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429 results on '"Zylstra, A. B."'

1. The impact of low-mode symmetry on inertial fusion energy output in the burning plasma state

Author

Ralph, J. E., Ross, J. S., Zylstra, A. B., Kritcher, A. L., Robey, H. F., Young, C. V., Hurricane, O. A., Pak, A., Callahan, D. A., Baker, K. L., Casey, D. T., Döppner, T., Divol, L., Hohenberger, M., Pape, S. Le, Patel, P. K., Tommasini, R., Ali, S. J., Amendt, P. A., Atherton, L. J., Bachmann, B., Bailey, D., Benedetti, L. R., Berzak Hopkins, L., Betti, R., Bhandarkar, S. D., Biener, J., Bionta, R. M., Birge, N. W., Bond, E. J., Bradley, D. K., Braun, T., Briggs, T. M., Bruhn, M. W., Celliers, P. M., Chang, B., Chapman, T., Chen, H., Choate, C., Christopherson, A. R., Clark, D. S., Crippen, J. W., Dewald, E. L., Dittrich, T. R., Edwards, M. J., Farmer, W. A., Field, J. E., Fittinghoff, D., Frenje, J., Gaffney, J., Gatu Johnson, M., Glenzer, S. H., Grim, G. P., Haan, S., Hahn, K. D., Hall, G. N., Hammel, B. A., Harte, J., Hartouni, E., Heebner, J. E., Hernandez, V. J., Herrmann, H. W., Herrmann, M. C., Hinkel, D. E., Ho, D. D., Holder, J. P., Hsing, W. W., Huang, H., Humbird, K. D., Izumi, N., Jarrott, L. C., Jeet, J., Jones, O., Kerbel, G. D., Kerr, S. M., Khan, S. F., Kilkenny, J., Kim, Y., Geppert-Kleinrath, H., Geppert-Kleinrath, V., Kong, C., Koning, J. M., Kroll, J. J., Kruse, M. K. G., Kustowski, B., Landen, O. L., Langer, S., Larson, D., Lemos, N. C., Lindl, J. D., Ma, T., MacDonald, M. J., MacGowan, B. J., Mackinnon, A. J., MacLaren, S. A., MacPhee, A. G., Marinak, M. M., Mariscal, D. A., Marley, E. V., Masse, L., Meaney, K. D., Meezan, N. B., Michel, P. A., Millot, M., Milovich, J. L., Moody, J. D., Moore, A. S., Morton, J. W., Murphy, T. J., Newman, K., Di Nicola, J.-M. G., Nikroo, A., Nora, R., Patel, M. V., Pelz, L. J., Peterson, J. L., Ping, Y., Pollock, B. B., Ratledge, M., Rice, N. G., Rinderknecht, H. G., Rosen, M., Rubery, M. S., Salmonson, J. D., Sater, J., Schiaffino, S., Schlossberg, D. J., Schneider, M. B., Schroeder, C. R., Scott, H. A., Sepke, S. M., Sequoia, K., Sherlock, M. W., Shin, S., Smalyuk, V. A., Spears, B. K., Springer, P. T., Stadermann, M., Stoupin, S., Strozzi, D. J., Suter, L. J., Thomas, C. A., Town, R. P. J., Trosseille, C., Tubman, E. R., Volegov, P. L., Weber, C. R., Widmann, K., Wild, C., Wilde, C. H., Van Wonterghem, B. M., Woods, D. T., Woodworth, B. N., Yamaguchi, M., Yang, S. T., and Zimmerman, G. B.

Published
2024
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2. Experiments conducted in the burning plasma regime with inertial fusion implosions

