Korean Researchers Develop New Holographic Microscope, Provides 3D Imaging for Living Mouse's Brain

Researchers from South Korea have developed a new holographic microscope that provides 3D imaging and high resolution of a living mouse's brain, Interesting Engineering reported.

BRITAIN-CLIMATE-UN-COP26-OCEAN-PLANKTON
A plankton analyst looks through the microscope at a sample of fish larvae from the North West Atlantic, at the The Marine Biological Association in Plymouth, south England, on August 26, 2021. - The strange metal box hauled from the waves and onto the ship's deck looks like a spaceship fished from a child's imagination. But when scientist Clare Ostle opens it up and draws out the silk scrolls inside, she is looking for the telltale green glow from some of the most important creatures on Earth: plankton. - To go with AFP story by Kelly MACNAMARA (Photo by Daniel LEAL / AFP) / To go with AFP story by Kelly MACNAMARA DANIEL LEAL/AFP via Getty Images

On July 28, this research was published, and the development was led by two researchers, Associate Director of the Center for Molecular Spectroscopy and Dynamics within the Institute for Basic Science Choi Wonshik and The Catholic University of Seoul National University Professor Kim Moonseok.

The demonstration of the new invention was used in observing a living mouse's brain. Science Daily reported that the observation succeeded as the researchers obtained an image that was clear with high-resolution quality.

Sharp images, especially high-resolution results, were very hard to obtain in usually used microscopes as multiple scattering effects and severe aberration for living issues will only occur when a certain light hits the cells.

Assessing the signal reflected from the target tissue and putting enough light energy into the sample is very important because the interior properties of living organisms will be explored using light.

How Did It Improve?

Future scientists will be able to experience a much better experience in the newly developed microscope as the wavefront distortion of the light from the object that they are examining is already corrected. This is also possible even if only a minimal light was used during the procedure.

A statement from Institute for Basic Science (IBS) was released and stated that this process would have various scattering effects. Because of this, reducing the ratio of multiple-scattered waves and raising the resolution of the deep tissue will be hard to obtain despite the development.

Researchers have also made a method for the selection of single-scattered waves as they have similar reflection waveforms no matter what angle will be positioned as per the results that can be obtained online on Science Advances.

This will focus on more than 80 times the light energy on the neural fibers from past inventions, as they used complex algorithms and an operation that analyzes the eigenmode of a medium. Adding to this is the microscope will selectively remove the unnecessary signal and will only focus on the important visuals.

As per Professor Moonseok and Doctor Yongheyon, "When we first observed the optical resonance of complex media, our work received great attention from academia. From basic principles to practical application of observing the neural network beneath the mouse skull, we have opened a new way for brain neuroimaging convergent technology by combining the efforts of talented people in physics, life, and brain science."

This article is owned by TechTimes


Written by Inno Flores

ⓒ 2024 TECHTIMES.com All rights reserved. Do not reproduce without permission.
Join the Discussion
Real Time Analytics