Scientists now have a new approach to study never - before - ascertain quantum phenomenon . physicist from the Massachusetts Institute of Technology have produced the first images of atoms freely interacting in space , showing correlation that had been predicted in theory but never directly shoot before .

The squad ’s Atom - adjudicate Microscopy is done in this way . Atoms are allowed to move about and interact freely . The researchers then turn over on a grille made of igniter that , for a fraction of a second , freeze the atoms . At the same time , another laser system illuminates the atoms , creating a picture before the atoms are allowed to move again .

The squad used two atomic gases , one made of sodium speck and the other of lithium atoms . The two behave in different ways . The atomic number 11 would act like a boson , which stand for particles can cease up in the same quantum state and dissemble like a single quantum wafture . Lithium was a fermion gas , meaning only one atom at a time can be in a specific quantum country . This yield rise to these atoms pairing up , like electrons do in superconductors .

Top: Two renderings show how itinerant atoms in an atom trap (red) are suddenly frozen in place via an applied optical lattice and imaged via Raman sideband cooling. Bottom: Three microscope images show (left to right) bosonic 23Na forming a Bose-Einstein condensate; a single spin state in a weakly interacting 6Li Fermi mixture; and both spin states of a strongly interacting Fermi mixture, directly revealing pair formation.

The bottom images show the sodium gas acting like bosons, lithium weakly interacting (so each atom stays alone), and lithium strongly interacting, forming pairs.Image Credit: Yao et al. 2025, courtesy of the researchers.

“ We are able to see single speck in these interesting cloud of atoms and what they are doing in sex act to each other , which is beautiful , ” senior writer Professor Martin Zwierlein said in astatement .

The team was able to go after the boson quantum wave directly , which has been used to explicate the wave - like nature of country of matter , such as the Bose - Einstein condensate . At the same time , reckon demeanor predicted in fermions ( such as the pairing ) that have not been directly determine before feels like a rotation in bailiwick of the quantum world .

“ This sort of mating is the basis of a mathematical construction that the great unwashed come up with to explicate experiments . But when you see pictures like these , it ’s showing in a photograph , an object that was discovered in the mathematical world , ” study co - author assistant prof Richard Fletcher added . “ So it ’s a very prissy reminder that physical science is about physical thing . It ’s real . ”

Next , the team is going to look at weirder phenomenon like the quantum Hall physics . These are much less understood , and direct observation of atoms under exchangeable conditions might differentiate us what fundamental molecule actually do in those cases .

The squad was co - author by graduate researchers Ruixiao Yao , Sungjae Chi , and Mingxuan Wang .

The study is published inPhysical Review Letters . The same issue showcases standardised techniques by autonomous teams .