Author

Ross, J. S., Ralph, J. E., Zylstra, A. B., Kritcher, A. L., Robey, H. F., Young, C. V., Hurricane, O. A., Callahan, D. A., Baker, K. L., Casey, D. T., Doeppner, T., Divol, L., Hohenberger, M., Pape, S. Le, Pak, A., Patel, P. K., Tommasini, R., Ali, S. J., Amendt, P. A., Atherton, L. J., Bachmann, B., Bailey, D., Benedetti, L. R., Hopkins, L. Berzak, Betti, R., Bhandarkar, S. D., Bionta, R. M., Birge, N. W., Bond, E. J., Bradley, D. K., Braun, T., Briggs, T. M., Bruhn, M. W., Celliers, P. M., Chang, B., Chapman, T., Chen, H., Choate, C., Christopherson, A. R., Clark, D. S., Crippen, J. W., Dewald, E. L., Dittrich, T. R., Edwards, M. J., Farmer, W. A., Field, J. E., Fittinghoff, D., Frenje, J., Gaffney, J., Johnson, M. Gatu, Glenzer, S. H., Grim, G. P., Haan, S., Hahn, K. D., Hall, G. N., Hammel, B. A., Harte, J., Hartouni, E., Heebner, J. E., Hernandez, V. J., Herrmann, H., Herrmann, M. C., Hinkel, D. E., Ho, D. D., Holder, J. P., Hsing, W. W., Huang, H., Humbird, K. D., Izumi, N., Jarrott, L. C., Jeet, J., Jones, O., Kerbel, G. D., Kerr, S. M., Khan, S. F., Kilkenny, J., Kim, Y., Kleinrath, H. Geppert, Kleinrath, V. Geppert, Kong, C., Koning, J. M., Kroll, J. J., Landen, O. L., Langer, S., Larson, D., Lemos, N. C., Lindl, J. D., Ma, T., MacDonald, M. J., MacGowan, B. J., Mackinnon, A. J., MacLaren, S. A., MacPhee, A. G., Marinak, M. M., Mariscal, D. A., Marley, E. V., Masse, L., Meaney, K., Meezan, N. B., Michel, P. A., Millot, M., Milovich, J. L., Moody, J. D., Moore, A. S., Morton, J. W., Murphy, T., Newman, K., Di Nicola, J. -M. G., Nikroo, A., Nora, R., Patel, M. V., Pelz, L. J., Peterson, J. L., Ping, Y., Pollock, B. B., Ratledge, M., Rice, N. G., Rinderknecht, H., Rosen, M., Rubery, M. S., Salmonson, J. D., Sater, J., Schiaffino, S., Schlossberg, D. J., Schneider, M. B., Schroeder, C. R., Scott, H. A., Sepke, S. M., Sequoia, K., Sherlock, M. W., Shin, S., Smalyuk, V. A., Spears, B. K., Springer, P. T., Stadermann, M., Stoupin, S., Strozzi, D. J., Suter, L. J., Thomas, C. A., Town, R. P. J., Tubman, E. R., Volegov, P. L., Weber, C. R., Widmann, K., Wild, C., Wilde, C. H., Van Wonterghem, B. M., Woods, D. T., Woodworth, B. N., Yamaguchi, M., Yang, S. T., and Zimmerman, G. B.

Subjects
Physics - Plasma Physics, High Energy Physics - Experiment
Abstract

An experimental program is currently underway at the National Ignition Facility (NIF) to compress deuterium and tritium (DT) fuel to densities and temperatures sufficient to achieve fusion and energy gain. The primary approach being investigated is indirect drive inertial confinement fusion (ICF), where a high-Z radiation cavity (a hohlraum) is heated by lasers, converting the incident energy into x-ray radiation which in turn drives the DT fuel filled capsule causing it to implode. Previous experiments reported DT fuel gain exceeding unity [O.A. Hurricane et al., Nature 506, 343 (2014)] and then exceeding the kinetic energy of the imploding fuel [S. Le Pape et al., Phys. Rev. Lett. 120, 245003 (2018)]. We report on recent experiments that have achieved record fusion neutron yields on NIF, greater than 100 kJ with momentary fusion powers exceeding 1PW, and have for the first time entered the burning plasma regime where fusion alpha-heating of the fuel exceeds the energy delivered to the fuel via compression. This was accomplished by increasing the size of the high-density carbon (HDC) capsule, increasing energy coupling, while controlling symmetry and implosion design parameters. Two tactics were successful in controlling the radiation flux symmetry and therefore the implosion symmetry: transferring energy between laser cones via plasma waves, and changing the shape of the hohlraum. In conducting these experiments, we controlled for known sources of degradation. Herein we show how these experiments were performed to produce record performance, and demonstrate the data fidelity leading us to conclude that these shots have entered the burning plasma regime.

Published
2021

3. Review of the First Charged-Particle Transport Coefficient Comparison Workshop

Author

Grabowski, P. E., Hansen, S. B., Murillo, M. S., Stanton, L. G., Graziani, F. R., Zylstra, A. B., Baalrud, S. D., Arnault, P., Baczewski, A. D., Benedict, L. X., Blancard, C., Certik, O., Clerouin, J., Collins, L. A., Copeland, S., Correa, A. A., Dai, J., Daligault, J., Desjarlais, M. P., Dharma-wardana, M. W. C., Faussurier, G., Haack, J., Haxhimali, T., Hayes-Sterbenz, A., Hou, Y., Hu, S. X., Jensen, D., Jungman, G., Kagan, G., Kang, D., Kress, J. D., Ma, Q., Marciante, M., Meyer, E., Rudd, R. E., Saumon, D., Shulenburger, L., Singleton Jr., R. L., Sjostrom, T., Stanek, L. J., Starrett, C. E., Ticknor, C., Valaitis, S., Venzke, J., and White, A.

