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Thorimage 3

Manufactured by Thorlabs

The ThorImage 3.1 is a high-performance imaging system designed for a variety of scientific and industrial applications. It features a high-resolution sensor, advanced image processing capabilities, and flexible connectivity options. The core function of the ThorImage 3.1 is to capture, process, and output high-quality images.

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2 protocols using thorimage 3

1

Two-Photon Calcium Imaging of Neural Activity

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Two-photon calcium imaging was performed on a custom-build microscope equipped with a resonant scanning module (LSK-GR08, Thorlabs), GaAsP photomultiplier tube (Hamamatsu), and a 16 × 0.8 numerical aperture microscope objective (Nikon) using ThorImage 3.1 (Thorlabs). We used a Ti-Sapphire laser (Mai Tai HP, Spectra Physics) to excite GCaMP6 at 920 nm. The FOV was 798 μm × 798 μm (512 × 512 pixels) and images were acquired at 30 Hz for single-plane recordings and at 5 Hz for multi-plane recordings. For multi-plane recordings the objective was moved between frames using a piezo objective scanner (PFM450E, Thorlabs). The piezo was allowed to settle for 35 ms in the new z position before the next frame was recorded.
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2

Two-Photon Calcium Imaging of Neural Activity

Check if the same lab product or an alternative is used in the 5 most similar protocols
Two-photon calcium imaging was performed on a custom-build microscope equipped with a resonant scanning module (LSK-GR08, Thorlabs), GaAsP photomultiplier tube (Hamamatsu), and a 16 × 0.8 numerical aperture microscope objective (Nikon) using ThorImage 3.1 (Thorlabs). We used a Ti-Sapphire laser (Mai Tai HP, Spectra Physics) to excite GCaMP6 at 920 nm. The FOV was 798 μm × 798 μm (512 × 512 pixels) and images were acquired at 30 Hz for single-plane recordings and at 5 Hz for multi-plane recordings. For multi-plane recordings the objective was moved between frames using a piezo objective scanner (PFM450E, Thorlabs). The piezo was allowed to settle for 35 ms in the new z position before the next frame was recorded.
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