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417 results on '"Vannini, F"'

1. Runaway electron beam formation, vertical motion, termination and wall loads in EU-DEMO

Author

Vannini, F., Bandaru, V., Bergstroem, H., Schwarz, N., Artola, F. J., Hoelzl, M., Pautasso, G., Nardon, E., Maviglia, F., Richiusa, M. L., Emanuelli, E., and team, the JOREK

Subjects
Physics - Plasma Physics
Abstract

Runaway electron loads onto material structures are a major concern for future large tokamaks due to the efficient avalanching at high plasma currents. Here, we perform predictive studies using the JOREK code for a plausible plasma configuration in the European DEMO fusion power plant with focus on a pessimistic scenario in which a multi mega-ampere runaway electron beam is formed. The work first comprises axisymmetric predictions of runaway electron beam formation in a mitigated scenario and of the simultaneous vertical motion of the beam due to loss of position control. The subsequent runaway electron beam termination triggered by a burst of MHD activity during the course of the vertical motion is then simulated in 3D with the runaway electron fluid self-consistently coupled to the MHD modes. Finally, the resulting deposition pattern of the runaway electrons onto wall structures is calculated with a relativistic test particle approach. This way, the suitability of a possible sacrificial limiter concept for the protection of first wall components is assessed.

Published
2024

2. Nonlinear interaction of Alfv\'enic instabilities and turbulence via the modification of the equilibrium profiles

Author

Biancalani, A., Bottino, A., Del Sarto, D., Falessi, M. V., Hayward-Schneider, T., Lauber, P., Mishchenko, A., Rettino, B., Sama, J. N., Vannini, F., Villard, L., Wang, X., and Zonca, F.

Subjects
Physics - Plasma Physics
Abstract

Nonlinear simulations of Alfv\'en modes (AM) driven by energetic particles (EP) in the presence of turbulence are performed with the gyrokinetic particle-in-cell code ORB5. The AMs carry a heat flux, and consequently they nonlinearly modify the plasma temperature profiles. The isolated effect of this modification on the dynamics of turbulence is studied, by means of electrostatic simulations. We find that turbulence is reduced when the profiles relaxed by the AM are used, with respect to the simulation where the unperturbed profiles are used. This is an example of indirect interaction of EPs and turbulence. First, an analytic magnetic equilibrium with circular concentric flux surfaces is considered as a simplified example for this study. Then, an application to an experimentally relevant case of ASDEX Upgrade is discussed.

Published
2023

3. How accurate are flux-tube (local) gyrokinetic codes in modeling energetic particle effects on core turbulence?

Author

Di Siena, A., Hayward-Schneider, T., Mantica, P., Citrin, J., Vannini, F., Bottino, A., Goerler, T., Poli, E., Bilato, R., Sauter, O., and Jenko, F.

Subjects
Physics - Plasma Physics
Abstract

Flux-tube gyrokinetic codes are widely used to simulate drift-wave turbulence in magnetic confinement devices. While a large number of studies show that flux-tube codes provide an excellent approximation for turbulent transport in medium-large devices, it still needs to be determined whether they are sufficient for modeling supra-thermal particle effects on core turbulence. This is called into question given the large temperature of energetic particles (EPs), which makes them hardly confined on a single flux-surface, but also due to the radially broad mode structure of energetic-particle-driven modes. The primary focus of this manuscript is to assess the range of validity of flux-tube codes in modeling fast ion effects by comparing radially global turbulence simulations with flux-tube results at different radial locations for realistic JET parameters using the gyrokinetic code GENE. To extend our study to a broad range of different plasma scenarios, this comparison is made for four different plasma regimes, which differ only by the profile of the ratio between the plasma kinetic and magnetic pressure. The latter is artificially rescaled to address the electrostatic limit and regimes with marginally stable, weakly unstable and strongly unstable fast ion modes. These energetic-particle-driven modes is identified as an AITG/KBAE via linear ORB5 and LIGKA simulations. It is found that the local flux-tube simulations can recover well the global results only in the electrostatic and marginally stable cases. When the AITG/KBAE becomes linearly unstable, the local approximation fails to correctly model the radially broad fast ion mode structure and the consequent global zonal patterns. According to this study, global turbulence simulations are likely required in regimes with linearly unstable AITG/KBAEs. In conditions with different fast ion-driven modes, these results might change.