Subjects
Physics - Plasma Physics
Abstract

We present the results of the first Charged-Particle Transport Coefficient Code Comparison Workshop, which was held in Albuquerque, NM October 4-6, 2016. In this first workshop, scientists from eight institutions and four countries gathered to compare calculations of transport coefficients including thermal and electrical conduction, electron-ion coupling, inter-ion diffusion, ion viscosity, and charged particle stopping powers. Here, we give general background on Coulomb coupling and computational expense, review where some transport coefficients appear in hydrodynamic equations, and present the submitted data. Large variations are found when either the relevant Coulomb coupling parameter is large or computational expense causes difficulties. Understanding the general accuracy and uncertainty associated with such transport coefficients is important for quantifying errors in hydrodynamic simulations of inertial confinement fusion and high-energy density experiments., Comment: 45 pages, 17 figures

Published
2020
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4. Evidence for suprathermal ion distribution in burning plasmas

Author

Hartouni, E. P., Moore, A. S., Crilly, A. J., Appelbe, B. D., Amendt, P. A., Baker, K. L., Casey, D. T., Clark, D. S., Döppner, T., Eckart, M. J., Field, J. E., Gatu-Johnson, M., Grim, G. P., Hatarik, R., Jeet, J., Kerr, S. M., Kilkenny, J., Kritcher, A. L., Meaney, K. D., Milovich, J. L., Munro, D. H., Nora, R. C., Pak, A. E., Ralph, J. E., Robey, H. F., Ross, J. S., Schlossberg, D. J., Sepke, S. M., Spears, B. K., Young, C. V., and Zylstra, A. B.

Published
2023
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5. Design of inertial fusion implosions reaching the burning plasma regime

Author

Kritcher, A. L., Young, C. V., Robey, H. F., Weber, C. R., Zylstra, A. B., Hurricane, O. A., Callahan, D. A., Ralph, J. E., Ross, J. S., Baker, K. L., Casey, D. T., Clark, D. S., Döppner, T., Divol, L., Hohenberger, M., Hopkins, L. Berzak, Le Pape, S., Meezan, N. B., Pak, A., Patel, P. K., Tommasini, R., Ali, S. J., Amendt, P. A., Atherton, L. J., Bachmann, B., Bailey, D., Benedetti, L. R., Betti, R., Bhandarkar, S. D., Biener, J., Bionta, R. M., Birge, N. W., Bond, E. J., Bradley, D. K., Braun, T., Briggs, T. M., Bruhn, M. W., Celliers, P. M., Chang, B., Chapman, T., Chen, H., Choate, C., Christopherson, A. R., Crippen, J. W., Dewald, E. L., Dittrich, T. R., Edwards, M. J., Farmer, W. A., Field, J. E., Fittinghoff, D., Frenje, J. A., Gaffney, J. A., Johnson, M. Gatu, Glenzer, S. H., Grim, G. P., Haan, S., Hahn, K. D., Hall, G. N., Hammel, B. A., Harte, J., Hartouni, E., Heebner, J. E., Hernandez, V. J., Herrmann, H., Herrmann, M. C., Hinkel, D. E., Ho, D. D., Holder, J. P., Hsing, W. W., Huang, H., Humbird, K. D., Izumi, N., Jarrott, L. C., Jeet, J., Jones, O., Kerbel, G. D., Kerr, S. M., Khan, S. F., Kilkenny, J., Kim, Y., Geppert-Kleinrath, H., Geppert-Kleinrath, V., Kong, C., Koning, J. M., Kruse, M. K. G., Kroll, J. J., Kustowski, B., Landen, O. L., Langer, S., Larson, D., Lemos, N. C., Lindl, J. D., Ma, T., MacDonald, M. J., MacGowan, B. J., Mackinnon, A. J., MacLaren, S. A., MacPhee, A. G., Marinak, M. M., Mariscal, D. A., Marley, E. V., Masse, L., Meaney, K., Michel, P. A., Millot, M., Milovich, J. L., Moody, J. D., Moore, A. S., Morton, J. W., Murphy, T., Newman, K., Di Nicola, J.-M. G., Nikroo, A., Nora, R., Patel, M. V., Pelz, L. J., Peterson, J. L., Ping, Y., Pollock, B. B., Ratledge, M., Rice, N. G., Rinderknecht, H., Rosen, M., Rubery, M. S., Salmonson, J. D., Sater, J., Schiaffino, S., Schlossberg, D. J., Schneider, M. B., Schroeder, C. R., Scott, H. A., Sepke, S. M., Sequoia, K., Sherlock, M. W., Shin, S., Smalyuk, V. A., Spears, B. K., Springer, P. T., Stadermann, M., Stoupin, S., Strozzi, D. J., Suter, L. J., Thomas, C. A., Town, R. P. J., Trosseille, C., Tubman, E. R., Volegov, P. L., Widmann, K., Wild, C., Wilde, C. H., Van Wonterghem, B. M., Woods, D. T., Woodworth, B. N., Yamaguchi, M., Yang, S. T., and Zimmerman, G. B.

