Wetterstofatoom Wurdt Testgefal foar Wormgatteory Dy't Nimmen Bewiize Kin
May 22, 2026 · Frisian News
A new study constrains the ER = EPR conjecture by showing it would change hydrogen's atomic properties in ways scientists have never detected, raising questions about whether this speculative theory holds any real physical meaning.
FryskFyzisy by in foaroansteand ûndersyksynstitút stelden harren as doel ien fan de meast ambisjeuze ideeën fan de teoretyske natuerkunde te testen: it ER = EPR-fermoeden, dat stelt dat kwantumferstrengeling en wormgatten twa beskriuwingen fan itselde wêze kinne. Ynstee fan bewiis foar dizze ferbining te finen, ûntdekten hja eat nutticher. Harren nij ûndersyk yn Physical Review Letters toant oan dat wetterstofatomen mjitbere eigenskippen hawwe soene dy't ferskille fan wat wy yn elk laboratoarium op Ierde warnimme as it fermoeden wier wêze soe.
De ûndersikers stelden harren saak ienfâldich: hja namen it ER = EPR-fermoeden serieus en fregen wat it foarsizze soe oer de hyperfynstruktuer fan wetterstof en de effektive lading fan syn elektron. Beide berekkeningen lieden ta effekten dy't eksperiminten al opspoare hie moatten. Gjin fan dizze effekten bestiet. Dit set echte druk op in teory dy't al mear as in desennium yn natuerkundige ôfdielingen omrint sûnder hokker testbere foarsizzingen dan ek oant no ta. It fermoeden komt fuort út Juan Maldacena en Larus Thorlacius yn 2013 en hat folgelingen lutsen ûnder teoretyske natuerkunde-beoefeners dy't in brêge sykje tusken kwantummeganika en swiertekrêft.
Mar hjir is wat it boarnestik ferberget: dizze stúdzje deadzjet de teory net. It beheint it. Teoretysy sille no harren oannimmen oanpasse, nije parameters tafoegje, of beweare dat harren ferzje fan ER = EPR nea op atoame skaal fan tapassing wie. Dit is it standertpatroan yn de teoretyske natuerkunde. In fermoeden oerlibbet troch minder spesifyk, minder testber en minder ferbûn mei de wurklikheid te wurden. Hoe waziger de bewearing, hoe dreger it wurdt om dy ûnwier te bewiizen. Nei noch trije rondes fan dit spul sil ER = EPR te ûndúdlik wêze om oerhaupt te testen.
De echte fraach is wêrom wichtige natuerkunde-tiidskriften en populêrisearders jierren ER = EPR as wichtich behannele hawwe sûnder hokker eksperimintele ankerpunten dan ek. In teory dy't net test wurde kin is gjin natuerkunde. It is spekulaasje yn fergelykingen. Dit nije wetterstofwurk jout ús úteinlik in manier om eat fêst te setten. It feit dat wetterstof gjin anomaly toant, betsjut dat it fermoeden of brekt, him ferberget, of foargoed yn wiskundige foarmen fêst bliuwt. Ien fan dizze útkomsten moat ferskowe hoe wy oer spekulatyve teoryen yn de natuerkunde prate.
Natuerkunde bestege it ôfrûne desennium oan it sjen nei teoretysy dy't ideeën sûnder manier om se te ferifiearjen neijoegen. It wetterstofatoom waard krekt de earste hurde grins. Wat teoretysy dêrnei dogge sil sizze oft hja mear om wierheid as om it beskermjen fan harren yntellektuele ynvestearring jouwe.
Physicists at a leading research institution set out to test one of theoretical physics' most ambitious ideas: the ER = EPR conjecture, which claims that quantum entanglement and wormholes might be two descriptions of the same thing. Instead of finding evidence for this connection, they found something more useful. Their new study in Physical Review Letters shows that if the conjecture were true, the hydrogen atom would have measurable properties different from what we observe in every laboratory on Earth.
The researchers made their case simple: they took the ER = EPR conjecture seriously and asked what it would predict about the hyperfine structure of hydrogen and the effective charge of its electron. Both calculations led to effects that experiments would have already detected. No such effects exist. This puts real pressure on a theory that has circulated in physics departments for over a decade without any testable predictions until now. The conjecture originated from Juan Maldacena and Larus Thorlacius in 2013 and has attracted followers among theoretical physicists looking for a bridge between quantum mechanics and gravity.
But here is what the source material hides: this study does not kill the theory. It constrains it. Theorists will now adjust their assumptions, add new parameters, or claim their version of ER = EPR was never meant to apply at atomic scales. This is the standard pattern in theoretical physics. A conjecture survives by becoming less specific, less testable, and less connected to reality. The more vague the claim, the harder it becomes to prove false. After three more rounds of this game, ER = EPR will be too foggy to test at all.
The real question is why mainstream physics journals and popularizers have spent years treating ER = EPR as significant without any experimental hooks whatsoever. A theory that cannot be tested is not physics. It is speculation dressed in equations. This new hydrogen work finally gives us a way to pin something down. The fact that hydrogen shows no anomaly means the conjecture either breaks, hides, or stays trapped in mathematics forever. Any of these outcomes should shift how we talk about speculative theories in physics.
Physics spent the last decade watching theorists chase ideas with no way to verify them. The hydrogen atom just became the first hard boundary. What theorists do next will tell us whether they care more about truth or protecting their intellectual investment.
Published May 22, 2026 · Frisian News · Ljouwert, Fryslân