Wall cratering upon high velocity normal dust impact
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[1] R. Pitts,et al. Remobilized dust dynamics and inventory evolution in ITER-like start-up plasmas , 2022, Plasma Physics and Controlled Fusion.
[2] A. Bortolon,et al. Dust and powder in fusion plasmas: recent developments in theory, modeling, and experiments , 2022, Reviews of Modern Plasma Physics.
[3] B. Esposito,et al. Evidence for high-velocity solid dust generation induced by runaway electron impact in FTU , 2022, Nuclear Fusion.
[4] S. Ratynskaia,et al. Modelling of dust generation, transport and remobilization in full-metal fusion reactors , 2022, Plasma Physics and Controlled Fusion.
[5] G. Bonny,et al. Analysis of hypervelocity impacts: the tungsten case , 2021, Nuclear Fusion.
[6] David Veysset,et al. High-velocity micro-projectile impact testing , 2021 .
[7] R. Pitts,et al. The MEMOS-U code description of macroscopic melt dynamics in fusion devices , 2021 .
[8] J. Contributors,et al. Resolidification-controlled melt dynamics under fast transient tokamak plasma loads , 2020, Nuclear Fusion.
[9] M. Horányi,et al. The effect of high-velocity dust particle impacts on microchannel plate (MCP) detectors , 2020 .
[10] J. Holgate,et al. Spontaneous rapid rotation and breakup of metal droplets in tokamak edge plasmas , 2019, EPL (Europhysics Letters).
[11] E. Giovannozzi,et al. Pre-plasma remobilization of ferromagnetic dust in FTU and possible interference with tokamak operations , 2019, Nuclear Fusion.
[12] C. Silva,et al. Numerical simulation of the initial stage of unipolar arcing in fusion-relevant conditions , 2019, Plasma Physics and Controlled Fusion.
[13] K. Nelson,et al. Impact-bonding with aluminum, silver, and gold microparticles: Toward understanding the role of native oxide layer , 2019, Applied Surface Science.
[14] K. Nelson,et al. Melt-driven erosion in microparticle impact , 2018, Nature Communications.
[15] R. Pitts,et al. Survival and in-vessel redistribution of beryllium droplets after ITER disruptions , 2018 .
[16] K. Nelson,et al. In-situ observations of single micro-particle impact bonding , 2018 .
[17] M. D. Angeli,et al. Experimental validation of the analytical model for tungsten dust - wall mechanical impacts incorporated in the MIGRAINe dust dynamics code , 2017 .
[18] P. Tolias,et al. Analytical expressions for thermophysical properties of solid and liquid tungsten relevant for fusion applications , 2017, 1703.06302.
[19] S. Bozhenkov,et al. Fast camera observations of injected and intrinsic dust in TEXTOR , 2015 .
[20] G. Temmerman,et al. Highly resolved measurements of dust motion in the sheath boundary of magnetized plasmas , 2015 .
[21] A. Litnovsky,et al. Dust remobilization in fusion plasmas under steady state conditions , 2015, 1508.06156.
[22] G. Temmerman,et al. Elastic-plastic adhesive impacts of tungsten dust with metal surfaces in plasma environments , 2015 .
[23] S. Ratynskaia,et al. Dust–wall and dust–plasma interaction in the MIGRAINe code , 2014 .
[24] E. Lazzaro,et al. Migration of tungsten dust in tokamaks: role of dust–wall collisions , 2013 .
[25] R. Srama,et al. Measurements of freely-expanding plasma from hypervelocity impacts , 2012 .
[26] F. Hörz. Cratering and penetration experiments in aluminum and teflon: Implications for space‐exposed surfaces , 2012 .
[27] D. Benson,et al. Modeling of velocity distributions of dust in tokamak edge plasmas and dust–wall collisions , 2009 .
[28] Joachim Roth,et al. Recent analysis of key plasma wall interactions issues for ITER , 2009 .
[29] E. Giovannozzi,et al. In situ dust detection in fusion devices , 2008 .
[30] Tobias Schmidt,et al. Development of a generalized parameter window for cold spray deposition , 2006 .
[31] Martin Rein,et al. Cold spray deposition: Significance of particle impact phenomena , 2005 .
[32] C. H. Skinner,et al. Plasma{material interactions in current tokamaks and their implications for next step fusion reactors , 2001 .
[33] Raymond M. Brach,et al. Experiments and Engineering Models of Microparticle Impact and Deposition , 2000 .
[34] Colin Tudge,et al. Planet , 1999 .
[35] W. John. Particle-Surface Interactions: Charge Transfer, Energy Loss, Resuspension, and Deagglomeration , 1996 .
[36] Eberhard Grün,et al. The penetration limit of thin films , 1980 .
[37] G. Eichhorn. Primary velocity dependence of impact ejecta parameters , 1978 .
[38] G. Eichhorn. Analysis of the hypervelocity impact process from impact flash measurements , 1976 .
[39] Frank Schäfer,et al. Time-resolved Emission Spectroscopy of Impact Plasma , 2013 .
[40] Kevin R. Housen,et al. Ejecta from impact craters , 2011 .
[41] E. Giovannozzi,et al. Hypervelocity dust impacts in FTU scrape-off layer , 2008 .
[42] Michael J. Cole,et al. Hypervelocity impact studies using the 2 MV Van de Graaff accelerator and two-stage light gas gun of the University of Kent at Canterbury , 1999 .
[43] M. J. Drake,et al. The Moon , 1904, Nature.