Published
2022
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6. Preparations for a European R&D roadmap for an inertial fusion demo reactor

Author

Norreys, P. A., Ceurvorst, L., Sadler, J. D., Spiers, B. T., Aboushelbaya, R., Mayr, M. W., Paddock, R., Ratan, N., Savin, A. F., Wang, R. H. W., Glize, K., Trines, R. M. G. M., Bingham, R., Hill, M. P., Sircombe, N., Ramsay, M., Allan, P., Hobbs, L., James, S., Skidmore, J., Fyrth, J., Luis, J., Floyd, E., Brown, C., Haines, B. M., Olson, R. E., Yi, S. A., Zylstra, A. B., Flippo, K., Bradley, P. A., Peterson, R. R., Kline, J. L., and Leeper, R. J.

Published
2021

8. Burning plasma achieved in inertial fusion

Author

Zylstra, A. B., Hurricane, O. A., Callahan, D. A., Kritcher, A. L., Ralph, J. E., Robey, H. F., Ross, J. S., Young, C. V., Baker, K. L., Casey, D. T., Döppner, T., Divol, L., Hohenberger, M., Le Pape, S., Pak, A., Patel, P. K., Tommasini, R., Ali, S. J., Amendt, P. A., Atherton, L. J., Bachmann, B., Bailey, D., Benedetti, L. R., Berzak Hopkins, L., Betti, R., Bhandarkar, S. D., Biener, J., Bionta, R. M., Birge, N. W., Bond, E. J., Bradley, D. K., Braun, T., Briggs, T. M., Bruhn, M. W., Celliers, P. M., Chang, B., Chapman, T., Chen, H., Choate, C., Christopherson, A. R., Clark, D. S., Crippen, J. W., Dewald, E. L., Dittrich, T. R., Edwards, M. J., Farmer, W. A., Field, J. E., Fittinghoff, D., Frenje, J., Gaffney, J., Gatu Johnson, M., Glenzer, S. H., Grim, G. P., Haan, S., Hahn, K. D., Hall, G. N., Hammel, B. A., Harte, J., Hartouni, E., Heebner, J. E., Hernandez, V. J., Herrmann, H., Herrmann, M. C., Hinkel, D. E., Ho, D. D., Holder, J. P., Hsing, W. W., Huang, H., Humbird, K. D., Izumi, N., Jarrott, L. C., Jeet, J., Jones, O., Kerbel, G. D., Kerr, S. M., Khan, S. F., Kilkenny, J., Kim, Y., Geppert Kleinrath, H., Geppert Kleinrath, V., Kong, C., Koning, J. M., Kroll, J. J., Kruse, M. K. G., Kustowski, B., Landen, O. L., Langer, S., Larson, D., Lemos, N. C., Lindl, J. D., Ma, T., MacDonald, M. J., MacGowan, B. J., Mackinnon, A. J., MacLaren, S. A., MacPhee, A. G., Marinak, M. M., Mariscal, D. A., Marley, E. V., Masse, L., Meaney, K., Meezan, N. B., Michel, P. A., Millot, M., Milovich, J. L., Moody, J. D., Moore, A. S., Morton, J. W., Murphy, T., Newman, K., Di Nicola, J.-M. G., Nikroo, A., Nora, R., Patel, M. V., Pelz, L. J., Peterson, J. L., Ping, Y., Pollock, B. B., Ratledge, M., Rice, N. G., Rinderknecht, H., Rosen, M., Rubery, M. S., Salmonson, J. D., Sater, J., Schiaffino, S., Schlossberg, D. J., Schneider, M. B., Schroeder, C. R., Scott, H. A., Sepke, S. M., Sequoia, K., Sherlock, M. W., Shin, S., Smalyuk, V. A., Spears, B. K., Springer, P. T., Stadermann, M., Stoupin, S., Strozzi, D. J., Suter, L. J., Thomas, C. A., Town, R. P. J., Tubman, E. R., Trosseille, C., Volegov, P. L., Weber, C. R., Widmann, K., Wild, C., Wilde, C. H., Van Wonterghem, B. M., Woods, D. T., Woodworth, B. N., Yamaguchi, M., Yang, S. T., and Zimmerman, G. B.

