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A Smart Wireless Homecage for High Throughput Longitudinal Animal Studies

用于高通量纵向动物研究的智能无线家庭笼

基本信息

批准号：
8934101
负责人：
Maysam Ghovanloo
金额：
$ 19.08万
依托单位：
GEORGIA INSTITUTE OF TECHNOLOGY
依托单位国家：
美国
项目类别：
财政年份：
2014
资助国家：
美国
起止时间：
2014-09-25 至 2018-06-30
项目状态：
已结题

来源：
https://reporter.nih.gov/project-details/8934101
关键词：
3-Dimensional Affect Animals Architecture Area Behavior Behavioral Behavioral Research Clinical Coin Coupled Data Data Collection Deep Brain Stimulation Development Devices Diagnosis Dimensions Disease Drug Delivery Systems Electronics Electrophysiology (science)Environment Epilepsy Equipment Malfunction Functional disorder Geometry Goals Grant Habitats Health Heating Hour Housing Human Implant Interruption Intervention Knowledge Laboratories Laboratory Animal Production and Facilities Life Link Longevity Longitudinal Studies Magnetic Resonance Magnetism Manuals Measures Medical Device Mental Depression Monitor Movement Mus National Institute of Biomedical Imaging and Bioengineering Nervous system structure Neurofibrillary Tangles Neurosciences Optical Methods Pharmaceutical Preparations Physiological Physiology Plant Resins Population Positioning Attribute Power Sources Prevention Rattus Reaction Research Research Infrastructure Research Personnel Rodent Running Schizophrenia Series Short-Term Memory Solutions Stress Surface System Technology Telemetry Testing Thick Time Tissues Tracer United States National Institutes of Health Validation Vision Wireless Technology animal facility area striata awake base biomaterial compatibility cost data acquisition design experience implanted sensor improved in vivo instrument longitudinal animal study nervous system disorder neural correlate neuroprosthesis neuroregulation new technology novel pre-clinical preclinical study prevent relating to nervous system research study seal sensor social success theories tool transmission process

项目摘要

DESCRIPTION (provided by applicant): A Smart Wireless Homecage for High Throughput Longitudinal Animal Studies In vivo electrophysiology (i.e. in live animal subjects) has been a powerful tool in studying the functional organization of the nervous system in animals to generate the knowledge that will eventually aid in prevention, diagnosis, and treatment of disease and dysfunction in humans. It has provided groundbreaking information on areas ranging from the organization of primary visual cortex to neural correlates of working memory, which has helped in the treatment of disorders ranging from schizophrenia to epilepsy to depression. Many experimental questions, particularly in behavioral neuroscience and development of neuroprosthetic technologies, require long-term experiments on awake freely behaving subjects, and logistical constraints such as cost, lifespan, and housing often necessitate using small animals, such as rodents. The technical challenges to this approach, which can affect the quality of the acquired data, center on finding ways to record data for extended periods while creating an enriched environment for the subjects as close as possible to their natural habitat. Moreover, these experiments are extremely labor-intensive, and therefore, costly. There is a need to automate data collection from multiple subjects in parallel for statistical validation with minimum human intervention. The current proposal describes research to develop and test a new technology to overcome these challenges. We propose to develop a new version of the EnerCage system, an inductively-powered wireless data acquisition system for electrophysiology experiments on small freely behaving animal subjects, which is the size of a standard homecage. The key advantage of the new EnerCage-HC system is that it will be compatible with the existing animal facility infrastructure, and allow researches to run long-term experiments on a large number of small animals in parallel without occupying their precious laboratory space or engaging their highly- skilled staff in laborious monitoring tasks. Other advantages of the EnerCage-HC system are wirelessly powering and communicating with any electronic instrument that might be attached to or implanted in the animal subject body for recording physiological parameters, stimulating the nervous system, or delivering drugs. Therefore, it not only eliminates cable attachment to animals, which cause stress, tethering effect, and prevent housing multiple social animals together due to tangling and twisting of the wires, but also relieves the animals from carrying bulky battery payloads needed by other wireless solutions. The EnerCage-HC system will also be capable of accurately tracking the 3-D position and orientation of a magnetic tracer affixed to the animal body, which unlike optical methods does not require the animal to be in the line-of-sight.

描述（由申请人提供）：用于高通量纵向动物研究的智能无线家居体内电生理学（即在活体动物受试者中）已经成为研究动物神经系统功能组织的强大工具，以产生最终有助于预防，诊断和治疗人类疾病和功能障碍的知识。它提供了从初级视觉皮层的组织到工作记忆的神经关联等领域的突破性信息，这有助于治疗从精神分裂症到癫痫再到抑郁症等疾病。许多实验问题，特别是在行为神经科学和神经假肢技术的发展中，需要在清醒的自由行为的受试者上进行长期实验，并且诸如成本，寿命和住房等后勤限制通常需要使用小动物，如啮齿动物。这种方法的技术挑战可能会影响所获取数据的质量，其核心在于找到长期记录数据的方法，同时为受试者创造一个尽可能接近其自然栖息地的丰富环境。此外，这些实验是极其劳动密集型的，因此成本很高。需要在最少人为干预的情况下，从多个主题并行地自动收集数据以进行统计验证。目前的提案描述了开发和测试新技术以克服这些挑战的研究。我们建议开发一种新版本的EnerCage系统，这是一种感应供电的无线数据采集系统，用于在标准笼子大小的小型自由行为动物身上进行电生理学实验。新一代的EnerCage-HC系统的主要优点是，它将与现有的动物设施基础设施兼容，并允许研究人员在大量小动物身上并行进行长期实验，而无需占用宝贵的实验室空间或让他们的高技能工作人员从事繁重的监测任务。EnerCage-HC系统的其他优点是可以无线供电，并与任何可能附着或植入动物体内的电子仪器进行通信，以记录生理参数，刺激神经系统或输送药物。因此，它不仅消除了动物身上的电缆连接造成的压力和束缚效应，也避免了因电线缠绕和扭曲而使多个群居动物住在一起，而且还减轻了动物携带其他无线解决方案所需的庞大电池有效载荷的负担。EnerCage-HC系统还将能够准确跟踪附着在动物身体上的磁性示踪剂的三维位置和方向，这与光学方法不同，不需要动物处于视线范围内。