Researchers at the University of California, Los Angeles (UCLA) and the National Astronomical Observatory of Japan have revealed that even a single telescope can capture images with unprecedented resolution, rendering networked telescopes redundant.
The breakthrough was achieved through the use of an optical fiber called a photonic lantern, which separates light into individual wavelength shapes, allowing for finer detail detection in cosmic objects. The device effectively bypasses traditional cameras' limitations by isolating the wave nature of light.
Using this technology, astronomers were able to observe a star's disk with five times the precision achieved previously, uncovering that the star had an asymmetrical disk shape. This unexpected finding now requires additional research from astrophysicists modeling these systems.
The study published in Astrophysical Journal Letters details how the photonic lantern technique was used to capture the image of beta Canis Minoris, a star 162 light-years away, revealing new insights into its composition and behavior.
The breakthrough was achieved through the use of an optical fiber called a photonic lantern, which separates light into individual wavelength shapes, allowing for finer detail detection in cosmic objects. The device effectively bypasses traditional cameras' limitations by isolating the wave nature of light.
Using this technology, astronomers were able to observe a star's disk with five times the precision achieved previously, uncovering that the star had an asymmetrical disk shape. This unexpected finding now requires additional research from astrophysicists modeling these systems.
The study published in Astrophysical Journal Letters details how the photonic lantern technique was used to capture the image of beta Canis Minoris, a star 162 light-years away, revealing new insights into its composition and behavior.