Published
2023

4. Effect of temperature anisotropy on the dynamics of geodesic acoustic modes

Author

Sama, J. N., Biancalani, A., Bottino, A., Chavdarovski, I., Del Sarto, D., Ghizzo, A., Hayward-Schneider, T., Lauber, P., Rettino, B., and Vannini, F.

Subjects
Physics - Plasma Physics
Abstract

In this work, we revisit the linear gyro-kinetic theory of geodesic acoustic modes (GAMs) and derive a general dispersion relation for an arbitrary equilibrium distribution function of ions. A bi-Maxwellian distribution of ions is then used to study the effects of ion temperature anisotropy on GAM frequency and growth rate. We find that ion temperature anisotropy yields sensible modifications to both the GAM frequency and growth rate as both tend to increase with anisotropy and these results are strongly affected by the electron to ion temperature ratio.

Published
2022
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5. Gyrokinetic particle-in-cell simulations of electromagnetic turbulence in the presence of fast particles and global modes

Author

Mishchenko, A., Bottino, A., Hayward-Schneider, T., Poli, E., Wang, X., Kleiber, R., Borchardt, M., Nuehrenberg, C., Biancalani, A., Koenies, A., Lanti, E., Lauber, Ph., Hatzky, R., Vannini, F., Villard, L., and Widmer, F.

Subjects
Physics - Plasma Physics
Abstract

Global simulations of electromagnetic turbulence, collisionless tearing modes, and Alfven Eigenmodes in the presence of fast particles are carried out using the gyrokinetic particle-in-cell codes ORB5 (E. Lanti et al, Comp. Phys. Comm., ${\bf 251}$, 107072 (2020)) and EUTERPE (V. Kornilov et al, Phys. Plasmas, ${\bf 11}$, 3196 (2004)) in tokamak and stellarator geometries. Computational feasibility of simulating such complex coupled systems is demonstrated.

Published
2022
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6. Gyrokinetic investigation of the nonlinear interaction of Alfv\'en instabilities and energetic-particle driven geodesic acoustic modes

Author

Vannini, F., Biancalani, A., Bottino, A., Hayward-Schneider, T., Lauber, Ph., Mishchenko, A., Poli, E., Vlad, G., and team, the ASDEX Upgrade

Subjects
Physics - Plasma Physics
Abstract

This paper presents a study of the interaction between Alfv\'en modes and zonal structures, considering a realistic ASDEX Upgrade equilibrium. The results of gyrokinetic simulations with the global, electromagnetic, particle-in-cell code ORB5 are presented, where the modes are driven unstable by energetic particles with a bump-on-tail equilibrium distribution function, with radial density gradient. Two regimes have been observed: at low energetic particles concentration, the Alfv\'en mode saturates at much higher level in presence of zonal structures; on the other hand at high energetic particles concentration the difference is less pronounced. The former regime is characterized by the zonal structure (identified as an energetic particle driven geodesic acoustic mode), being more unstable than the Alfv\'en mode. In the latter regime the Alfv\'en mode is more unstable than the zonal structure. The theoretical explanation is given in terms of a 3-wave coupling of the energetic particle driven geodesic acoustic mode and Alfv\'en mode, mediated by the curvature-pressure coupling term of the energetic particles.

Published
2021
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7. Gyrokinetic investigation of Alfv\'en instabilities in the presence of turbulence

Author

Biancalani, A., Bottino, A., Di Siena, A., Gürcan, Ö., Hayward-Schneider, T., Jenko, F., Lauber, P., Mishchenko, A., Morel, P., Novikau, I., Vannini, F., Villard, L., and Zocco, A.