Published
2022
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9. The first cryogenic DT layered, beryllium capsule implosion at the National Ignition Facility

Author

Wilson, D. C., Kline, J. L., Yi, S. A., Simakov, A. N., Kyrala, G. A., Olson, R. E., Perry, T. S., Merrill, F. E., Batha, S., Zylstra, A. B., Callahan, D. A., Cassata, W., Dewald, E. L., Haan, S. W., Hinkel, D. E., Hurricane, O. A., Izumi, N., Ma, T., MacPhee, A. G., Milovich, J. L., Ralph, J. E., Rygg, J. R., Schneider, M. B., Sepke, S., Strozzi, D. J., Tommasini, R., Yeamans, C., Rinderknecht, H. G., and Sio, B. H.

Subjects
Physics - Plasma Physics
Abstract

NIF experiments with Be capsules have followed a path of the highly successful "high-foot" CH capsules. Several keyhole and ConA targets preceeded a DT layered shot. In addition to backscatter subtraction, laser drive multipliers were needed to match observed X-ray drives. Those for the picket (0.95), trough (1.0) and second pulse (0.80) were determined by VISAR measurements. The time dependence of the Dante total x-ray flux and its fraction > 1.8 keV reflect the time dependence of the multipliers. A two step drive multiplier for the main pulse can match implosion times, but Dante measurements suggest the drive multiplier must increase late in time. With a single set of time dependent, multi-level multipliers the Dante data are well matched. These same third pulse drive multipliers also match the implosion times and Dante signals for two CH capsule DT. One discrepancy in the calculations is the X-ray flux in the picket. Calculations over-estimate the flux > 1.8 keV by a factor of ~100, while getting the total flux correctly. These harder X-rays cause an expansion of the Be/fuel interface of 2-3 km/s before the arrival of the first shock. VISAR measurements show only 0.2 to 0.3 km/s. The X-ray drive on the DT Be capsule was further degraded by a random decrease of 9% in the total picket flux. This small change caused the capsule fuel to change from an adiabat of 1.8 to 2.3 by mistiming of the first and second shocks. With this shock tuning and adjustments to the calculation, the first NIF Be capsule implosion achieved 29% of calculated yield, comparable to the CH DT capsules of 68% and 21%. Inclusion of a large M1 asymmetry in the DT ice layer and mixing from instability growth may help explain this final degradation. In summary when driven similarly the Be capsules performed like CH capsules. Performance degradation for both seems to be dominated by drive and capsule asymmetries.

Published
2017

10. Self-similar structure and experimental signatures of suprathermal ion distribution in inertial confinement fusion implosions

Author

Kagan, Grigory, Svyatskiy, D., Rinderknecht, H. G., Rosenberg, M. J., Zylstra, A. B., Huang, C. -K., and McDevitt, C. J.

Subjects
Physics - Plasma Physics
Abstract

The distribution function of suprathermal ions is found to be self-similar under conditions relevant to inertial confinement fusion hot-spots. By utilizing this feature, interference between the hydro-instabilities and kinetic effects is for the first time assessed quantitatively to find that the instabilities substantially aggravate the fusion reactivity reduction. The ion tail depletion is also shown to lower the experimentally inferred ion temperature, a novel kinetic effect that may explain the discrepancy between the exploding pusher experiments and rad-hydro simulations and contribute to the observation that temperature inferred from DD reaction products is lower than from DT at National Ignition Facility., Comment: Revised version accepted for publication in PRL. "Copyright (2015) by the American Physical Society."

Published
2015
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11. Observation of magnetic field generation via the Weibel instability in interpenetrating plasma flows

Author

Huntington, C. M., Fiuza, F., Ross, J. S., Zylstra, A. B., Drake, R. P., Froula, D. H., Gregori, G., Kugland, N. L., Kuranz, C. C., Levy, M. C., Li, C. K., Meinecke, J., Morita, T., Petrasso, R., Plechaty, C., Remington, B. A., Ryutov, D. D., Sakawa, Y., Spitkovsky, A., Takabe, H., and Park, H. -S.

