Награждение проводится с 2000 года на конференции Европейского Физического Общества по физике плазмы (EPS Conference on Controlled Fusion and Plasma Physics)[2][3].
«for his theoretical research on plasma equilibrium and stability and his outstanding contribution to the physics of magnetically confined toroidal plasmas»
«for his seminal theoretical contributions since the earliest days of fusion research in virtually all aspects of fusion plasma sciences which now form the basis of modern plasma physics»
«for his seminal contributions in the area of non-ideal plasmas and strongly coupled Coulomb systems, and for his pioneering work on the generation and investigation of plasmas under extreme conditions»
«for their seminal contributions to a wide range of issues of fundamental importance to the success of magnetic confinement fusion, including: the development of gyro-kinetic theory; the prediction of the bootstrap current; dimensionless scaling laws; pressure-limiting instabilities, and micro-stability and transport theory»
«for their major contributions to the development of the multi-wire array in Z-pinch pulse-power physics; the x-ray yield was rapidly increased to the level of 2 MJ starting with pioneering work on the ‘Angara’ facilities in Russia, through the ‘Saturn’ project in the Sandia Laboratories to the present ‘Z’ device also in Sandia, strongly supported by the rapid evolution of the underlying theory of cylindrical wire-array liner compressio»
«for his pioneering contributions to many topics in magnetic confinement theory and in the design of tokamak devices, many of which are now implemented in the ITER design»
«for his many seminal works on Alfvén wave physics in both laboratory and space plasmas, for his continuing contribution of new ideas which have fostered creativity and promoted cross-fertilization in both these areas of research, and for his fundamental contributions in educating a new generation of researchers for which he is an example to emulate»
«for his seminal theoretical work in the fields of inertial confinement fusion (ICF), relativistic laser–plasma interaction and laser wakefield electron acceleration»
«for laying the foundations of modern numerical transport simulations and key contributions on self-generated zonal flows and flow shear decorrelation mechanisms which form the basis of modern turbulence in plasmas»
«for decisive results in the field of laser-produced plasma physics, in particular for illuminating descriptions of laser light absorption in plasmas, electron heat transport in steep temperature gradients and plasma expansion dynamics into vacuum»
«for his contributions to the understanding of plasma wave‐particle interactions and their applications to efficiently driving currents with radio‐frequency waves»
«for obtaining, for the first time, a macroscopically stable plasma column in a tokamak configuration; this led to the world-wide programme of experimental exploration and development of the tokamak concept for magnetic confinement fusion»
«for seminal contributions covering cosmic ray acceleration by shocks, magnetic field amplification by cosmic rays, flux limited electron transport, generation of magnetic field by laser‑produced energetic electrons, collimation of electron beams for inertial fusion, prolific production of electron‑positron pairs»
«for major contributions to the development of compact laser-plasma accelerators, and to their innovative applications to science and society, which span ultra-fast phenomena, accelerator physics, medicine, radiobiology, chemistry and material science»
Оригинальный текст (англ.)
«for seminal, broad, and novel contributions to plasma physics and plasma-based accelerator physics, including the concept of laser wakefield acceleration»
«for fundamental contributions to quantifying energy transfer in magneto-fluid turbulence. Annick Pouquet’s contributions, together with her colleagues, include predicting the inverse cascade of magnetic helicity, extending the accessible frontier of nonlinear numerical computations, and key steps forward in the analytical theory of turbulence. Her work has facilitated remarkable advances in the understanding of turbulence in astrophysical and space plasmas»
«for seminal contributions to the plasma physics of the scrape-off layer and divertor in magnetically confined fusion (MCF) experiments, including the physics of "blobs", divertor plasma detachment, and dust, together with atomic physics effects»
«for important contributions to the theory of the mesoscopic dynamics of magnetically confined fusion (MCF) plasmas: specifically, to understanding turbulence spreading, flux-driven gyrokinetic simulations, transport barriers, up-gradient transport and edge instabilities»
«for proposing, demonstrating and conducting impressive ground-breaking experiments on plasma wakefield accelerators driven by particle beams, thus firmly establishing the new concept of plasma acceleration and their applications in the scientific community»
«for outstanding contributions to theoretical plasma physics, yielding groundbreaking results that significantly impact the understanding and optimization of magnetically confined fusion plasmas»
↑Report from the EPS Plasma Physics Division: Prizes (неопр.) (PDF (48KB)). EPS Plasma Physics Division Annual Reports. European Physical Society (EPS) (июнь 2014). — «The 2014 Hannes Alfvén Prize is awarded to Patrick Mora (Centre de Physique Théorique, Palaiseau, FR) “for decisive results in the field of laser-produced plasma physics, in particular for illuminating descriptions of laser light absorption in plasmas, electron heat transport in steep temperature gradients and plasma expansion dynamics into vacuum”.» Дата обращения: 1 января 2017. Архивировано 4 марта 2016 года.
↑Report from the EPS Plasma Physics Division: Prizes (неопр.) (PDF (195KB)). EPS Plasma Physics Division Annual Reports. European Physical Society (EPS) (июнь 2015). — «The 2015 Hannes Alfvén Prize is awarded to Nathaniel Fisch (Princeton University, USA) “for fundamental studies of wave‐particle interactions, thereby predicting new plasma phenomena, including ways of driving currents efficiently with radio‐frequency waves”.» Дата обращения: 1 января 2017. Архивировано 4 марта 2016 года.
