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Revisiting the flaring activity in early 2015 of BL Lacertae object S5 0716+714

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arxiv 2412.20842 v1 pith:PH3JA7Y3 submitted 2024-12-30 astro-ph.HE

classification astro-ph.HE
keywords modelsedsplusemissionflaringdopplerduringearly
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abstract

In this work, we analyzed multi-wavelength data of the BL Lac object S5 0716+714 to investigate its emission mechanisms during a flaring state observed in early 2015. We examined the temporal behavior and broadband spectral energy distributions (SEDs) during the flare. The size of the $\gamma$-ray emission region was estimated based on the variability timescale. To explore the multi-wavelength properties of S5 0716+714, we employed three one-zone models: the SSC model, the SSC plus EC model, and the SSC plus pp interactions model, to reproduce the SEDs. Our findings indicate that while the SSC model can describe the SEDs, it requires an extreme Doppler factor. In contrast, the SSC plus EC model successfully fits the SEDs under the assumption of weak external photon fields but requires a high Doppler factor. Additionally, the SSC plus interactions model also reproduces the SEDs, with $\gamma$-ray emission originating from $\pi^{0}$ decay. However, this model leads to a jet power that exceeds the Eddington luminosity, which remains plausible due to the flaring state or the presence of a highly collimated jet.

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  1. BL Lacertae under the Flare of 2024: Probing Temporal and Spectral Dynamics

    astro-ph.HE 2025-05 conditional novelty 5.0 of 10

    The October 2024 flare of BL Lacertae varied on a ~1 hour timescale, and its broadband spectrum is claimed to require a proton-based component at the highest energies.

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