Subjects
Astrophysics - High Energy Astrophysical Phenomena, Physics - Plasma Physics
Abstract

Collisionless shocks can be produced as a result of strong magnetic fields in a plasma flow, and therefore are common in many astrophysical systems. The Weibel instability is one candidate mechanism for the generation of sufficiently strong fields to create a collisionless shock. Despite their crucial role in astrophysical systems, observation of the magnetic fields produced by Weibel instabilities in experiments has been challenging. Using a proton probe to directly image electromagnetic fields, we present evidence of Weibel-generated magnetic fields that grow in opposing, initially unmagnetized plasma flows from laser-driven laboratory experiments. Three-dimensional particle-in-cell simulations reveal that the instability efficiently extracts energy from the plasma flows, and that the self-generated magnetic energy reaches a few percent of the total energy in the system. This result demonstrates an experimental platform suitable for the investigation of a wide range of astrophysical phenomena, including collisionless shock formation in supernova remnants, large-scale magnetic field amplification, and the radiation signature from gamma-ray bursts.

Published
2013
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12. Energy Principles of Scientific Breakeven in an Inertial Fusion Experiment

Author

Hurricane, O. A., primary, Callahan, D. A., additional, Casey, D. T., additional, Christopherson, A. R., additional, Kritcher, A. L., additional, Landen, O. L., additional, Maclaren, S. A., additional, Nora, R., additional, Patel, P. K., additional, Ralph, J., additional, Schlossberg, D., additional, Springer, P. T., additional, Young, C. V., additional, and Zylstra, A. B., additional

Published
2024
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13. Design of the first fusion experiment to achieve target energy gain G>1

Author

Kritcher, A. L., primary, Zylstra, A. B., additional, Weber, C. R., additional, Hurricane, O. A., additional, Callahan, D. A., additional, Clark, D. S., additional, Divol, L., additional, Hinkel, D. E., additional, Humbird, K., additional, Jones, O., additional, Lindl, J. D., additional, Maclaren, S., additional, Strozzi, D. J., additional, Young, C. V., additional, Allen, A., additional, Bachmann, B., additional, Baker, K. L., additional, Braun, T., additional, Brunton, G., additional, Casey, D. T., additional, Chapman, T., additional, Choate, C., additional, Dewald, E., additional, Di Nicola, J.-M. G., additional, Edwards, M. J., additional, Haan, S., additional, Fehrenbach, T., additional, Hohenberger, M., additional, Kur, E., additional, Kustowski, B., additional, Kong, C., additional, Landen, O. L., additional, Larson, D., additional, MacGowan, B. J., additional, Marinak, M., additional, Millot, M., additional, Nikroo, A., additional, Nora, R., additional, Pak, A., additional, Patel, P. K., additional, Ralph, J. E., additional, Ratledge, M., additional, Rubery, M. S., additional, Schlossberg, D. J., additional, Sepke, S. M., additional, Stadermann, M., additional, Suratwala, T. I., additional, Tommasini, R., additional, Town, R., additional, Woodworth, B., additional, Van Wonterghem, B., additional, and Wild, C., additional

Published
2024
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14. Observations and properties of the first laboratory fusion experiment to exceed a target gain of unity

Author

Pak, A., primary, Zylstra, A. B., additional, Baker, K. L., additional, Casey, D. T., additional, Dewald, E., additional, Divol, L., additional, Hohenberger, M., additional, Moore, A. S., additional, Ralph, J. E., additional, Schlossberg, D. J., additional, Tommasini, R., additional, Aybar, N., additional, Bachmann, B., additional, Bionta, R. M., additional, Fittinghoff, D., additional, Gatu Johnson, M., additional, Geppert Kleinrath, H., additional, Geppert Kleinrath, V., additional, Hahn, K. D., additional, Rubery, M. S., additional, Landen, O. L., additional, Moody, J. D., additional, Aghaian, L., additional, Allen, A., additional, Baxamusa, S. H., additional, Bhandarkar, S. D., additional, Biener, J., additional, Birge, N. W., additional, Braun, T., additional, Briggs, T. M., additional, Choate, C., additional, Clark, D. S., additional, Crippen, J. W., additional, Danly, C., additional, Döppner, T., additional, Durocher, M., additional, Erickson, M., additional, Fehrenbach, T., additional, Freeman, M., additional, Havre, M., additional, Hayes, S., additional, Hilsabeck, T., additional, Holder, J. P., additional, Humbird, K. D., additional, Hurricane, O. A., additional, Izumi, N., additional, Kerr, S. M., additional, Khan, S. F., additional, Kim, Y. H., additional, Kong, C., additional, Jeet, J., additional, Kozioziemski, B., additional, Kritcher, A. L., additional, Lamb, K. M., additional, Lemos, N. C., additional, MacGowan, B. J., additional, Mackinnon, A. J., additional, MacPhee, A. G., additional, Marley, E. V., additional, Meaney, K., additional, Millot, M., additional, Di Nicola, J.-M. G., additional, Nikroo, A., additional, Nora, R., additional, Ratledge, M., additional, Ross, J. S., additional, Shin, S. J., additional, Smalyuk, V. A., additional, Stadermann, M., additional, Stoupin, S., additional, Suratwala, T., additional, Trosseille, C., additional, Van Wonterghem, B., additional, Weber, C. R., additional, Wild, C., additional, Wilde, C., additional, Wooddy, P. T., additional, Woodworth, B. N., additional, and Young, C. V., additional

