Energy spectra of the first TGE observed on Zugspitze by the SEVAN light detector compared with the energetic TGE observed on Aragats

IF 4.2 3区 物理与天体物理 Q1 ASTRONOMY & ASTROPHYSICS Astroparticle Physics Pub Date : 2024-01-03 DOI:10.1016/j.astropartphys.2024.102924
A. Chilingarian , T. Karapetyan , B. Sargsyan , J. Knapp , M. Walter , T. Rehm
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Abstract

The energy spectra of Thunderstorm ground enhancement (TGE) electrons and gamma rays are the key evidence for proving the origin of enhanced particle fluxes from thunderclouds. Till now, the electron energy spectrum was measured only by the Aragats large scintillation spectrometer ASNT. We changed the electronics board of the SEVAN detector installed at the Umwelt-Forschungs-Station (UFS, Schneefernerhaus, 2650 m asl) to allow these vital measurements near the top of the Zugspitze. The new electronics of the SEVAN detector, supplied with logarithmic ADC, for the energy release measurements up to 50 MeV (the thickness of the spectrometric scintillator is 25 cm). Thus, by measuring energy releases well above 3 MeV, we unambiguously separate Radon progeny gamma radiation from the electrons and gamma-ray relativistic runaway avalanches. Using the different energy release histograms allows for separating charged and neutral particles, enabling the disentangling of electron and gamma-ray energy spectra. On May 23, 2023, the first TGE was registered on Zugspitze by the SEVAN detector. The gamma-ray flux enhancement was 44%, corresponding to the observed count rate peak enhancement of 44σ. The gamma-ray energy spectrum was recovered, maximum energy is 60 MeV. On the same day, a large TGE was observed on Aragats. The TGE maximum flux overpasses the fair-weather flux by 207%, equivalent to a 1-minute peak significance of 400σ. Maximum energy of electrons is 50 MeV, gamma rays – 45 MeV. In this context, we will explore and explain the new capabilities of the SEVAN detector installed on Zugspitze and the rearranged similar detector on Aragats. We also present and compare electron and gamma-ray energy spectra from Aragats TGE and gamma-ray energy spectrum from Zugspitze.

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SEVAN 光探测器在祖格峰观测到的第一个 TGE 的能谱与在阿拉加茨观测到的高能 TGE 的能谱对比。
雷暴地面增强(TGE)电子和伽马射线的能谱是证明雷云粒子通量增强来源的关键证据。到目前为止,电子能谱只能通过阿拉加茨大型闪烁光谱仪 ASNT 进行测量。我们更换了安装在海拔2650米的Umwelt-Forschungs-Station(UFS,Schneefernerhaus)的SEVAN探测器的电子板,以便在楚格峰山顶附近进行这些重要的测量。SEVAN 探测器的新型电子设备配有对数 ADC,用于测量高达 50 MeV 的能量释放(光谱闪烁体的厚度为 25 厘米)。因此,通过测量远高于 3 兆电子伏的能量释放,我们可以明确地将氡后代伽马辐射与电子和伽马射线相对论失控雪崩区分开来。利用不同的能量释放直方图可以将带电粒子和中性粒子区分开来,使电子能谱和伽马射线能谱得以分离。2023 年 5 月 23 日,SEVAN 探测器在祖格峰记录到第一个 TGE。伽马射线通量增强了 44%,与观测到的计数率峰值增强 44σ 相对应。伽马射线能谱已经恢复,最大能量为 60 兆电子伏。同一天,在阿拉加茨观测到一个大型 TGE。TGE 的最大通量超过全天候通量的 207%,相当于 400σ 的 1 分钟峰值。电子的最大能量为 50 兆电子伏,伽马射线为 45 兆电子伏。在这种情况下,我们将探讨和解释安装在祖格峰上的SEVAN探测器和阿拉加茨上重新布置的类似探测器的新功能。我们还将介绍和比较阿拉加茨 TGE 的电子能谱和伽马射线能谱以及祖格斯皮采的伽马射线能谱。
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来源期刊
Astroparticle Physics
Astroparticle Physics 地学天文-天文与天体物理
CiteScore
8.00
自引率
2.90%
发文量
41
审稿时长
79 days
期刊介绍: Astroparticle Physics publishes experimental and theoretical research papers in the interacting fields of Cosmic Ray Physics, Astronomy and Astrophysics, Cosmology and Particle Physics focusing on new developments in the following areas: High-energy cosmic-ray physics and astrophysics; Particle cosmology; Particle astrophysics; Related astrophysics: supernova, AGN, cosmic abundances, dark matter etc.; Gravitational waves; High-energy, VHE and UHE gamma-ray astronomy; High- and low-energy neutrino astronomy; Instrumentation and detector developments related to the above-mentioned fields.
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