Engineers from the Pennsylvania School of Engineering and
Applied Science in the United States have detected variations in nuclear quadrupolar
resonance in the nucleus of an atom using a quantum sensor.
Changes in molecules are usually detected using radio waves,
but there are no techniques to detect quadrupolar resonance variations in the
nucleus of an atom.
It is now known that nuclear quantum sensors can be used to
detect this variation in nuclear quadrupolar resonance spectroscopy, which is
called NQR, very precisely.
Radio waves have been used to detect many things in molecules that are not visible to the naked eye. MRI machines use radio waves to
scan the human body, and radio waves are also used to detect explosives at
airports, but these cannot detect subtle changes. Only changes in common
molecules can be detected, especially changes in the nucleus of an atom. The
technique was needed to detect changes in the nucleus of an atom. Quantum
sensors are now expected to be used to fulfil that.
The average frequencies of trillions of atoms and the small
variations between individual molecules cannot be detected by this radio wave
technology. Similarly, the shape control and small differences in protein
research cannot be detected, but with the help of the recently discovered
quantum sensor, it is possible to detect the variations that may exist in the
nucleus of an atom.
This technology allows us to isolate and study individual
nuclei and reveal small differences in molecules that are thought to be
identical.
By focusing on the function of a single molecule, we can
discover previously unknown details about the structure and behaviour of that
molecule in the future.
This ability is in the form of a new path in the world of
physics to discover the building blocks of molecules, says Lee Bassett, an
associate professor in electrical and system engineering.
They say this was an unexpected discovery because they had
been studying the smallest defects in the atom using quantum sensors. Then they
noticed unusual patterns in their data. A difference appeared in certain
periodic equations, and it was then that they realized that the changes that
occurred there with the quantum sensor were subtle in the molecules.
Future developments through this discovery.
Scientists who have studied this say that this can detect
changes in the nucleus of an atom with great precision.
When the molecules in a nucleus are isolated and examined,
all its unique properties can be revealed through this.
Since this quantum sensor can accurately detect even the most
subtle changes in the nucleus of an atom, many new discoveries are likely to be
made in the future.
Detecting the structure of proteins and the changes that
occur in them will be useful in the medical field. This discovery will help the
current technology to develop more effectively.
The MRI scanning system in the medical field has the
potential to become a highly advanced machine in the future. Through this,
various diseases and defects in the body can be detected.
If very subtle changes can be detected, there are
opportunities to accurately detect problems in the nerves in the human body
through these quantum sensors.
This research will be used to create many new researches and
to improve all the current applications in various fields.