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Multiscale Fabrication and Imaging Platform for Bioscience Applications

适用于生物科学应用的多尺度制造和成像平台

基本信息

批准号：
9752632
负责人：
Pranav Soman
金额：
$ 18.75万
依托单位：
SYRACUSE UNIVERSITY
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：
2018-08-01 至 2021-07-31
项目状态：
已结题

来源：
https://reporter.nih.gov/project-details/9752632
关键词：
3-Dimensional Ablation Address Adoption Binding Biocompatible Materials Biological Biological Phenomena Biological Process Biological Sciences Biology Biomedical Research Cardiovascular system Cells Cellular biology Communication Complex Dendritic Cells Devices Dimensions Disease Environment Equilibrium Event Extracellular Matrix Gelatin Glass Goals Hybrids Hydrogels Image Imaging Techniques Imaging technology Immune system Investigation Lasers Lighting Liquid substance Methacrylates Methods Microfluidic Microchips Microscopy Modeling Monitor Nanotubes Nervous system structure Optics Organ Osteocytes Photosensitivity Physiologic pulse Polyethylene Glycols Polymers Printing Process Research Personnel Resolution Science Signal Transduction Skeletal system Speed Structure System Technology Testing Tissues Work base biological systems biomaterial compatibility cell motility design digital fluorescence imaging imaging capabilities imaging platform imaging system intercellular communication interest lithography mechanical properties millimeter nanometer resolution nanoscale new technology non-invasive imaging polydimethylsiloxane prevent scale up submicron two-dimensional

项目摘要

Project Summary/Abstract New technology is needed to investigate nanoscale intercellular communication in dendritic cells, a process which shares commonality with a broad range of tissues such as the skeletal, nervous, cardiovascular, and immune systems. The proposed work will design, build and characterize an integrated multiscale fabrication and imaging platform capable of building multiscale devices and systems using biocompatible and commonly used materials in biomedical sciences, and capable of non-invasively imaging the biology-of-interest at multiple scales with high resolution and high speed. This project will be divided into two specific aims, with two modules in each aim. Aim 1 will focus on developing the capability of fabricating devices that could span from centimeter to nanometer resolution using commonly used polydimethylsiloxane, synthetic polyethylene glycol diacrylate hydrogel and naturally derived gelatin methacrylate hydrogel materials. In module 1, a hybrid additive-subtractive process based on ultrafast lasers will be developed to allow fabrication of devices with a feature range of several centimeters to 0.5micrometer, while in module 2, STimulated Emission Depletion (STED) inspired lithography will be used to print nanoscale structures with a feature range from 0.5micrometer to less than 100nanometers. Aim 2 will focus on integrating super resolution and 3D sectional imaging capabilities within the platform. In module 3, STED microscopy will be designed to achieve an imaging resolution of sub-100nm, while in module 4, Digital Micromirror Device-Structural Illumination Microscopy (DMD-SIM) will be used to achieve high-speed wide-angle sectional imaging capabilities. We will demonstrate the new capabilities of the proposed platform by developing a multiscale fluidic device that replicates the 3D nanoscale canaliculi structure found in the skeletal systems – a task not possible with current technology. If successful, the proposed work will enable researchers to ask new questions concerning a broad range of cells, tissues, systems and disease types that could not be studied adequately in the absence of such a technology.

项目摘要/摘要需要新的技术来研究树突状细胞的纳米级细胞间通讯，这是一种过程它与广泛的组织如骨骼、神经、心血管和免疫系统。拟议的工作将设计、建造和表征一个集成的多尺度制造和成像平台，能够使用生物兼容性和通用的在生物医学科学中使用的材料，并能够对感兴趣的生物进行多次非侵入性成像以高分辨率和高速度进行缩放。该项目将分为两个具体目标，包括两个模块在每一个目标上。目标1将专注于开发制造跨度可达厘米的设备的能力以纳米级分辨率使用常用的聚二甲基硅氧烷、合成聚乙二醇二丙烯酸酯水凝胶和天然衍生的明胶甲基丙烯酸酯水凝胶材料。在模块1中，混合加减法基于超快激光的工艺将被开发，以允许制造具有几个特征范围的器件厘米到0.5微米，而在模块2中，受激发发射耗尽(STED)启发的光刻将用于打印特征范围从0.5微米到不到100纳米的纳米结构。 AIM 2将专注于在平台内集成超分辨率和3D断层成像能力。在……里面模块3，STED显微镜将被设计为获得低于100 nm的成像分辨率，而在模块中 4、将使用数字微镜器件-结构照明显微镜(DMD-SIM)实现高速广角断层成像能力。我们将通过以下方式演示建议平台的新功能开发一种多尺度流体装置，复制骨骼中发现的3D纳米小管结构系统--这是当前技术所不可能完成的任务。如果成功，这项拟议的工作将使研究人员就广泛的细胞、组织、系统和疾病类型提出新的问题，这些问题不可能在没有这样的技术的情况下进行了充分的研究。