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The Histo-CLEM Workflow for tissues of model organisms
Ana Laura Sousa1, Joana Rodrigues Lóios2, Pedro Faísca2
1Electron Microscopy Facility-Instituto Gulbenkian de Ciência, Oeiras, Portugal.
Methods in Cell Biology
|March 12, 2021
Summary
We developed a flexible workflow combining histology, light microscopy, and electron microscopy for seamless tissue analysis across multiple scales. This Histo-CLEM method bridges macro and nanostructures, aiding diverse biological research.
Area of Science:
- Biological imaging
- Microscopy techniques
- Tissue analysis
Background:
- Bridging macrostructure and nanostructure in tissues presents significant technical challenges.
- Existing methods often lack the flexibility to analyze diverse biological samples across various length scales.
Purpose of the Study:
- To develop a versatile workflow for correlative light and electron microscopy (CLEM) applicable to diverse tissues and model organisms.
- To provide a detailed protocol for the Histo-CLEM workflow, enabling researchers to adapt it for specific biological questions and tissue types.
Main Methods:
- The Histo-CLEM Workflow integrates histology, light microscopy, and electron microscopy.
- The workflow is designed to be flexible, allowing adaptation for different tissue types and research objectives.
- Detailed procedural steps are provided for method implementation.
Main Results:
- A flexible Histo-CLEM workflow was successfully developed and validated.
- The workflow enables analysis of tissues across multiple length scales, from macrostructure to nanostructure.
- Demonstrated application in the preparation and visualization of mouse nerve fibers.
Conclusions:
- The Histo-CLEM Workflow offers a robust solution for challenging multi-scale tissue analysis.
- This integrated microscopy approach enhances the study of tissue architecture and cellular ultrastructure.
- The method's adaptability makes it valuable for a wide range of biological research applications.

