Professor Robert Bingham

Physics

Publications

Strong suppression of heat conduction in a laboratory replica of galaxy-cluster turbulent plasmas
Meinecke Jena, Tzeferacos Petros, Ross James S, Bott Archie F A, Feister Scott, Park Hye-Sook, Bell Anthony R, Blandford Roger, Berger Richard L, Bingham Robert, Casner Alexis, Chen Laura E, Foster John, Froula Dustin H, Goyon Clement, Kalantar Daniel, Koenig Michel, Lahmann Brandon, Li Chikang, Lu Yingchao, Palmer Charlotte A J, Petrasso Richard D, Poole Hannah, Remington Bruce, Reville Brian, Reyes Adam, Rigby Alexandra, Ryu Dongsu, Swadling George, Zylstra Alex, Miniati Francesco, Sarkar Subir, Schekochihin Alexander A, Lamb Donald Q, Gregori Gianluca
Science Advances Vol 8 (2022)
https://doi.org/10.1126/sciadv.abj6799
Observation and numerical modelling of ionospheric beat-wave Brillouin scattering at EISCAT
Eliassen B, Senior A, Rietveld M, Phelps ADR, Cairns RA, Ronald K, Speirs DC, Trines RMGM, McCrea I, Bamford R, Mendonca JT, Bingham R
2020 IEEE International Conference on Plasma Science 47th IEEE International Conference on Plasma Science IEEE International Conference on Plasma Science (ICOPS), pp. 411-411 (2022)
https://doi.org/10.1109/icops37625.2020.9717650
Light-shining-through-wall axion detection experiments with a stimulating laser
Beyer K A, Marocco G, Bingham R, Gregori G
Physical Review D Vol 105 (2022)
https://doi.org/10.1103/PhysRevD.105.035031
How to create an artificial magnetosphere for Mars
Bamford RA, Kellett BJ, Green JL, Dong C, Airapetian V, Bingham R
Acta Astronautica Vol 190, pp. 323-333 (2022)
https://doi.org/10.1016/j.actaastro.2021.09.023
Boosting the performance of Brillouin amplification at sub-quarter-critical densities via reduction of parasitic Raman scattering
Trines R M G M, Alves E P, Humphrey K A, Bingham R, Cairns R A, Fiúza F, Fonseca R A, Silva L O
Plasma Physics and Controlled Fusion Vol 63 (2021)
https://doi.org/10.1088/1361-6587/ac2cd9
Neutrino-electron magnetohydrodynamics in an expanding universe
Perrone L M, Gregori G, Reville B, Silva L O, Bingham R
Physical Review D Vol 104 (2021)
https://doi.org/10.1103/PhysRevD.104.123013

More publications

Professional activities

Ionospheric Beat-Wave Brillouin Scattering at EISCAT
Contributor
12/9/2021
International e-Conference on Recent Trends in Plasma Physics
Contributor
19/5/2021
Brillouin scattering during ionospheric beat wave heating: EISCAT observations and numerical modelling results
Contributor
28/1/2021
Laboratory modelling of plasma waves excitation and transformation to electromagnetic emission in a mirror-confined plasma
Contributor
28/1/2021
Observation and numerical modelling of ionospheric beat-wave Brillouin scattering at EISCAT
Contributor
6/12/2020

