Wind-mass transfer in S-type symbiotic binaries IV. Indication of high wind-mass-transfer efficiency from active phases
arXiv:2310.13133 · doi:10.1051/0004-6361/202347396
Abstract
Observational indications of wind-mass transfer from an evolved giant to its distant white dwarf (WD) companion in symbiotic binaries are rare. Here, we present a way to examine the neutral wind from the giant in symbiotic binaries, which is temporarily observable throughout the orbital plane during outbursts. We find that the mass-loss rate from giants in the orbital plane of S-type symbiotic binaries is high, indicating a high wind-mass-transfer efficiency in these systems. We modeled hydrogen column densities in the orbital plane between the observer and the WD for all suitable eclipsing S-type symbiotic binaries during outbursts in any orbital phase. The mass-loss rate from the giant in the orbital plane is on the order of 10, which is a factor of 10 higher than rates derived from nebular emission produced by the ionized wind from normal giants in symbiotic stars. This finding suggests a substantial focusing of the giant's wind toward the orbital plane and, thus, its effective transfer onto the WD companion. Our finding suggests that wind focusing on the orbital plane may be a common property of winds from giants in S-type symbiotic stars. Such wind-focusing resolves a long-standing problem of the large energetic output from their burning WDs and deficient fueling by the giant via a standard Bondi-Hoyle accretion. It also allows the WD to grow faster in mass, which lends support to the possibility that S-type symbiotic binaries are progenitors of Type Ia supernovae.
arXiv comment7 pages, 2 figures, 1 table. Accepted for Astronomy & Astrophysics
References in corpus (37)
- An Extended Grid of Nova Models: II. The Parameter Space of Nova Outbursts
- A catalogue of symbiotic stars
- Wind Roche-lobe overflow: Application to carbon-enhanced metal-poor stars
- Thermally Stable Nuclear Burning on Accreting White Dwarfs
- Disentangling the composite continuum of symbiotic binaries I. S-type systems
- Wind accretion in binary stars II. Accretion rates
- Growing White Dwarfs to the Chandrasekhar Limit: The Parameter Space of the Single Degenerate SNIa Channel
- Numerical Simulations of Wind Accretion in Symbiotic Binaries
- Population synthesis for symbiotic stars with white dwarf accretors
- SU Lyncis, a hard X-ray bright M giant: Clues point to a large hidden population of symbiotic stars
- Wind accretion in binary stars - I. Mass accretion ratio
- Orbital Periods for Three Recurrent Novae
- Broad H-alpha wings from the optically thin stellar wind of the hot components in symbiotic binaries
- Roche-lobe filling factor of mass-transferring red giants - the PIONIER view
- Wind morphology around cool evolved stars in binaries: the case of slowly accelerating oxygen-rich outflows
- Three-dimensional hydrodynamical models of wind and outburst-related accretion in symbiotic systems
- Wind-accretion disks in wide binaries, second generation protoplanetary disks and accretion onto white dwarfs
- First Resolved Images of the Mira AB Symbiotic Binary at Centimeter Wavelengths
- An incisive look at the symbiotic star SS Leporis -- Milli-arcsecond imaging with PIONIER/VLTI
- Collimation and asymmetry of the hot blast wave from the recurrent nova V745 Scorpii
- AGB winds in interacting binary stars
- The GALAH Survey and Symbiotic Stars. I. Discovery and follow-up of 33 candidate accreting-only systems
- New outburst of the symbiotic nova AG Peg after 165 years
- Evolution of the Symbiotic Nova PU Vul -- Outbursting White Dwarf, Nebulae, and Pulsating Red Giant Companion
- Wind mass transfer in S-type symbiotic binaries II. Indication of wind focusing
- Wind mass transfer in S-type symbiotic binaries I. Focusing by the wind compression model
- Activity cycle of the giant star of Z Andromedae and its spin period
- Mm/submm observations of symbiotic binary stars: implications for the mass loss and mass exchange
- High resolution spectroscopy of symbiotic stars. VI. Orbital and stellar parameters for AR Pav
- Simulations of Multiple Nova Eruptions Induced by Wind Accretion in Symbiotic Systems
- Ionization structure of hot components in symbiotic binaries during active phases
- Wind mass transfer in S-type symbiotic binaries III. Confirmation of a wind focusing in EG Andromedae from the nebular [OIII]λ5007 line
- The secondary minimum in YY Her: Evidence for a tidally distorted giant
- The path to Z And-type outbursts: The case of V426 Sagittae (HBHA 1704-05)
- Wind asymmetry imprint in the UV light curves of the symbiotic binary SY Mus
- The emergence of a neutral wind region in the orbital plane of symbiotic binaries during their outbursts
- Density asymmetry and wind velocities in the orbital plane of the symbiotic binary EG Andromedae