Subjects
Physics - Plasma Physics
Abstract

The nonlinear dynamics of beta-induced Alfv\'en Eigenmodes (BAE) driven by energetic particles (EP) in the presence of ion-temperature-gradient (ITG) turbulence is investigated, by means of selfconsistent global gyrokinetic simulations and analytical theory. A tokamak magnetic equilibrium with large aspect ratio and reversed shear is considered. A previous study of this configuration has shown that the electron species plays an important role in determining the nonlinear saturation level of a BAE in the absence of turbulence [A. Biancalani, et al., J. Plasma Phys. (2020)]. Here, we extend the study to a turbulent plasma. The EPs are found modify the heat fluxes by introducing energy at the large spatial scales, mainly at the toroidal mode number of the dominant BAE and its harmonics. In this regime, BAEs are found to carry a strong electron heat flux. The feed-back of the global relaxation of the temperature profiles induced by the BAE, and on the turbulence dynamics, is also discussed.

Published
2020

8. Effect of the electron redistribution on the nonlinear saturation of Alfv\'en eigenmodes and the excitation of zonal flows

Author

Biancalani, A., Bottino, A., Lauber, P., Mishchenko, A., and Vannini, F.

Subjects
Physics - Plasma Physics
Abstract

Numerical simulations of Alfv\'en modes (AM) driven by energetic particles are performed with the GK global PIC code ORB5. A reversed shear equilibrium magnetic field is adopted. A simplified configuration with circular flux surfaces and large aspect ratio is considered. The nonlinear saturation of beta-induced Alfv\'en eigenmodes (BAE) is investigated. The roles of the wave-particle nonlinearity of the different species, i.e. thermal ions, electrons, and energetic ions are described, in particular for their role in the saturation of the BAE and the generation of zonal flows. The nonlinear redistribution of the electron population is found to be important in increasing the BAE saturation level and the zonal flow amplitude.

Published
2019

9. Gyrokinetic investigation of the damping channels of Alfv\'en modes in ASDEX Upgrade

Author

Vannini, F., Biancalani, A., Bottino, A., Hayward-Schneider, T., Lauber, Ph., Mishchenko, A., Novikau, I., Poli, E., and team, the ASDEX Upgrade

Subjects
Physics - Plasma Physics
Abstract

The linear destabilization and nonlinear saturation of energetic-particle driven Alfv\'enic instabilities in tokamaks strongly depend on the damping channels. In this work, the collisionless damping mechanisms of Alfv\'enic modes are investigated within a gyrokinetic framework, by means of global simulations with the particle-in-cell code ORB5, and compared with the eigenvalue code LIGKA and reduced models. In particular, the continuum damping and the Landau damping (of ions and electrons) are considered. The electron Landau damping is found to be dominant on the ion Landau damping for experimentally relevant cases. As an application, the linear and nonlinear dynamics of toroidicity induced Alfv\'en eigenmodes and energetic-particle driven modes in ASDEX Upgrade is investigated theoretically and compared with experimental measurements.

Published
2019

10. Ion temperature gradient mode mitigation by energetic particles, mediated by forced-driven zonal flows.

Author

Sama, J. N., Biancalani, A., Bottino, A., Del Sarto, D., Dumont, R. J., Di Giannatale, G., Ghizzo, A., Hayward-Schneider, T., Lauber, Ph., McMillan, B., Mishchenko, A., Muruggapan, M., Rettino, B., Rofman, B., Vannini, F., Villard, L., and Wang, X.

Abstract

In this work, we use the global electromagnetic and electrostatic gyro kinetic approaches to investigate the effects of zonal flows forced-driven by Alfvén modes due to their excitation by energetic particles on the dynamics of ITG (ion temperature gradient) instabilities. The equilibrium of the 92416 JET tokamak shot is considered. The linear, nonlinear Alfvén modes, and the zonal flow dynamics are investigated, and their respective radial structures and saturation levels are reported. ITG dynamics in the presence of the zonal flows excited by these Alfvén modes are also investigated. The zonal flows forced-driven by Alfvén modes can significantly impact the ITG dynamics. A zonal flow amplitude scan reveals the existence of an inverse relation between the zonal flow amplitude and the ITG growth rate. These results indicate that forced-driven zonal flows can be an important indirect part of turbulence mitigation due to the injection of energetic particles. [ABSTRACT FROM AUTHOR]

