<p>In this research, we have analyzed the dynamics of q-Gaussian chirped laser pulses and its capability to boost electron acceleration in a vacuum. By analytical analysis, we have investigated the impact that several laser parameters, such as the chirp parameter, laser electric field, q-parameter and beam waist, have on the energy gain of electrons. Our research has shown that the use of frequency chirp on q-Gaussian pulses have the ability to produce increase in net energy of electron. Considering the findings, the efficiency of electron acceleration may be significantly enhanced by optimizing the chirp parameter, laser electric field intensity and the q-parameter while the beam waist should be optimized (normalized value 0.82) for enhanced energy gain of electrons. Maximum 935.14&#xa0;MeV electron energy gain is obtained using optimized parameter. The findings of this study provide fresh perspectives on the formation of laser systems for the purpose of accelerating particles in advanced applications.</p>

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q-Gaussian chirped laser pulse optimization for efficient electron acceleration

  • Vivek Sharma,
  • Vishal Thakur

摘要

In this research, we have analyzed the dynamics of q-Gaussian chirped laser pulses and its capability to boost electron acceleration in a vacuum. By analytical analysis, we have investigated the impact that several laser parameters, such as the chirp parameter, laser electric field, q-parameter and beam waist, have on the energy gain of electrons. Our research has shown that the use of frequency chirp on q-Gaussian pulses have the ability to produce increase in net energy of electron. Considering the findings, the efficiency of electron acceleration may be significantly enhanced by optimizing the chirp parameter, laser electric field intensity and the q-parameter while the beam waist should be optimized (normalized value 0.82) for enhanced energy gain of electrons. Maximum 935.14 MeV electron energy gain is obtained using optimized parameter. The findings of this study provide fresh perspectives on the formation of laser systems for the purpose of accelerating particles in advanced applications.