Advanced Fabrication and Testing Core (AFT)
先进制造和测试核心 (AFT)
基本信息
- 批准号:10714165
- 负责人:
- 金额:$ 28.96万
- 依托单位:
- 依托单位国家:美国
- 项目类别:
- 财政年份:2018
- 资助国家:美国
- 起止时间:2018-09-15 至 2028-07-31
- 项目状态:未结题
- 来源:
- 关键词:3-Dimensional3D PrintApplications GrantsAreaAutomationAwardBiocompatible MaterialsBiologicalBiomedical EngineeringCenters of Research ExcellenceCeramicsClientClinicalComplexDiagnosisDisciplineEngineeringEquipmentEventFundingGenerationsGlassGoalsGrantHandHarvestHealthImageImaging technologyIn SituIndustrializationLasersLightMeasurementMechanicsMentorsMetalsMindMolecularMusculoskeletalMusculoskeletal DiseasesOpticsPatientsPhasePhysical environmentPilot ProjectsProceduresProcessProgram SustainabilityPublicationsResearchResearch PersonnelResearch Project GrantsResearch ProposalsResearch SupportResourcesSecureServicesSourceSouth CarolinaStandardizationStrategic PlanningSystemTechnologyTestingTimeTissuesTrainingTraining ActivityTranslatingTranslationsUnited States National Institutes of HealthUniversitiesValidationWorkdata acquisitiondesignengineering designexperiencefabricationgraphical user interfacehuman modelimprovedinnovationinstrumentinstrumentationmanufacturemanufacturing systemsmeetingsmembermodels and simulationmultidisciplinaryoperationprogramsprototypesecond harmonicsensorsignal processingsuccesstechnological innovationtoolvirtual human
项目摘要
SUMMARY
The Advanced Fabrication and Testing (AFT) Core is the enabling technological engine of the SC-TRIMH. It
harvests the unique engineering strengths and capabilities at Clemson University to support the research
projects and expedite the translation of their innovations to patient-specific diagnosis and treatments of
musculoskeletal diseases at the molecular, cellular, tissue, and body levels. In Phase I, the AFT Core expanded
to now cover over 4,400 sq ft when it consolidated all its services in a new building in order to provide more
centralized services for electrical, mechanical, optical, and material designs, rapid prototyping, sensors and
instrumentation, and advanced testing for the TRIMH investigators. The core also expanded its instrumentation
(e.g. integrated additive and subtractive manufacturing, plus femtosecond laser for ultrafast micromachining)
via awards from DOE and a TRIMH supplement. During this time the AFT Core provided services to all 8 TRIMH
Research Project Leaders (RPL), 8 other TRIMH Pilot Project Leaders, and 12 Clemson PIs. Seven other PIs
from the state of South Carolina (SC) and 6 others outside SC used this core; along with three industrial clients.
This core is especially important to those who do not have primary expertise in the engineering disciplines, as
we have both turnkey services and tailored “hand holding”/mentoring. The AFT core in Phase I has supported
nearly 50 PIs, contributed to 30 grant applications, and generated more than 30 publications. In Phase II, we
will be supporting the research projects of all 4 RPLs while we continue to expand and sustain the engineering
capabilities and strive to build the AFT Core into a leading biomedical engineering resource, especially for
musculoskeletal related research at Clemson University, South Carolina, and beyond. The goal will be achieved
by three specific aims: Aim 1: expand and sustain the design and rapid prototyping capabilities to enable TRIMH
researchers to quickly design and build simulated musculoskeletal components, systems or environments that
are physical and biological replica of the human models, Aim 2: expand and sustain the sensor, instrumentation,
and testing capabilities to enable the investigators to design, fabricate and install sensors onto the physical and
biological replica for in situ measurement of various parameters and validation of the virtual human models, and
Aim 3: promote and sustain the AFT core as a leading biomedical engineering “go-to-place” for musculoskeletal
research at Clemson University, the state of South Carolina, and beyond. The AFT Core will be led by a
multidisciplinary team with the combined expertise in engineering designs (mechanical, optical, electrical, and
material), advanced manufacturing, rapid prototyping, sensors, instrumentation, imaging, and advanced testing.
The COBRE funds will continue to support experienced staff members to operate/maintain the consolidated
facilities, to train/mentor TRIMH investigators to translate their innovations into clinical successes, to further
enhance the capability of the core, and to facilitate the transition of the AFT Core to a competitive and self-
sustained program.
概括
先进制造和测试 (AFT) 核心是 SC-TRIMH 的技术引擎。
收获克莱姆森大学独特的工程优势和能力来支持研究
项目并加快将其创新成果转化为针对患者的诊断和治疗方法
分子、细胞、组织和身体水平的肌肉骨骼疾病 在第一阶段,AFT 核心得到扩展。
为了提供更多服务,将所有服务整合到一座新建筑中,现在占地超过 4,400 平方英尺
电气、机械、光学和材料设计、快速原型、传感器和
该核心还扩展了其仪器。
(例如集成增材和减材制造,加上用于超快微加工的飞秒激光器)
在此期间,AFT 核心为所有 8 个 TRIMH 提供服务。
研究项目负责人 (RPL)、其他 8 名 TRIMH 试点项目负责人以及 12 名克莱姆森 PI 其他 7 名 PI。
来自南卡罗来纳州 (SC) 和 SC 以外的其他 6 个国家以及三个工业客户使用了该核心。
这个核心对于那些不具备工程学科主要专业知识的人来说尤其重要,因为
我们拥有交钥匙服务和量身定制的“手把手”/指导,第一阶段的 AFT 核心提供了支持。
在第二阶段,我们与近 50 名 PI 合作,提交了 30 份资助申请,并发表了 30 多篇出版物。
将支持所有 4 个 RPL 的研究项目,同时我们继续扩展和维持工程
力争将AFT核心打造成领先的生物医学工程资源,特别是
南卡罗来纳州克莱姆森大学及其他地区的肌肉骨骼相关研究将实现这一目标。
通过三个具体目标: 目标 1:扩展和维持设计和快速原型制作能力,以实现 TRIMH
研究人员快速设计和构建模拟肌肉骨骼组件、系统或环境
是人体模型的物理和生物复制品,目标 2:扩展和维持传感器、仪器、
和测试能力,使研究人员能够设计、制造传感器并将其安装到物理和环境上
用于原位测量各种参数和验证虚拟人体模型的生物复制品,以及
目标 3:促进和维持 AFT 核心作为肌肉骨骼领域领先的生物医学工程“首选”
南卡罗来纳州克莱姆森大学及其他地区的研究将由 AFT 核心领导。
多学科团队,具有工程设计(机械、光学、电气和
材料)、先进制造、快速原型、传感器、仪器仪表、成像和先进测试。
COBRE 资金将继续支持经验丰富的工作人员运营/维护合并的
设施,培训/指导 TRIMH 研究人员将他们的创新转化为临床成功,进一步
提升核心能力,促进AFT核心向有竞争力、自主化的转型
持续的计划。
项目成果
期刊论文数量(0)
专著数量(0)
科研奖励数量(0)
会议论文数量(0)
专利数量(0)
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