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Projects

Microwave emission due to kinetic instabilities in an overdense mirror-confined plasma (International Exchanges Cost Share 2018 - Russia)
Eliasson, Bengt (Principal Investigator) Bingham, Robert (Co-investigator) Phelps, Alan (Co-investigator) Ronald, Kevin (Co-investigator) Speirs, David (Co-investigator)
10-Jan-2018 - 09-Jan-2022
Parametric Wave Coupling and Non-Linear Mixing in Plasma
Ronald, Kevin (Principal Investigator) Bingham, Robert (Co-investigator) Eliasson, Bengt (Co-investigator) Phelps, Alan (Co-investigator) MacInnes, Philip (Research Co-investigator) Speirs, David (Researcher) Whyte, Colin (Researcher)
01-Jan-2017 - 31-Jan-2020
Particle acceleration in magnetised shocks produced by laser and pulsed power facilities
Bingham, Robert (Principal Investigator)
01-Jan-2016 - 31-Jan-2019
Proton-driven plasma wakefield acceleration - a new route to a TeV e+e-collider
Bingham, Robert (Principal Investigator)
01-Jan-2014 - 30-Jan-2015
Critical Mass: Collective radiation-beam-plasma interactions at high intensities
Jaroszynski, Dino (Principal Investigator) Bingham, Robert (Co-investigator) Boyd, Marie (Co-investigator) Ledingham, Kenneth (Co-investigator) McKenna, Paul (Co-investigator) Wiggins, Mark (Co-investigator)
This proposal describes a programme of research on single-particle and collective radiation-beam-plasma interactions at high field intensities, production of high-brightness particle beams with femtosecond to attosecond duration, new sources of coherent and incoherent radiation that are both compact and inexpensive, new methods of accelerating particles which could make them widely available and, by extending their parameter range, stimulate new application areas. An important adjunct to the proposal will be a programme to apply the sources to demonstrate their usefulness and also provide a way to involve industry and other end-users. The project builds on previous experiments and theoretical investigations of the Advanced Laser Plasma High-energy Accelerators towards X-rays (ALPHA-X) project, which has demonstrated controlled acceleration in a laser-plasma wakefield accelerator (LWFA), initial applications of beams from the LWFA and demonstrations of gamma ray production due to resonant betatron motion in the LWFA. The programme will have broad relevance, through developing an understanding of the highly nonlinear and collective physics of radiation-matter interactions, to fields ranging from astrophysics, fusion and nuclear physics, to the interaction of radiation with biological matter. It will also touch on several basic problems in physics, such as radiation reaction in plasma media and the development of coherence in nonlinear coupled systems.
19-Jan-2012 - 18-Jan-2016
Instabilities in non-thermal plasmas
Phelps, Alan (Principal Investigator) Bingham, Robert (Co-investigator) Ronald, Kevin (Co-investigator) Speirs, David (Research Co-investigator)
It is important to understand instabilities in plasmas since these play a crucial role in the behaviour of schemes for controlled nuclear fusion, the performance of devices for generating high power radiation and in phenomena taking place in the earth's magnetosphere, stars and more exotic astrophysical objects. In many cases these instabilities are generated by beams of high energy electrons, and the main objective of the present work is to study such beam driven instabilities in a laboratory experiment and support this study through detailed theoretical and computational analysis. This research builds on the foundation of our earlier work which concentrated on an instability of relevance to the onset of parasitic oscillations in powerful radiation sources, to auroral radio emissions and a variety of other astrophysical phenomena. Experimental results showed good agreement with the observations of auroral radiation and with theory. Now the range of the research is being significantly extended to an ambitious programme aimed at the study of a variety of instabilities driven by different distributions of energetic electrons in varying experimental geometries. This entails substantial modifications of the original experimental facility to introduce extra flexibility in the generation of the fast electrons, modifications to the magnetic field structure which guides them and the introduction of a background plasma. We will generate well-controlled plasmas in which the growth and eventual saturation of the unstable oscillations can be studied in detail. The results will be compared with computer simulations and with theoretical modelling with a view to checking their accuracy. We will investigate different aspects of these instabilities relevant to a range of applications including for example tokamaks. In these toroidal devices which confine plasmas are hoped to reach fusion conditions, schemes for radiofrequency driving of current produce an important population of electrons with a high velocity and energy. The stability of these populations and how they evolve in response to instabilities needs to be understood. In schemes for fusion involving laser compressed targets, beams of fast electrons moving into the central region of the target are very important and the understanding of their behaviour is largely based on computer simulation. The relation between simulation results and reality will be more easily seen in our large scale experiment. Generation of high power RF radiation, which has a wide range of applications ranging from RaDAR to medical treatment, largely depends on the instability of high power electron beams and the conversion of their energy into electromagnetic waves. Our work should give an enhanced understanding on some of these processes, in particular on the production of parasitic radiation from unintended instabilities. Finally, beams of high energy particles are very common in space and astrophysical plasmas, ranging from the earth's magnetosphere to pulsars and gamma ray bursters. The understanding of the basic physics of instabilities derived from this research will give confidence in the application of theoretical and numerical techniques to other real plasma environments, including Fusion experiments. The project brings together a team with extensive expertise in experimental beam plasma systems, together with wide experience in theory and computational modeling applied to magnetically confined plasma, laser produced plasma and space plasma. The experiment, designed to allow the investigation of a wide range of conditions and to isolate particular instabilities of direct importance to magnetic and inertial fusion schemes and high power radiation generation.
01-Jan-2009 - 31-Jan-2013

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