Effects of Different Laser Shape Pulses on Laser Wakefield Acceleration
Vikrant K Patel, Raunaq Singh, Nipul Agarwal, Monika Yadav, Suresh C. Sharma
Abstract
Vikrant K Patel, Raunaq Singh, Nipul Agarwal, Monika Yadav, Suresh C. Sharma
Abstract
The authors of this work discuss the impact of varying laser shape pulses on laser Wakefield acceleration. Researchers have identified a relativistic plasma wave with an extraordinarily high electric field, which has the potential to be used to accelerate plasma particles in general, as well as for particle acceleration in general, according to the researchers. The acceleration process is fueled by a massive accelerating field gradient created by plasma wave, which acts as the primary motivator for acceleration process to take place and accelerate the plasma wave. A plasma wave provides the energy for the acceleration process. To ignite this kind of plasma wave, it is possible to produce an ionizing wakefield with a single laser, and the plasma wave will then interact with the laser itself. A wiggler magnetic field is utilized in this article to illustrate that augmentation of electron acceleration created by plasma wave may be investigated by deploying a plasma wave generator, which is described in detail elsewhere. A faster forward motion is required to make use of the higher resonance provided by the wiggler field, thus, electrons caught in the plasma wave are propelled forward at a faster pace. As a consequence, the amount of energy that the electrons accumulate throughout their acceleration increases dramatically.
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The authors of this work discuss the impact of varying laser shape pulses on laser Wakefield acceleration. Researchers have identified a relativistic plasma wave with an extraordinarily high electric field, which has the potential to be used to accelerate plasma particles in general, as well as for particle acceleration in general, according to the researchers. The acceleration process is fueled by a massive accelerating field gradient created by plasma wave, which acts as the primary motivator for acceleration process to take place and accelerate the plasma wave. A plasma wave provides the energy for the acceleration process. To ignite this kind of plasma wave, it is possible to produce an ionizing wakefield with a single laser, and the plasma wave will then interact with the laser itself. A wiggler magnetic field is utilized in this article to illustrate that augmentation of electron acceleration created by plasma wave may be investigated by deploying a plasma wave generator, which is described in detail elsewhere. A faster forward motion is required to make use of the higher resonance provided by the wiggler field, thus, electrons caught in the plasma wave are propelled forward at a faster pace. As a consequence, the amount of energy that the electrons accumulate throughout their acceleration increases dramatically.
Key concepts: Waves in plasmas, Physics, Plasma acceleration, Acceleration, Plasma, Wiggler, Laser, Electromagnetic electron wave