Construction of Large Cranial Windows With Nanosheet and Light-Curable Resin for Long-term Two-Photon Imaging in Mice

In vivo two-photon imaging of the mouse brain is essential for understanding brain function in relation to neural structure; however, its application is limited by the size and mechanical stability of conventional cranial windows. Here, we present the procedure of a large-scale cranial window technique based on the nanosheet incorporated into light-curable resin (NIRE) method. This approach utilizes a biocompatible polyethylene-oxide-coated CYTOP (PEO-CYTOP) nanosheet combined with light-curable resin, allowing the window to conform to the brain's curved surface. The protocol enables long-term, high-resolution, and multiscale imaging-from subcellular structures to large neuronal populations-in awake mice over several months. Key features • This protocol establishes large-scale cranial windows by combining a flexible, biocompatible PEO-CYTOP nanosheet with light-curable resin. • The large-scale cranial window provides long-term optical transparency and mechanical stability, enabling chronic in vivo imaging with minimal motion artifacts. • This approach facilitates multiscale two-photon imaging-from subcellular structures to large-scale neural networks-in awake mice.

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Publication Details

Journal
BIO-PROTOCOL
Published
2025-01-01
DOI
https://doi.org/10.21769/bioprotoc.5373
Primary Topic
Anesthesia and Neurotoxicity Research
Type
article
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article

Construction of Large Cranial Windows With Nanosheet and Light-Curable Resin for Long-term Two-Photon Imaging in Mice

Yuya Makino, Tomomi Nemoto, Yosuke Okamura, Taiga Takahashi
BIO-PROTOCOL
Anesthesia and Neurotoxicity Research
article

Construction of Large Cranial Windows With Nanosheet and Light-Curable Resin for Long-term Two-Photon Imaging in Mice

Yuya Makino, Tomomi Nemoto, Yosuke Okamura, Taiga Takahashi
article en

Abstract

In vivo two-photon imaging of the mouse brain is essential for understanding brain function in relation to neural structure; however, its application is limited by the size and mechanical stability of conventional cranial windows. Here, we present the procedure of a large-scale cranial window technique based on the nanosheet incorporated into light-curable resin (NIRE) method. This approach utilizes a biocompatible polyethylene-oxide-coated CYTOP (PEO-CYTOP) nanosheet combined with light-curable resin, allowing the window to conform to the brain's curved surface. The protocol enables long-term, high-resolution, and multiscale imaging-from subcellular structures to large neuronal populations-in awake mice over several months. Key features • This protocol establishes large-scale cranial windows by combining a flexible, biocompatible PEO-CYTOP nanosheet with light-curable resin. • The large-scale cranial window provides long-term optical transparency and mechanical stability, enabling chronic in vivo imaging with minimal motion artifacts. • This approach facilitates multiscale two-photon imaging-from subcellular structures to large-scale neural networks-in awake mice.

BIO-PROTOCOLVol. 15(1375)
Tokai University (JP)
Openalex Percentile: Top 84%
Anesthesia and Neurotoxicity Research
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Construction of Large Cranial Windows With Nanosheet and Light-Curable Resin for Long-term Two-Photon Imaging in Mice — Yuya Makino, Tomomi Nemoto, et al. · BIO-PROTOCOL (2025) | TGRS Research Map | TGRS