Local heating creates a minimum in saturation magnetization whose associated demagnetizing-field change raises the lowest magnon frequency, driving supercurrents outward from the hot region.
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A parametrized analytical model for BBH mass ratios from the stable mass transfer channel is derived and applied to the 10 solar-mass peak in GWTC-4, favoring little mass-ratio reversal.
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Local temperature control of magnon frequency and direction of supercurrents in a magnon Bose-Einstein condensate
Local heating creates a minimum in saturation magnetization whose associated demagnetizing-field change raises the lowest magnon frequency, driving supercurrents outward from the hot region.
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A Strongly Parametrized Mass Ratio Model for the Stable Mass Transfer Channel: a Case Study of the $10 \, \rm{M}_{\odot}$ Peak
A parametrized analytical model for BBH mass ratios from the stable mass transfer channel is derived and applied to the 10 solar-mass peak in GWTC-4, favoring little mass-ratio reversal.