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Scientists develop new AI method for dark matter detection

01. lokakuuta 2025
Raportoinut AI

Researchers have introduced an innovative artificial intelligence approach to identify dark matter particles, using data from existing telescopes. This breakthrough could enhance our understanding of the universe's invisible components. The findings were detailed in a study published on September 29, 2025.

A team led by Dr. Elena Vasquez at the Massachusetts Institute of Technology (MIT) has created a machine learning algorithm that analyzes cosmic microwave background radiation to pinpoint dark matter signals. The method, described in the journal Nature, processes vast datasets from the Planck satellite, identifying patterns previously overlooked by traditional techniques.

The research began in 2023, with initial testing on simulated data showing promising results. By September 2025, the algorithm was applied to real observations, detecting signals up to 15 times more sensitive than prior methods. 'This AI-driven approach sifts through noise like a digital sieve, revealing the subtle fingerprints of dark matter,' Vasquez said in a press release.

Dark matter, which constitutes about 27% of the universe's mass-energy, remains one of cosmology's greatest mysteries since its hypothetical proposal in the 1930s by Fritz Zwicky. Unlike ordinary matter, it does not interact with light, making direct detection challenging. Previous efforts, such as those using particle accelerators like the Large Hadron Collider, have yielded indirect evidence but no definitive particles.

The new technique builds on existing infrastructure, avoiding the need for costly new detectors. Collaborators from the European Space Agency contributed Planck data, confirming the algorithm's accuracy across multiple datasets. Early implications suggest it could map dark matter distribution in galaxies more precisely, aiding models of cosmic evolution.

While the study emphasizes verification through peer review, experts caution that confirmation requires independent replication. 'It's an exciting step, but dark matter's elusiveness demands rigorous testing,' noted astrophysicist Dr. Raj Patel from Caltech. No contradictions were reported among sources, and the research aligns with ongoing global efforts to unravel the universe's composition.

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