Pierre Gourdain

Associate Professor

University of Rochester

United States

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About

Pierre Gourdain is an Associate Professor at the University of Rochester, USA. His research focuses on high-energy-density plasmas, particle acceleration, and phase transitions of magnetized warm dense matter. Recent articles include studies on the generation of strong fields, ponderomotive electron physics, and neural network reconstruction techniques in plasma physics.

Articles (21)

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2025

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2020

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2020

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2020

Collaborators (2)

W. Fox

UNITED STATES

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Adam Frank

Professor

UNITED STATES

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Pierre Gourdain

Research Interests

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About

Articles (21)

Generation of strong fields with subcritical density plasmas to study the phase transitions of magnetized warm dense matter

Particle acceleration during classical phase transitions on a spherical lattice

Particle acceleration during classical phase transitions on a spherical lattice

Ponderomotive electron physics captured in a single-fluid extended magnetohydrodynamics model

LASSIE: A Low Amperage System for Small Implosion Experiments

LASSIE: A Low Amperage System for Small Implosion Experiments

Faraday Rotation Measurements in High-Energy-Density Plasmas Using Shaped Laser Beams

Faraday Rotation Measurements in High-Energy-Density Plasmas Using Shaped Laser Beams

Neural Network Reconstruction of the Electron Density of High Energy Density Plasmas From Under-Resolved Interferograms

Neural Network Reconstruction of the Electron Density of High Energy Density Plasmas From Under-Resolved Interferograms

True optical spatial derivatives for direct phase gradient measurements

A FULLY IMPLICIT METHOD USING NODAL RADIAL BASIS FUNCTIONS TO SOLVE THE LINEAR ADVECTION EQUATION

True optical spatial derivatives for direct phase gradient measurements

Using extended MHD to explore lasers as a trigger for x-pinches

Coreless Fast Pulsed-Power Drivers

Fast electron transport dynamics and energy deposition in magnetized, imploded cylindrical plasma: Electron transport in magnetized plasmas

Coreless Fast Pulsed-Power Drivers

Characterization of an imploding cylindrical plasma for electron transport studies using x-ray emission spectroscopy

Current adding transmission lines for compact MA-class linear transformer drivers

Design of a 3-D printed experimental platform for studying the formation and magnetization of turbulent plasma jets

Scaling pulser output parameters for standard and dry brick configurations

Collaborators (2)

W. Fox

Adam Frank

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