surface of the ocean to 200 meters in depth, is an area of interest for ecologists, biologists, oceanographers, and other researchers interested in studying marine life and the environment. While autonomous underwater vehicles that can allow researchers to collect data throughout the epipelagic zone exist, most of these solutions are too expensive to enable smaller institutions and individual research labs to conduct their own explorations. This project aims to create an autonomous epipelagic zone profiling system that is relatively inexpensive (<$2000), requires minimal maintenance, and is accessible to smaller and/or landlocked institutions. By providing a more accessible means of data collection, researchers can more cost efficiently conduct targeted studies of marine ecosystems to better understand the environment and topics such as the impacts of climate change on the oceans, or the changing population size of phytoplankton in the environment, etc. Through conversations with our stakeholders, Dr. Sheri Floge of the Wake Forest University (WFU) Department of Biology and Electrical and Computer Engineer Dr. Kyle Luthy of the WFU Department of Engineering, we established that our system should be able to autonomously descend to a depth of 50 to 100 meters underwater and collect data such as water temperature, and pressure, as well as capture images. U sing a systematic design process, the team was able to conceptualize a design for a low-cost modular buoyancy-controlled capsule. The capsule will be attached to a buoy system, to maintain its longitudinal and latitudinal position, from which it will be able to traverse the epipelagic zone to collect data. The team is currently in the process of prototyping and testing the system, and although the prototype will only have a few sensors, the modularity of the design will enable future users to purchase and attach various sensors (such as a PlanktoScope) that suit their needs. Over the coming weeks, the team will be completing assembly and conducting laboratory and field testing of the prototype.
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