Korean team claims to have created the first room-temperature, ambient-pressure superconductor


A group of physicists in South Korea has announced a breakthrough discovery in the field of superconductivity, the phenomenon of zero electrical resistance. The team says it has created a material that behaves as a superconductor at room temperature and normal pressure, something that has eluded scientists for more than a century.

What is superconductivity and why is it important?

Superconductivity is a state of matter where electrons can flow through a material without any loss of energy due to friction or heat. This means that superconductors can carry large amounts of current with very high efficiency, making them ideal for applications such as power transmission, magnetic levitation, quantum computing, and medical imaging.

However, most known superconductors only work at very low temperatures, close to absolute zero (-273.15°C), or under very high pressures, which require expensive and complex equipment to maintain. Finding a material that can achieve superconductivity at room temperature and ambient pressure would be a game-changer for the development of new technologies and the advancement of science.

How did the Korean team create the new superconductor?

The Korean team, led by Professor Lee Seung-hoon of Seoul National University, claims to have synthesized a new superconducting material by mixing two compounds: lanarkite (Pb2SO5) and copper phosphide (Cu3P). The mixture was heated and cooled in a sealed vacuum tube, resulting in a dark gray substance that the team named LK-99.

room temperature superconductor levitating magnet 

The team says it has measured the electrical and magnetic properties of LK-99 and found that it exhibits zero resistance and the Meissner effect, two hallmarks of superconductivity. The Meissner effect is the phenomenon where a superconductor expels an external magnetic field and levitates above a magnet. The team has provided a video of LK-99 partially levitating as evidence of its superconductivity.

The team claims that LK-99 can maintain its superconducting state at temperatures up to 27°C and pressures up to 1 atmosphere, which are the normal conditions of the environment. The team also says that LK-99 has a high critical current density, meaning that it can carry large amounts of current without losing its superconductivity.

What are the challenges and limitations of the new superconductor?

The team’s discovery has not been peer-reviewed or replicated by other researchers, which raises questions about its validity and reliability. There have been several false or controversial claims of room-temperature superconductors in the past, such as the infamous “cold fusion” experiment in 1989 and the recent “hydride” superconductor in 2019.

The team acknowledges that LK-99 is not a perfect superconductor, as it has some impurities and defects that affect its performance. The team also admits that it does not fully understand the mechanism behind LK-99’s superconductivity, and that it needs further investigation and analysis.

The team says that it has submitted its findings to a reputable journal for publication, and that it welcomes other scientists to verify and reproduce its results. The team hopes that its discovery will inspire more research and innovation in the field of superconductivity, and that it will lead to the development of new materials and applications.

What are the implications and prospects of the new superconductor?

If the team’s claims are confirmed and accepted by the scientific community, LK-99 will be the first room-temperature, ambient-pressure superconductor in history, and a major milestone in physics. LK-99 will open up new possibilities and opportunities for the exploration and exploitation of superconductivity, and will have a profound impact on various fields and industries.

LK-99 could enable the creation of more efficient and powerful electrical devices and systems, such as generators, motors, transformers, batteries, and grids. LK-99 could also enhance the performance and functionality of magnetic and quantum technologies, such as MRI scanners, maglev trains, superconducting magnets, and quantum computers.

LK-99 could also lead to the discovery of new phenomena and properties of matter, such as superfluidity, superconductivity, and superconductivity. LK-99 could also help to solve some of the fundamental problems and mysteries of physics, such as the origin of high-temperature superconductivity, the nature of quantum mechanics, and the unification of the forces of nature.

However, LK-99 is still far from being a practical and commercial superconductor, as it faces many challenges and limitations, such as scalability, stability, reproducibility, and cost. LK-99 also needs more research and development to understand and optimize its superconducting behavior and mechanism, and to find ways to integrate it with existing and emerging technologies.

The team’s discovery is a remarkable achievement, but also a starting point for a long and exciting journey of exploration and innovation. LK-99 is a new superconductor, but also a new challenge and opportunity for the scientific community and the society.


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