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Collaborative Research: IDBR: Type A: A High-resolution bio-sensor to simultaneously measure the behavior, vital rates and environment of key marine organisms

Collaborative Research: IDBR: Type A: A High-resolution bio-sensor to simultaneously measure the behavior, vital rates and environment of key marine organisms
合作研究:IDBR:A型:高分辨率生物传感器,可同时测量关键海洋生物的行为、生命率和环境
批准号:
1455593
负责人:
Aran Mooney
金额:
$72.17万
依托单位国家:
美国
项目类别:
Continuing Grant
财政年份:
2015
资助国家:
美国
项目状态:
已结题
起止时间:
2015-04-01 至 2020-12-31

项目摘要

项目成果

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中文摘要
翻译
伍兹霍尔海洋研究所为软体海洋无脊椎动物和其他重要的生态类群开发了一种创新的、高分辨率的生物传感器。鱿鱼和水母是许多海洋生态系统的重要组成部分,同时支持和压力重要的商业渔业。考虑到与气候相关的栖息地变化和范围变化,获取和观察水母和鱿鱼尤为及时。ITAG将提供有关海洋环境如何变化以及主要物种如何应对这些变化的信息,支持科学界、商业渔业、资源管理者和决策者的需求。这项研究将支持青年科学家的事业发展。本科生将直接参与研究和推广的各个方面。这项工作的结果将通过直接合作、研讨会、教程、开放获取的数据和工具、媒体发布以及已经受到广泛关注的博客,广泛传播给科学界和公众。该项目将利用多个机构的传播和外联部门以及公众对水母和鱿鱼的固有兴趣,通过以下方式扩大海洋科学和工程的认识:(a)公开演讲,(b)与记者和教师的直接沟通和互动,以及(c)在当地学校对幼儿园、小学和大学生进行教育。新的ITAG(无脊椎动物标签)生物传感器的目的是同时记录一套精细尺度的行为和环境数据。水母和乌贼等软体无脊椎动物是海洋中数量最多、种类最多的动物,海洋是世界上最大的栖息地。作为重要的分类群,这些软体无脊椎动物构成了重要的全球渔业,是海洋食物网的重要一环,连接着顶级掠食者和较小的猎物。然而,我们对水母和乌贼的生理和行为模式与环境的物理条件之间的联系知之甚少。这项新技术将结合新的物理传感器以及基于动物的方向和加速度测量,从而证明了一种独特而包容的生物传感器。ITAG将采用模块化框架构建,以实现跨分类群应用该设备所需的灵活性。一旦锁定了这只动物,ITAG将提供有关动物与环境特征以及对海洋酸化和变暖的反应之间关系的重要数据。因此,被贴上标签的动物将成为能够观察周围环境的移动传感平台。为该奖项开发的工具和数据将广泛适用于研究和保护社区,因为他们缺乏关于这些动物及其栖息环境的信息。利用关键和丰富的分类群提供了一种有效的手段,可以规避传统采样和观测平台的挑战和成本,从而改变我们的测量能力、数据分辨率、应用广度以及对海洋及其资源的理解。
英文摘要
An award is made to the Woods Hole Oceanographic Institution to develop an innovative, high-resolution, biosensor for soft-bodied marine invertebrates and other ecologically key taxa. Squid and jellies are critical components of many marine ecosystems that simultaneously support and pressure important commercial fisheries. Access to, and observations of, jellies and squid are particularly timely given climate-associated habitat modifications and range changes. The ITAG will provide information to address how the marine environment is changing and how key taxa are responding to these changes, supporting the needs of the scientific community, commercial fisheries, resource managers, and policy makers. This research will support the career development of young scientists. Undergraduate students will be directly involved in all aspects of the research and outreach. Results of this work will be broadly disseminated to the scientific community and the public through direct collaborations, workshops, tutorials, open-access data and tools, media releases, and already well-followed blogs. This project will leverage the Communication and Outreach Departments of multiple institutions and the public's inherent interest in jellies and squid to broaden the awareness of marine science and engineering through: (a) public presentations, (b) direct communication and interaction with journalists and teachers, and (c) education in local schools for preschool, grade-school and college students.The purpose of the new ITAG (invertebrate tag) bio-sensor is to simultaneously record a suite of fine-scale behavioral and environmental data. Soft-bodied invertebrates such as such as jellies and squid are the most abundant and diverse animals in the ocean, the world's largest habitat. As keystone taxa, these soft-bodied invertebrates make up important global fisheries and are a vital link in the ocean food web, connecting top predators and smaller prey. However, we know surprisingly little about the linkages between the physical conditions of their environment and physiological and behavioral patterns of jellies and squid. This new technology will incorporate new physical sensors as well as animal-based orientation and acceleration measurements thereby proving a unique and inclusive bio-sensor. The ITAG will be constructed with a modular framework that will enable the flexibility required to apply the device across taxa. Once secured to the animal, the ITAG will provide vital data on animal associations with environmental features and responses to ocean acidification and warming. As such, tagged animals will become mobile sensing platforms capable of observing their surrounding environment. The tools and data developed for this award will be broadly applicable in both the research and conservation communities who face a paucity of information about these animals and the environments they inhabit. Leveraging key and abundant taxa provides an efficient means to circumvent the challenges and costs of traditional sampling and observing platforms, thus transforming our measurement capabilities, data resolution, breadth of application, and understanding of the ocean and its resources.
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海外基金
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  • 批准号:
    24ZR1403900
  • 项目类别:
    省市级项目
  • 资助金额:
    --
  • 批准年份:
    2024
  • 负责人:
    SATOSHI NAWATA
  • 依托单位:
Cell Research
Cell Research
Cell Research (细胞研究)