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High-throughput volumetric adaptive optical imaging using compressed time-reversal matrix.

Hojun Lee1,2, Seokchan Yoon1,2, Pascal Loohuis3,4

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This study introduces a faster method for deep-tissue optical imaging using a time-reversal matrix to correct aberrations. This technique enables real-time, high-resolution imaging of mouse brains, overcoming previous speed limitations.

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Area of Science:

  • Biomedical Optics
  • Neuroimaging
  • Adaptive Optics

Background:

  • Deep-tissue optical imaging is limited by aberrations and scattering, reducing resolution.
  • Reflection matrix methods correct aberrations but are time-consuming for real-time applications.

Purpose of the Study:

  • To develop a faster method for high-resolution volumetric optical imaging of biological tissues.
  • To enable real-time aberration correction in deep-tissue imaging of mouse brains.

Main Methods:

  • Utilized a time-reversal matrix approach, reducing the measurement complexity compared to reflection matrices.
  • Developed a novel aberration correction algorithm optimized for the time-reversal matrix.
  • Implemented a reduced basis set (2% of complete) for aberration correction with high fidelity.

Main Results:

  • Achieved real-time aberration-corrected imaging at 80 Hz for a 40x40 µm² field of view.
  • Demonstrated high-throughput volumetric imaging of a mouse brain (128x128x125 µm³) in 3.58 seconds.
  • Obtained high resolution (0.45 µm lateral, 2 µm axial) visualizing myelinated axons.

Conclusions:

  • The time-reversal matrix method significantly accelerates aberration correction in optical imaging.
  • This approach enables fast, high-resolution, real-time volumetric imaging of scattering biological tissues like the mouse brain.
  • The technique holds promise for advanced neuroscience research and diagnostics.