What question did this study set out to answer?

The study aims to explore the role of dark halos as compute cores within spacetime and their implications for dark matter understanding.

June 15, 20260 citationsOpen Access

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The Dark Matter Clock Speed Anomaly: Topological Halos as Compute Cores in a Distributed Spacetime

YCYaniv Cohen

Key Points

The study aims to explore the role of dark halos as compute cores within spacetime and their implications for dark matter understanding.
Utilized a warm-started computational model with N=1024 live vacuum states.
Performed 100 sweeps to analyze halo and vacuum event rates.
Measured occurrences of shortcut-birth events in both halo and vacuum regions.
Halo regions produced 1884 wormhole-like events, whereas vacuum regions produced only 613.
This led to a normalized halo event birth-rate advantage of 3.073409x over vacuum.
Concludes that dark halos function as active computational cores instead of passive structures.

Abstract

The current Paper 62 benchmark does not claim that continuum dark matter or relativistic proper time has already been derived from first principles inside QGEFT. It does show that the verified warm-started `N=1024` live vacuum supports a stable computational asymmetry between sectors. Across `100` sweeps, the halo region produces `1884` wormhole-like shortcut-birth events while the vacuum produces only `613`, yielding a normalized halo birth-rate advantage of `3.073409x`. The defensible conclusion is therefore that dark halos act here as persistent high-activity topological compute cores rather than as passive background scaffolds.

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The Dark Matter Clock Speed Anomaly: Topological Halos as Compute Cores in a Distributed Spacetime

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Abstract

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