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ENGINEERING FOR NEUROLOGIC REHABILITATION

ENGINEERING FOR NEUROLOGIC REHABILITATION
神经康复工程
批准号:
7125996
负责人:
WILLIAM Zev RYMER
金额:
$71.01万
依托单位国家:
美国
项目类别:
财政年份:
2005
资助国家:
美国
项目状态:
已结题
起止时间:
2005-09-23 至 2010-05-31

项目摘要

项目成果

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中文摘要
翻译
描述(由申请人提供):这个基础设施研究核心被称为“神经康复工程”,旨在扩大和传播pi在工程和神经科学方面的核心专业知识,以帮助支持美国各地医疗中心和医院的新教员的发展。该项目将建立在PIs中心的核心设施上,该中心由当前的区域研究网络(R24)和类似的nidrr资助的研究中心,支持中风和其他神经系统疾病的机器人研究。这些核心设施包括以下内容(1)机器人/机械核心,由詹姆斯·巴顿、亚辛·达赫尔和桑德罗·穆萨-伊瓦尔迪执导。pi计划为合作研究提供一系列不同的机器人和机械系统,用于基础研究、诊断研究和测试中风和脊髓损伤的治疗方法。这些机器人包括上肢机器人系统,如麻省理工学院的Manus,一种称为到达指南的RIC平面机器,Phantom和WAM,一种新型的可反向驱动的三维机器人系统。此外,新的机器人系统,如Haptic Master和其他特殊用途的机器人,一旦被整合到pi的研究项目中,也将用于协作交互。此外,使用“Lokomat”作为诊断和治疗工具的步态研究将提供给合作者进行试点研究。(2)《信息技术的核心》,导演:张利群、Derek Kamper。这个核心设施有能力建立新的电子系统,如最先进的肌电图电极,遥测收集系统,先进的信号处理系统,以及广泛的建模和仿真设施。(3) c·j·赫克曼和乔治·霍恩比执导的《神经科学核心》。Heckman博士领导一个研究实验室,使用电生理、解剖、免疫组织化学、化学和药理学方法处理脊髓损伤的动物模型。该实验室将用于进行人体试验的准备研究。其他可用的方法包括使用H反射的电生理测试,以及经颅磁刺激研究脊髓电路和兴奋性。这些研究核心以及其他核心发展项目的可用性将通过专门的网站传播,并在国家和国际会议上提出。pi还计划提供短期或长期的休假机会,以便使用这些不同的核心进行合作研究。最后,还将提供一系列的教学课程,实践研讨会和专题讨论会,以介绍这些工程领域的新研究主题。
英文摘要
DESCRIPTION (provided by applicant): This infrastructure research core called "Engineering for Neurological Rehabilitation" seeks to expand and disseminate the PIs core expertise in engineering and in neuroscience to help support the development of new faculty in medical centers, and hospitals across the United States. This program will build on core facilities established in the PIs center under the auspices of the current regional research (R24) network and under analogous, NIDRR-sponsored research centers supporting robotics research for stroke and other neurological disorders. These core facilities include the following (1) A Robotics/Mechanics Core, directed by James Patton, Yasin Dhaher, and Sandro Mussa-lvaldi. The PIs plan to make available for collaborative research an array of different robotic and mechanical systems designed for fundamental research, for diagnostic studies, and for testing therapeutic approaches in stroke and spinal cord injury. These robots include upper extremity robotics systems such as the MIT Manus, an RIC planar machine called the reaching guide, the Phantom, and WAM, a novel backdriveable three-dimensional robotics system. In addition, new robotic systems such as the Haptic Master and other special-purpose robots will also be made available for collaborative interaction, once they are integrated into the PIs' research programs. In addition, gait studies using the "Lokomat" as both a diagnostic and therapeutic tool will be made available to collaborators for pilot studies. (2) An Information Technology Core, directed by Li-Qun Zhang and Derek Kamper. This core facility has the capacity to build novel electronic systems such as state-of-the-art EMG electrodes, telemetered collection systems, advancing signal processing systems, and extensive modeling and simulation facilities. (3) A Neurosciences Core, directed by C.J. Heckman and George Hornby. Dr. Heckman directs a research laboratory dealing with animal models of spinal cord injury using electrophysiological, anatomical, immunohistochemical, chemical, and pharmacological approaches. This laboratory will be available to pursue studies preparatory to human testing. Other approaches available include the use of electrophysiological testing using H reflexes, and transcranial magnetic stimulation for study of spinal cord circuitry and excitability. Availability of these research cores, as well as other core development projects, will be disseminated through dedicated websites and presented at national and international meetings. The PIs also plan to offer short- or long-term sabbatical opportunities to collaborate in studies using these various cores. Finally, a series of didactic courses, hands-on workshops, and symposia will also be offered to present novel research themes in these engineering areas.
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会议论文
Novel Actions of Acute Intermittent Hypoxia in Hemispheric Stroke
Origins of Increased Motoneuron Excitability in Hemispheric Stroke
Origins of Increased Motoneuron Excitability in Hemispheric Stroke
Origins of Increased Motoneuron Excitability in Hemispheric Stroke
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