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Bioengineering
使用一个荧光显微镜进行多种成像模式
使用一个荧光显微镜进行多种成像模式
JoVE Journal
Bioengineering
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JoVE Journal Bioengineering
Conducting Multiple Imaging Modes with One Fluorescence Microscope

使用一个荧光显微镜进行多种成像模式

Full Text
10,343 Views
08:32 min
October 28, 2018

DOI: 10.3791/58320-v

Seongjin Park1, Jiacheng Zhang2, Matthew A. Reyer2, Joanna Zareba1,3, Andrew A. Troy4, Jingyi Fei1,2

1Department of Biochemistry and Molecular Biology,University of Chicago, 2The Institute for Biophysical Dynamics,University of Chicago, 3Faculty of Chemistry,Wrocław University of Science and Technology, 4Nikon Instruments Inc.

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Please note that some of the translations on this page are AI generated. Click here for the English version.

Overview

This article presents a practical guide for building an integrated microscopy system that combines conventional epi-fluorescent imaging, super-resolution imaging, and multi-color single-molecule detection. The method aims to reduce costs while providing advanced imaging capabilities.

Key Study Components

Area of Science

  • Optical Microscopy
  • Fluorescence Imaging
  • Super-Resolution Techniques

Background

  • Combining different imaging techniques can enhance research capabilities.
  • Single-molecule detection is crucial for advanced imaging.
  • Cost-effective solutions are needed in microscopy.
  • Assembly of the excitation path is complex and requires careful alignment.

Purpose of Study

  • To provide a guide for assembling an integrated microscopy system.
  • To demonstrate how to capture super-resolution and FRET images using the same setup.
  • To simplify the learning process for researchers in microscopy.

Methods Used

  • Installation of a data acquisition card through a PCI interface.
  • Connection of lasers to a computer for control.
  • Use of transistor-transistor logic for laser control.
  • Analog output for power adjustment of lasers.

Main Results

  • The integrated system allows for cost-effective imaging solutions.
  • Demonstration of assembly techniques aids in understanding.
  • Successful combination of multiple imaging modules into one microscope.
  • Enhanced ability to conduct super-resolution and FRET imaging.

Conclusions

  • The integrated microscopy system is a valuable tool for researchers.
  • Cost reduction is achievable without compromising imaging quality.
  • Visual demonstrations are essential for effective learning.

Frequently Asked Questions

What is the main advantage of this microscopy system?
The main advantage is the combination of multiple imaging techniques into one cost-effective setup.
How does the system control the lasers?
Lasers are controlled via a data acquisition card using transistor-transistor logic for on/off behavior and analog output for power adjustment.
What types of images can be captured with this system?
The system can capture super-resolution images as well as FRET images.
Is visual demonstration important for this method?
Yes, visual demonstration is critical as the assembly of the excitation path is complex and requires proper alignment.
What components are essential for building the system?
Essential components include a data acquisition card, lasers, and proper optical parts for alignment.
Can this system be used for other types of imaging?
While primarily designed for super-resolution and FRET imaging, the system may be adaptable for other imaging techniques.

在这里, 我们提出了一个实用的指南, 建立一个综合显微镜系统, 合并传统的 epi 荧光成像, 单分子检测的超分辨率成像和多色单分子检测, 包括单分子荧光共振能量转移成像, 成一种以经济高效的方式进行设置。

此方法可以帮助回答光学显微镜领域的关键问题,例如如何使用同一显微镜拍摄超分辨率图像和 FRET 图像。该技术的主要优点是,我们可以将三个不同的成像模块组合成一台显微镜,从而显著降低总体成本。该方法的可视化演示至关重要,因为激励路径的组装很难学习。

它们需要正确选择零件和敏感的光学校准。首先,通过 PCI 接口安装数据采集卡,并用它来将激光器连接到计算机。通过晶体管-晶体管逻辑输出控制激光的开、关行为,通过该卡的模拟输出控制激光的功率调整。

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