Published
2024
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11. Ankle Alignment Procedures

Author

Vannini, F., Mazzotti, A., Panciera, A., Bulzacki Bogucki, B. D., Giannini, S., Faldini, C., Canata, Gian Luigi, editor, d'Hooghe, Pieter, editor, Hunt, Kenneth J., editor, Kerkhoffs, Gino M.M.J., editor, and Longo, Umile Giuseppe, editor

Published
2019
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14. Numerical tools for burning plasmas

Author

Mishchenko, A, primary, Biancalani, A, additional, Borchardt, M, additional, Bottino, A, additional, Briguglio, S, additional, Dumont, R, additional, Ferreira, J, additional, Graves, J P, additional, Hayward-Schneider, T, additional, Kleiber, R, additional, Könies, A, additional, Lanti, E, additional, Lauber, Ph, additional, Leyh, H, additional, Lu, Z X, additional, Lütjens, H, additional, McMillan, B, additional, Campos Pinto, M, additional, Poli, E, additional, Rettino, B, additional, Rofman, B, additional, Sama, J N, additional, Slaby, C, additional, Vannini, F, additional, Villard, L, additional, Vlad, G, additional, Wang, X, additional, Widmer, F, additional, and Zonca, F, additional

Published
2023
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24. Gyrokinetic particle-in-cell simulations of electromagnetic turbulence in the presence of fast particles and global modes

Author

Mishchenko, A, primary, Bottino, A, additional, Hayward-Schneider, T, additional, Poli, E, additional, Wang, X, additional, Kleiber, R, additional, Borchardt, M, additional, Nührenberg, C, additional, Biancalani, A, additional, Könies, A, additional, Lanti, E, additional, Lauber, Ph, additional, Hatzky, R, additional, Vannini, F, additional, Villard, L, additional, and Widmer, F, additional

Published
2022
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27. Global electromagnetic gyrokinetic simulations of Energetic Particle driven instabilities in ITER

Author

Hayward-Schneider, T., https://orcid.org/0000-0003-0588-5090, Rettino, B., https://orcid.org/0000-0002-1517-1932, Bottino, A., https://orcid.org/0000-0002-0514-8851, Lauber, P., Weiland, M., Vannini, F., https://orcid.org/0000-0002-0103-0362, Biancalani, A., https://orcid.org/0000-0002-7227-6343, Hatzky, R., https://orcid.org/0000-0003-4616-9568, Lu, Z., McMillan, B., Mishchenko, A., https://orcid.org/0000-0003-1436-4502, Villard, L., Wang, X., and https://orcid.org/0000-0002-3756-1771

Published
2022

29. Gyrokinetic modelling of anisotropic energetic particle driven instabilities in tokamak plasmas

Author

Rettino, B., https://orcid.org/0000-0002-1517-1932, Hayward-Schneider, T., https://orcid.org/0000-0003-0588-5090, Biancalani, A., https://orcid.org/0000-0002-7227-6343, Bottino, A., https://orcid.org/0000-0002-0514-8851, Lauber, P., Chavdarovski, I., Weiland, M., Vannini, F., https://orcid.org/0000-0002-0103-0362, Jenko, F., and https://orcid.org/0000-0001-6686-1469

Published
2022

32. Progress from ASDEX Upgrade experiments in preparing the physics basis of ITER operation and DEMO scenario development

