Exotic substance discovery may pave the way for interplanetary journeys using quantum energy
In a groundbreaking discovery, researchers at the University of California, Irvine (UC Irvine) have unveiled a new phase of quantum matter using 70-Tesla magnetic fields[6]. This exotic quantum state, never before measured, could revolutionise electronics used in harsh interplanetary environments[2][4][5].
The exotic state of matter forms the foundation for much of modern quantum research, including superconductors, quantum magnets, and topological insulators[1]. This latest discovery reveals a novel phase that exhibits unique properties under extremely strong magnetic fields around 70 Teslas[1][3].
One of the most exciting aspects of this material is its resistance to radiation, making it potentially useful for space missions[4][5]. When subjected to ultra-high magnetic fields, the particles in hafnium pentatelluride, the material that makes this quantum state possible, pair up and spin together in the same direction, forming a bright, tightly-bound fluid of excitons[7]. This behaviour could allow signals to be carried by spin rather than electrical charge, a significant advantage in radiation-intensive environments.
Devices made from hafnium pentatelluride could help solve the radiation problem in long-duration space missions[5]. The new phase of quantum matter could enable the creation of self-charging computers and radiation-resistant electronics, a significant step forward in space travel technology[2].
Theoretical support for this discovery came from scientists at Los Alamos[3]. High-field experts from Los Alamos National Laboratory assisted with the field experiments[3]. Jinyu Liu, along with graduate students and an undergraduate, built and tested the devices at UC Irvine[6].
This discovery could reshape quantum electronics and future space travel, offering revolutionary advances for electronics used in harsh interplanetary environments. The new state of matter discovered by UC Irvine scientists using 70-Tesla magnetic fields is an exotic phase of quantum matter with promising use cases in advanced electronics for space exploration and radiation-hardened technologies.
[1] The exotic state forms the foundation for much of modern quantum research, including superconductors, quantum magnets, and topological insulators. [2] This new phase of quantum matter could enable the creation of self-charging computers and radiation-resistant electronics. [3] Theoretical support came from scientists at Los Alamos. [4] This new phase of quantum matter has never been measured before. [5] Devices made from hafnium pentatelluride could help solve the radiation problem in long-duration space missions. [6] Researchers at UC Irvine have discovered a new phase of quantum matter using 70-Tesla magnetic fields. [7] When subjected to ultra-high magnetic fields, these particles pair up and spin together in the same direction, forming a bright, tightly-bound fluid of excitons.
The exotic phase of quantum matter, discovered by UC Irvine researchers with 70-Tesla magnetic fields, is anticipated to lead to significant innovations in the science, industry, finance, and energy sectors. This novel state, never before measured, could revolutionize electronics used in space missions and harsh interplanetary environments, offering potential for self-charging computers and radiation-resistant technologies. Collaboration between UC Irvine and Los Alamos scientists has been instrumental in understanding this rare state, with possible groundbreaking implications for future quantum technology and space travel.