Published
2024
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15. Hohlraum Reheating from Burning NIF Implosions

Author

Rubery, M. S., primary, Rosen, M. D., additional, Aybar, N., additional, Landen, O. L., additional, Divol, L., additional, Young, C. V., additional, Weber, C., additional, Hammer, J., additional, Moody, J. D., additional, Moore, A. S., additional, Kritcher, A. L., additional, Zylstra, A. B., additional, Hurricane, O., additional, Pak, A. E., additional, MacLaren, S., additional, Zimmerman, G., additional, Harte, J., additional, and Woods, T., additional

Published
2024
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16. Design of first experiment to achieve fusion target gain > 1.

Author

Kritcher, A. L., Schlossberg, D. J., Weber, C. R., Young, C. V., Hurricane, O. A., Dewald, E., Zylstra, A. B., Allen, A., Bachmann, B., Baker, K. L., Baxamusa, S., Braun, T., Brunton, G., Callahan, D. A., Casey, D. T., Chapman, T., Choate, C., Clark, D. S., Nicola, J.-M. G. Di, and Divol, L.

Abstract

A decades-long quest to achieve fusion energy target gain and ignition in a controlled laboratory experiment, dating back to 1962, has been realized at the National Ignition Facility (NIF) on December 5, 2022 [Abu-Shawareb et al., Phys. Rev. Lett. 132, 065102 (2024)] where an imploded pellet of deuterium and tritium (DT) fuel generated more fusion energy (3.15 MJ) than laser energy incident on the target (2.05 MJ). In these experiments, laser beams incident on the inside of a cylindrical can (Hohlraum) generate an intense ∼ 3 × 106 million degree x-ray radiation bath that is used to spherically implode ∼ 2 mm diameter pellets containing frozen deuterium and tritium. The maximum fusion energy produced in this configuration to date is 3.88 MJ using 2.05 MJ of incident laser energy and 5.2 MJ using 2.2 MJ of incident laser energy, producing a new record target gain of ∼ 2.4×. This paper describes the physics (target and laser) design of this platform and follow-on experiments that show increased performance. We show robust megajoule fusion energy output using this design as well as explore design modification using radiation hydrodynamic simulations benchmarked against experimental data, which can further improve the performance of this platform. [ABSTRACT FROM AUTHOR]

Published
2024
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17. Energy gain of wetted-foam implosions with auxiliary heating for inertial fusion studies

Author

Paddock, R W, primary, Li, T S, additional, Kim, E, additional, Lee, J J, additional, Martin, H, additional, Ruskov, R T, additional, Hughes, S, additional, Rose, S J, additional, Murphy, C D, additional, H Scott, R H, additional, Bingham, R, additional, Garbett, W, additional, Elisseev, V V, additional, Haines, B M, additional, Zylstra, A B, additional, Campbell, E M, additional, Thomas, C A, additional, Goffrey, T, additional, Arber, T D, additional, Aboushelbaya, R, additional, Von der Leyen, M W, additional, W Wang, R H, additional, James, A A, additional, Ouatu, I, additional, Timmis, R, additional, Howard, S, additional, Atonga, E, additional, and Norreys, P A, additional

Published
2023
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18. Publisher Correction: Burning plasma achieved in inertial fusion