Author

Stroth, U., primary, Aguiam, D., additional, Alessi, E., additional, Angioni, C., additional, Arden, N., additional, Parra, R. Arredondo, additional, Artigues, V., additional, Asunta, O., additional, Balden, M., additional, Bandaru, V., additional, Banon-Navarro, A., additional, Behler, K., additional, Bergmann, A., additional, Bergmann, M., additional, Bernardo, J., additional, Bernert, M., additional, Biancalani, A., additional, Bielajew, R., additional, Bilato, R., additional, Birkenmeier, G., additional, Blanken, T., additional, Bobkov, V., additional, Bock, A., additional, Body, T., additional, Bolzonella, T., additional, Bonanomi, N., additional, Bortolon, A., additional, Böswirth, B., additional, Bottereau, C., additional, Bottino, A., additional, van den Brand, H., additional, Brenzke, M., additional, Brezinsek, S., additional, Brida, D., additional, Brochard, F., additional, Bruhn, C., additional, Buchanan, J., additional, Buhler, A., additional, Burckhart, A., additional, Camenen, Y., additional, Cannas, B., additional, Megias, P. Cano, additional, Carlton, D., additional, Carr, M., additional, Carvalho, P., additional, Castaldo, C., additional, Cavedon, M., additional, Cazzaniga, C., additional, Challis, C., additional, Chankin, A., additional, Cianfarani, C., additional, Clairet, F., additional, Coda, S., additional, Coelho, R., additional, Coenen, J.W., additional, Colas, L., additional, Conway, G., additional, Costea, S., additional, Coster, D., additional, Cote, T., additional, Creely, A.J., additional, Croci, G., additional, Zabala, D.J. Cruz, additional, Cseh, G., additional, Czarnecka, A., additional, Cziegler, I., additional, D’Arcangelo, O., additional, Molin, A. Dal, additional, David, P., additional, Day, C., additional, de Baar, M., additional, de Marné, P., additional, Delogu, R., additional, Denk, S., additional, Denner, P., additional, Di Siena, A., additional, Palacios Durán, J.J. Dominguez, additional, Dunai, D., additional, Drenik, A., additional, Dreval, M., additional, Drube, R., additional, Dunne, M., additional, Duval, B.P., additional, Dux, R., additional, Eich, T., additional, Elgeti, S., additional, Encheva, A., additional, Engelhardt, K., additional, Erdös, B., additional, Erofeev, I., additional, Esposito, B., additional, Fable, E., additional, Faitsch, M., additional, Fantz, U., additional, Farnik, M., additional, Faugel, H., additional, Felici, F., additional, Ficker, O., additional, Fietz, S., additional, Figueredo, A., additional, Fischer, R., additional, Ford, O., additional, Frassinetti, L., additional, Fröschle, M., additional, Fuchert, G., additional, Fuchs, J.C., additional, Fünfgelder, H., additional, Futatani, S., additional, Galazka, K., additional, Galdon-Quiroga, J., additional, Escolà, D. Gallart, additional, Gallo, A., additional, Gao, Y., additional, Garavaglia, S., additional, Muñoz, M. Garcia, additional, Geiger, B., additional, Giannone, L., additional, Gibson, S., additional, Gil, L., additional, Giovannozzi, E., additional, Glöggler, S., additional, Gobbin, M., additional, Martin, J. Gonzalez, additional, Goodman, T., additional, Gorini, G., additional, Görler, T., additional, Gradic, D., additional, Granucci, G., additional, Gräter, A., additional, Greuner, H., additional, Griener, M., additional, Groth, M., additional, Gude, A., additional, Guimarais, L., additional, Günter, S., additional, Haas, G., additional, Hakola, A.H., additional, Ham, C., additional, Happel, T., additional, den Harder, N., additional, Harrer, G., additional, Harrison, J., additional, Hauer, V., additional, Hayward-Schneider, T., additional, Heinemann, B., additional, Hellsten, T., additional, Henderson, S., additional, Hennequin, P., additional, Herrmann, A., additional, Heyn, E., additional, Hitzler, F., additional, Hobirk, J., additional, Höfler, K., additional, Holm, J.H., additional, Hölzl, M., additional, Hopf, C., additional, Horvath, L., additional, Höschen, T., additional, Houben, A., additional, Hubbard, A., additional, Huber, A., additional, Hunger, K., additional, Igochine, V., additional, Iliasova, M., additional, Ilkei, T., additional, Björk, K. Insulander, additional, Ionita-Schrittwieser, C., additional, Ivanova-Stanik, I., additional, Jacob, W., additional, Jaksic, N., additional, Janky, F., additional, Jansen van Vuuren, A., additional, Jardin, A., additional, Jaulmes, F., additional, Jenko, F., additional, Jensen, T., additional, Joffrin, E., additional, Kallenbach, A., additional, Kálvin, S., additional, Kantor, M., additional, Kappatou, A., additional, Kardaun, O., additional, Karhunen, J., additional, Käsemann, C.