{"id":244400,"date":"2026-01-18T07:40:12","date_gmt":"2026-01-18T07:40:12","guid":{"rendered":"https:\/\/www.newsbeep.com\/il\/244400\/"},"modified":"2026-01-18T07:40:12","modified_gmt":"2026-01-18T07:40:12","slug":"the-technology-that-reveals-what-happens-in-0-00000000000000000000001-second-science","status":"publish","type":"post","link":"https:\/\/www.newsbeep.com\/il\/244400\/","title":{"rendered":"The technology that reveals what happens in 0.00000000000000000000001 second | Science"},"content":{"rendered":"

People have the feeling that everything happens very quickly. But normal things in our everyday lives happen extraordinarily slowly compared to the speed of events in the microscopic world<\/a>. This is a world beyond the limits of human perception where matter is determined, where combinations of particles make up all the substances in the universe. There are events that occur in attoseconds (as), a trillionth of a second. An attosecond is equivalent to 0.000000000000000000001 second or 1×10-18 of a second and corresponds, approximately, to the time it takes light to pass through an atom and the natural scale of electronic motion in matter. The Institute of Photonic Sciences (ICFO) has also achieved a soft X-ray pulse of just 19.2 attoseconds.<\/p>\n

The Hungarian Ferenc Krausz, the Frenchwoman Anne L\u2019Huillier and Frenchman Pierre Agostini were awarded the Nobel Prize in Physics<\/a> in 2023 for developing extremely brief pulses of light to measure the hitherto immeasurable process of the movement or exchange of energy of electrons. They received it eight months after this research obtained the BBVA Foundation\u2019s Frontiers of Knowledge Award in the Basic Sciences category.<\/p>\n

The BBVA Foundation and the Royal Spanish Society of Physics (RSEF) have once again awarded a prize to a researcher in this almost unexplored field whose map, which until this century could only be mapped through theories on paper. The Young Researcher Award in Experimental Physics has gone to Allan Johnson, Ram\u00f3n y Cajal scientist at IMDEA Nanoscience Institute<\/a> for his experiments generating ultrafast pulses of light \u2014 the compass for discovering a world where what we know begins to take shape, enabling the study of materials, the understanding of the quantum universe, and even the observation of the body\u2019s cells in an unprecedented dimension.<\/p>\n

Johnson was born 35 years ago in Ottawa, Canada, where he studied physics and math. After obtaining his doctorate at Imperial College London, he came to Spain on account of his wife, with whom he has two children. \u201cIn other places, I have the feeling that life means suffering, that the present is worse than the past. In Spain, I feel that there is a brighter future. It\u2019s a good country to live in,\u201d he says. <\/p>\n

He received the award for his work with the so-called overdriven regime, a technology that uses extremely powerful lasers to generate attosecond-long X-ray pulses with which he can measure complex materials. \u201cWe used a very high-power laser and focused it to reach such a high intensity that, in the hottest focus, it could reach temperatures higher than those on the Sun\u2019s exterior. You get a superheated plasma that pulls electrons out of atoms and breaks matter,\u201d he explains. <\/p>\n

The technology of Johnson\u2019s team is the key to other research. \u201cWhen we generate plasma with a very powerful laser, it emits an X-ray pulse of one attosecond and it is this emitted pulse that we use for other experiments. The supercharged regime is a way to generate attosecond pulses with X-ray energies in the laboratory. All downstream applications use ultrafast X-rays, but they are not specific to the supercharged regime.\u201d<\/p>\n

Among the applications is the understanding of the dynamics of electrons, fundamental in the quantum field<\/a>, which, according to physics, explains nature: \u201cThe correlations between electrons are very important. In a normal material, such as a piece of aluminum or glass, we imagine that each electron functions independently. That\u2019s not entirely true, although we\u2019ve built every semiconductor in the world and computers based on this idea. But in quantum materials<\/a>, the model doesn\u2019t work like that and that\u2019s why we need to understand how electrons interact.\u201d<\/p>\n

To exemplify the importance of these investigations, Johnson explains that 10% of electricity generated is lost along the way. \u201cReducing these losses can help a lot with the fight against climate change or with Europe\u2019s energy independence,\u201d he explains. <\/p>\n

Supercharged regime technologies are also fundamental in metrology and with practical applications in the construction of microprocessors<\/a> or, as Johnson explains, to \u201clook at cells at a higher resolution than that of any existing optical microscope.\u201d <\/p>\n

Another field opened up by these attosecond pulses is materials science. But the field is wide: \u201cOn the nanometer scale, we can take materials and turn them into something magnetic or the other way around. There is some work that suggests that we can actually convert a material that is not a superconductor into a superconductor. We can trap materials in very different states than are achieved in other ways.\u201d<\/p>\n

The dream, Johnson says, would be to create materials that do not exist in nature with unique properties, on demand. But he recognizes that we are still a long way off. However, he believes that the path is open and that there are already feasible applications in information processing, sensors, space technology and neuromorphic computing, that mimic the human brain. <\/p>\n

ICFO record<\/p>\n

In the same field, a group of researchers from the Institute of Photonic Sciences (ICFO)<\/a> has set a new record by generating the soft X-ray pulse of only 19.2 attoseconds, considered the shortest to date. This is the fastest flash of light, even faster than the atomic unit of time (24.2 attoseconds), which corresponds to the time it takes for an electron to complete an orbit around the hydrogen atom: the \u201catomic year,\u201d reports the ICFO in a note based on the research published in Ultrafast Science<\/a>.<\/p>\n

ICFO researchers Jens Biegert and Fernando Ardana-Lamas.ICFO<\/p>\n

\u201cThis new capability paves the way for advances in physics, chemistry, biology and quantum science, enabling direct observation of processes that drive photovoltaics, catalysis, correlated materials and emerging quantum devices,\u201d says ICFO German physicist Jens Biegert. <\/p>\n

The institute explains that the key to these findings is understanding how matter behaves and interacts at atomic and subatomic scales<\/a>: \u201cElectrons determine everything: how chemical reactions develop, how materials conduct electricity, how biological molecules transfer energy, and how quantum technologies operate. But the electronic dynamics occur on attosecond timescales, too fast for conventional measurement tools.\u201d<\/p>\n

\u201cOur results demonstrate the remarkable capabilities of attosecond technology and lay the groundwork for its widespread use in fundamental and applied science,\u201d the scientists conclude in their study, where they note a similar achievement \u2014 though in a different range \u2014 published in the journal arXiv<\/a>.<\/p>\n

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