@article{Gonsales_2019,
  author =        {Gonsales, Anthony and others},
  journal =       {Physical Review Letters},
  month =         {02},
  pages =         {},
  title =         {Petawatt Laser Guiding and Electron Beam Acceleration
                   to 8 GeV in a Laser-Heated Capillary Discharge
                   Waveguide},
  volume =        {122},
  year =          {2019},
  doiurl =        {10.1103/PhysRevLett.122.084801},
}

@article{Walker_2017,
  author =        {P A Walker and P D Alesini and A S Alexandrova and
                   others},
  journal =       {Journal of Physics: Conference Series},
  month =         {jul},
  pages =         {012029},
  publisher =     {{IOP} Publishing},
  title =         {Horizon 2020 {EuPRAXIA} design study},
  volume =        {874},
  year =          {2017},
  abstract =      {The Horizon 2020 Project EuPRAXIA (“European Plasma
                   Research Accelerator with eXcellence In
                   Applications”) is preparing a conceptual design
                   report of a highly compact and cost-effective
                   European facility with multi-GeV electron beams using
                   plasma as the acceleration medium. The accelerator
                   facility will be based on a laser and/or a beam
                   driven plasma acceleration approach and will be used
                   for photon science, high-energy physics (HEP)
                   detector tests, and other applications such as
                   compact X-ray sources for medical imaging or material
                   processing. EuPRAXIA started in November 2015 and
                   will deliver the design report in October 2019.
                   EuPRAXIA aims to be included on the ESFRI roadmap in
                   2020.},
  doiurl =        {10.1088/1742-6596/874/1/012029},
  url =           {https://doi.org/10.1088%2F1742-6596%2F874%2F1%2F012029},
}

@article{Kuznetsov_2020,
  author =        {Кузнецов, С. В.},
  journal =       {Квантовая электроника},
  number =        {10},
  pages =         {929--933},
  title =         {Механизм группировки
                   электронов в сгустке,
                   генерируемом лазерным
                   импульсом
                   ультрарелятивистской
                   интенсивности при
                   пересечении границы
                   неоднородной плазмы},
  volume =        {50},
  year =          {2020},
  language =      {russian},
}

@article{Milchberg_2015,
  author =        {Goers, Andrew and Hine, G. and Feder, L. and Miao, B. and
                   Salehi, Fatholah and Milchberg, Howard},
  journal =       {Physical Review Letters},
  month =         {06},
  pages =         {},
  title =         {Multi-MeV Electron Acceleration by Subterawatt Laser
                   Pulses},
  volume =        {115},
  year =          {2015},
  doiurl =        {10.1103/PhysRevLett.115.194802},
}

@article{Popov_2019,
  author =        {V S Popov and N E Andreev},
  journal =       {Quantum Electronics},
  month =         {apr},
  number =        {4},
  pages =         {307--313},
  publisher =     {{IOP} Publishing},
  title =         {Acceleration of electrons in the interaction of a
                   subterawatt laser pulse with a nonuniform plasma},
  volume =        {49},
  year =          {2019},
  abstract =      {We consider the effect of nonlinear self-focusing and
                   self-modulation processes on the acceleration of
                   electrons in the interaction of a subterawatt
                   femtosecond laser pulse with a gas jet plasma. A
                   three-dimensional particle-in-cell (3D PIC)
                   simulation of the interaction of laser radiation with
                   a low-density nonuniform plasma shows that laser
                   pulse self-focusing that arises when the critical
                   power of relativistic self-focusing determined by the
                   local concentration of plasma electrons exceeds the
                   pulse power results in efficient generation of a
                   plasma wave. Due to a decrease in the phase velocity
                   of the wake plasma wave generated via self-modulation
                   of the laser pulse, electrons are trapped into the
                   accelerating phase of the plasma wave and are
                   accelerated to energies of ∼10 MeV. It is
                   demonstrated that under the conditions for limiting
                   the electrons’ acceleration region by the length of
                   their dephasing, quasi-monoenergetic electron bunches
                   with a characteristic energy of ∼9 MeV can be
                   produced. The effective temperature of the
                   accelerated electrons and their angular distribution,
                   obtained by 3D PIC simulation, are in good agreement
                   with those determined in the experiment.},
  doiurl =        {10.1070/qel16992},
  url =           {https://doi.org/10.1070%2Fqel16992},
}

@article{Pukhov_1999_JoPP,
  author =        {Pukhov, A.},
  journal =       {Journal of Plasma Physics},
  number =        {3},
  pages =         {425–433},
  publisher =     {Cambridge University Press},
  title =         {Three-dimensional electromagnetic relativistic
                   particle-in-cell code VLPL (Virtual Laser Plasma
                   Lab)},
  volume =        {61},
  year =          {1999},
  doiurl =        {10.1017/S0022377899007515},
}

@article{Hansson_2015,
  author =        {Hansson, Martin and Aurand, Bastian and Davoine, X. and
                   Ekerfelt, H. and Svensson, K. and Persson, Anders and
                   Wahlström, Claes-Göran and Lundh, Olle},
  journal =       {Physical Review Special Topics --- Accelerators and
                   Beams},
  month =         {07},
  pages =         {},
  title =         {Down-ramp injection and independently controlled
                   acceleration of electrons in a tailored laser
                   wakefield accelerator},
  volume =        {18},
  year =          {2015},
  doiurl =        {10.1103/PhysRevSTAB.18.071303},
}