We present a direct measurement of the quenching of nonlocal heat transport in a laser produced plasma by high external magnetic fields. Temporally resolved measurements of the electron temperature profile transverse to a high power laser beam were obtained using imaging Thomson scattering. The results are simulated with the 2D hydrodynamic code LASNEX with a recently included magnetic field model that self-consistently evolves the fields in the plasma
We present nanosecond time-scale Vlasov-Fokker-Planck-Maxwell modeling of magnetized plasma transpor...
In indirect-drive inertial-fusion experiments, a hohlraum converts laser energy into X-rays that hea...
Correct modeling of the electron-energy transport is essential for inertial confinement fusion targe...
Thesis (Ph. D.)--University of Rochester. Department of Mechanical Engineering, 2018.Thermal transpo...
We present the observation of a nonlocal heat wave by measuring spatially and temporally resolved el...
One of the important and interesting problems in astrophysics and plasma physics is collimation of p...
Thomson scattering has been shown to be a valuable technique for measuring the plasma conditions in ...
Magnetic fields, spontaneously generated around laser heating nonuniformities, have been found to in...
Thomson scattering measurements of the electron temperature in laser- produced gold plasmas are pres...
We present the first direct measurements of spatially and temporally resolved temperature and densit...
The first Vlasov-Fokker-Planck simulations of nanosecond laser-plasma interactions – including the ...
The effects of magnetic fields on long-pulse (nanosecond) laser-plasma interactions have been a subj...
In the framework of the inertial confinement fusion, a pellet filled with the deuterium-tritium fuel...
We have applied ultraviolet Thomson scattering to accurately measure the electron and ion temperatur...
Irradiation nonuniformity is a major source of degrading target performance at ongoing spherical- di...
We present nanosecond time-scale Vlasov-Fokker-Planck-Maxwell modeling of magnetized plasma transpor...
In indirect-drive inertial-fusion experiments, a hohlraum converts laser energy into X-rays that hea...
Correct modeling of the electron-energy transport is essential for inertial confinement fusion targe...
Thesis (Ph. D.)--University of Rochester. Department of Mechanical Engineering, 2018.Thermal transpo...
We present the observation of a nonlocal heat wave by measuring spatially and temporally resolved el...
One of the important and interesting problems in astrophysics and plasma physics is collimation of p...
Thomson scattering has been shown to be a valuable technique for measuring the plasma conditions in ...
Magnetic fields, spontaneously generated around laser heating nonuniformities, have been found to in...
Thomson scattering measurements of the electron temperature in laser- produced gold plasmas are pres...
We present the first direct measurements of spatially and temporally resolved temperature and densit...
The first Vlasov-Fokker-Planck simulations of nanosecond laser-plasma interactions – including the ...
The effects of magnetic fields on long-pulse (nanosecond) laser-plasma interactions have been a subj...
In the framework of the inertial confinement fusion, a pellet filled with the deuterium-tritium fuel...
We have applied ultraviolet Thomson scattering to accurately measure the electron and ion temperatur...
Irradiation nonuniformity is a major source of degrading target performance at ongoing spherical- di...
We present nanosecond time-scale Vlasov-Fokker-Planck-Maxwell modeling of magnetized plasma transpor...
In indirect-drive inertial-fusion experiments, a hohlraum converts laser energy into X-rays that hea...
Correct modeling of the electron-energy transport is essential for inertial confinement fusion targe...