-P., additional, Kasilov, S., additional, Kendl, A., additional, Kernbichler, W., additional, Khilkevitch, E., additional, Kirk, A., additional, Hansen, S. Kjer, additional, Klevarova, V., additional, Kocsis, G., additional, Koleva, M., additional, Komm, M., additional, Kong, M., additional, Krämer-Flecken, A., additional, Krieger, K., additional, Krivska, A., additional, Kudlacek, O., additional, Kurki-Suonio, T., additional, Kurzan, B., additional, Labit, B., additional, Lackner, K., additional, Laggner, F., additional, Lahtinen, A., additional, Lang, P.T., additional, Lauber, P., additional, Leuthold, N., additional, Li, L., additional, Likonen, J., additional, Linder, O., additional, Lipschultz, B., additional, Liu, Y., additional, Lohs, A., additional, Lu, Z., additional, Luda di Cortemiglia, T., additional, Luhmann, N.C., additional, Lunt, T., additional, Lyssoivan, A., additional, Maceina, T., additional, Madsen, J., additional, Magnanimo, A., additional, Maier, H., additional, Mailloux, J., additional, Maingi, R., additional, Maj, O., additional, Maljaars, E., additional, Manas, P., additional, Mancini, A., additional, Manhard, A., additional, Mantica, P., additional, Mantsinen, M., additional, Manz, P., additional, Maraschek, M., additional, Marchetto, C., additional, Marrelli, L., additional, Martin, P., additional, Martitsch, A., additional, Matos, F., additional, Mayer, M., additional, Mayoral, M.-L., additional, Mazon, D., additional, McCarthy, P.J., additional, McDermott, R., additional, Merkel, R., additional, Merle, A., additional, Meshcheriakov, D., additional, Meyer, H., additional, Milanesio, D., additional, Cabrera, P. Molina, additional, Monaco, F., additional, Muraca, M., additional, Nabais, F., additional, Naulin, V., additional, Nazikian, R., additional, Nem, R.D., additional, Nemes-Czopf, A., additional, Neu, G., additional, Neu, R., additional, Nielsen, A.H., additional, Nielsen, S.K., additional, Nishizawa, T., additional, Nocente, M., additional, Noterdaeme, J.-M., additional, Novikau, I., additional, Nowak, S., additional, Oberkofler, M., additional, Ochoukov, R., additional, Olsen, J., additional, Orain, F., additional, Palermo, F., additional, Pan, O., additional, Papp, G., additional, Perez, I. Paradela, additional, Pau, A., additional, Pautasso, G., additional, Paz-Soldan, C., additional, Petersson, P., additional, Piovesan, P., additional, Piron, C., additional, Plank, U., additional, Plaum, B., additional, Plöck, B., additional, Plyusnin, V., additional, Pokol, G., additional, Poli, E., additional, Porte, L., additional, Pütterich, T., additional, Ramisch, M., additional, Rasmussen, J., additional, Ratta, G., additional, Ratynskaia, S., additional, Raupp, G., additional, Réfy, D., additional, Reich, M., additional, Reimold, F., additional, Reiser, D., additional, Reisner, M., additional, Reiter, D., additional, Ribeiro, T., additional, Riedl, R., additional, Riesch, J., additional, Rittich, D., additional, Rodriguez, J.F. Rivero, additional, Rocchi, G., additional, Rodriguez-Fernandez, P., additional, Rodriguez-Ramos, M., additional, Rohde, V., additional, Ronchi, G., additional, Ross, A., additional, Rott, M., additional, Rubel, M., additional, Ryan, D.A., additional, Ryter, F., additional, Saarelma, S., additional, Salewski, M., additional, Salmi, A., additional, Samoylov, O., additional, Sanchez, L. Sanchis, additional, Santos, J., additional, Sauter, O., additional, Schall, G., additional, Schlüter, K., additional, Schmid, K., additional, Schmitz, O., additional, Schneider, P.A., additional, Schrittwieser, R., additional, Schubert, M., additional, Schuster, C., additional, Schwarz-Selinger, T., additional, Schweinzer, J., additional, Seliunin, E., additional, Shabbir, A., additional, Shalpegin, A., additional, Sharapov, S., additional, Sheikh, U., additional, Shevelev, A., additional, Sias, G., additional, Siccinio, M., additional, Sieglin, B., additional, Sigalov, A., additional, Silva, A., additional, Silva, C., additional, Silvagni, D., additional, Simpson, J., additional, Sipilä, S., additional, Smigelskis, E., additional, Snicker, A., additional, Solano, E., additional, Sommariva, C., additional, Sozzi, C., additional, Spizzo, G., additional, Spolaore, M., additional, Stegmeir, A., additional, Stejner, M., additional, Stober, J., additional, Strumberge, E., additional, Lopez, G. Suarez, additional, Sun, H.-J., additional, Suttrop, W., additional, Sytova, E., additional, Szepesi, T., additional, Tál, B., additional, Tala, T., additional, Tardini, G., additional, Tardocchi, M., additional, Terranova, D., additional, Teschke, M., additional, Thorén, E., additional, Tierens, W., additional, Told, D., additional, Treutterer, W., additional, Trevisan, G., additional, Trier, E., additional, Tripský, M., additional, Usoltceva, M., additional, Valisa, M., additional, Valovic, M., additional, van Zeeland, M., additional, Vannini, F., additional, Vanovac, B., additional, Varela, P., additional, Varoutis, S., additional, Vianello, N., additional, Vicente, J., additional, Verdoolaege, G., additional, Vierle, T., additional, Viezzer, E., additional, Voitsekhovitch, I., additional, von Toussaint, U., additional, Wagner, D., additional, Wang, X., additional, Weiland, M., additional, White, A.E., additional, Willensdorfer, M., additional, Wiringer, B., additional, Wischmeier, M., additional, Wolf, R., additional, Wolfrum, E., additional, Yang, Q., additional, Yu, Q., additional, Zagórski, R., additional, Zammuto, I., additional, Zehetbauer, T., additional, Zhang, W., additional, Zholobenko, W., additional, Zilker, M., additional, Zito, A., additional, Zohm, H., additional, Zoletnik, S., additional, and EUROfusion MST1 Team, the, additional

