我是王若泉,目前在费米实验室任博士后研究员,主攻粒子物理与宇宙学理论。欢迎来到我的个人空间。
我生于山东淄博,高中毕业后来到上海,随后在美国罗格斯大学获得博士学位。我的发表记录可以从InspireHep上找到。(本领域一般不使用Google Scholar,如果去那里找的话会有很多遗漏)
页面左边有我的邮箱、推特、github和简历。你也可以在联系方式页面上寻找更多的关于我的联系方式的信息。
理论粒子物理与宇宙学,博士, 2017-2023
罗格斯大学
物理学,学士, 2013-2017
复旦大学
基本信息:
助教经历:
With one neutrino flavor still being relativistic today, the resonance of the scattering between incoming DSNB neutrino and cosmic neutrino background can be significantly widened. The distortion of the DSNB spectrum can thus be used to probe a much wider parameter space of neutrino self-interaction. We show that a mediator at eV scale can be probed with the coupling to neutrino as low as $10^{-8}$.
We show that MUonE can also discover thermal relic dark matter using only its nominal experimental setup. Furthermore, our results show that the downstream ECAL plays a key role in rejecting backgrounds for this search, thereby providing strong motivation for the MUonE to keep this component in the final experimental design.
The coupling between an axion-like particle (ALP) and the Higgs boson can potentially enhance the electroweak phase transition to be strongly first order. Local electroweak baryogensis, which has been ruled out for the traditioanl Higgs operator, can be effective for the operator that couples the ALP with various anomalies. This paper investigates such a scenario with various ways to probe.
Space-time parity has been proposed as a solution to the strong CP problem for decades. However, electroweak (-like) baryogenesis from the $SU(2)_R \times U(1)_X \to U(1)_Y$ phase transition has been regarded as difficult. This paper investigates the possibility to realize the electroweak (-like) phase transition in such a phase transition, and discuss the resulting cosmological results.
Axion rotation has been recently proposed to be a possible source of baryogenesis, i.e. ‘axiogenesis’. This mechanism, however, cannot account for the observed number of axion dark matter abundance and baryon asymmetry simultaneously in minimal SM + axion. In this paper, we propose a possibility where axiogenesis can be compatible with axion dark matter.
It has been known the electroweak baryogenesis (EWBG) in the minimal SM is suppressed by the large damping rate of the quark quasiparticle in the thermal plasma, due to the strong QCD interaction. Old literatures proposed a possibility that lepton scattering may be capable of generating enough baryon asymmetry since the damping rate could be much smaller. Is this really the case? This paper proposes a model that mimic the SM quark sector with chiral leptons. We investigate the thermodynamics in detail and concluded that it could be only marginally OK to generate the baryon asymmetry from a lepton sector with CKM-like structure.