Published
2022
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33. A linear benchmark between HYMAGYC, MEGA and ORB5 codes using the NLED-AUG test case to study Alfvénic modes driven by energetic particles

Author

Vlad, G., primary, Wang, X., additional, Vannini, F., additional, Briguglio, S., additional, Carlevaro, N., additional, Falessi, M. V., additional, Fogaccia, G., additional, Fusco, V., additional, Zonca, F., additional, Biancalani, A., additional, Bottino, A., additional, Hayward-Schneider, T., additional, and Lauber, Ph., additional

Published
2021
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50. Microzonazione sismica di livello 3: il caso del centro abitato di Fivizzano (MS)

Author

Baglione, M, D’Intinosante, V, Fabbroni, P, Nistri, L, Vannini, F, D'Amato Avanzi, G, Puccinelli, A, Naso, G, Cavuoto, G, Di Fiore, V, Pelosi, N, Punzo, M, Tarallo, D, Moscatelli, M, Simionato, M, Pileggi, D, Avalle, A, Pagliaroli, A, Vessia, G, Piscitelli, S, Perrone, A, Bellanova, J, Calamita, G, Ginesi, G, Bramerini, F, Castenetto, Galli, P, Pallone, F, and Albarello, D

Subjects
Microzonazione sismica, rischio sismico, terremoto, Garfagnana e Lunigiana (LU e MS), rischio sismico, terremoto, Microzonazione sismica, Garfagnana e Lunigiana (LU e MS)
Published
2019

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