Author

Zylstra, A. B., Hurricane, O. A., Callahan, D. A., Kritcher, A. L., Ralph, J. E., Robey, H. F., Ross, J. S., Young, C. V., Baker, K. L., Casey, D. T., Döppner, T., Divol, L., Hohenberger, M., Le Pape, S., Pak, A., Patel, P. K., Tommasini, R., Ali, S. J., Amendt, P. A., Atherton, L. J., Bachmann, B., Bailey, D., Benedetti, L. R., Berzak Hopkins, L., Betti, R., Bhandarkar, S. D., Biener, J., Bionta, R. M., Birge, N. W., Bond, E. J., Bradley, D. K., Braun, T., Briggs, T. M., Bruhn, M. W., Celliers, P. M., Chang, B., Chapman, T., Chen, H., Choate, C., Christopherson, A. R., Clark, D. S., Crippen, J. W., Dewald, E. L., Dittrich, T. R., Edwards, M. J., Farmer, W. A., Field, J. E., Fittinghoff, D., Frenje, J., Gaffney, J., Gatu Johnson, M., Glenzer, S. H., Grim, G. P., Haan, S., Hahn, K. D., Hall, G. N., Hammel, B. A., Harte, J., Hartouni, E., Heebner, J. E., Hernandez, V. J., Herrmann, H., Herrmann, M. C., Hinkel, D. E., Ho, D. D., Holder, J. P., Hsing, W. W., Huang, H., Humbird, K. D., Izumi, N., Jarrott, L. C., Jeet, J., Jones, O., Kerbel, G. D., Kerr, S. M., Khan, S. F., Kilkenny, J., Kim, Y., Geppert Kleinrath, H., Geppert Kleinrath, V., Kong, C., Koning, J. M., Kroll, J. J., Kruse, M. K. G., Kustowski, B., Landen, O. L., Langer, S., Larson, D., Lemos, N. C., Lindl, J. D., Ma, T., MacDonald, M. J., MacGowan, B. J., Mackinnon, A. J., MacLaren, S. A., MacPhee, A. G., Marinak, M. M., Mariscal, D. A., Marley, E. V., Masse, L., Meaney, K., Meezan, N. B., Michel, P. A., Millot, M., Milovich, J. L., Moody, J. D., Moore, A. S., Morton, J. W., Murphy, T., Newman, K., Di Nicola, J.-M. G., Nikroo, A., Nora, R., Patel, M. V., Pelz, L. J., Peterson, J. L., Ping, Y., Pollock, B. B., Ratledge, M., Rice, N. G., Rinderknecht, H., Rosen, M., Rubery, M. S., Salmonson, J. D., Sater, J., Schiaffino, S., Schlossberg, D. J., Schneider, M. B., Schroeder, C. R., Scott, H. A., Sepke, S. M., Sequoia, K., Sherlock, M. W., Shin, S., Smalyuk, V. A., Spears, B. K., Springer, P. T., Stadermann, M., Stoupin, S., Strozzi, D. J., Suter, L. J., Thomas, C. A., Town, R. P. J., Tubman, E. R., Trosseille, C., Volegov, P. L., Weber, C. R., Widmann, K., Wild, C., Wilde, C. H., Van Wonterghem, B. M., Woods, D. T., Woodworth, B. N., Yamaguchi, M., Yang, S. T., and Zimmerman, G. B.

Published
2022
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21. Dynamics and Power Balance of Near Unity Target Gain Inertial Confinement Fusion Implosions

Author

Pak, A., primary, Divol, L., additional, Casey, D. T., additional, Khan, S. F., additional, Kritcher, A. L., additional, Ralph, J. E., additional, Tommasini, R., additional, Trosseille, C., additional, Zylstra, A. B., additional, Baker, K. L., additional, Birge, N. W., additional, Bionta, R., additional, Bachmann, B., additional, Dewald, E. L., additional, Doeppner, T., additional, Freeman, M. S., additional, Fittinghoff, D. N., additional, Geppert-Kleinrath, V., additional, Geppert-Kleinrath, H., additional, Hahn, K. D., additional, Hohenberger, M., additional, Holder, J., additional, Kerr, S., additional, Kim, Y., additional, Kozioziemski, B., additional, Lamb, K., additional, MacGowan, B. J., additional, MacPhee, A. G., additional, Meaney, K. D., additional, Moore, A. S., additional, Schlossberg, D. J., additional, Stoupin, S., additional, Volegov, P., additional, Wilde, C., additional, Young, C. V., additional, Landen, O. L., additional, and Town, R. P. J., additional

Published
2023
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23. Towards the first plasma-electron screening experiment

Author

Casey, Daniel T., primary, Weber, Chris R., additional, Zylstra, Alex B., additional, Cerjan, Charlie J., additional, Hartouni, Ed, additional, Hohenberger, Matthias, additional, Divol, Laurent, additional, Dearborn, David S., additional, Kabadi, Neel, additional, Lahmann, Brandon, additional, Gatu Johnson, Maria, additional, and Frenje, Johan A., additional

Published
2023
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24. Evidence for suprathermal ion distribution in burning plasmas

Author

Hartouni, E. P., primary, Moore, A. S., additional, Crilly, A. J., additional, Appelbe, B. D., additional, Amendt, P. A., additional, Baker, K. L., additional, Casey, D. T., additional, Clark, D. S., additional, Döppner, T., additional, Eckart, M. J., additional, Field, J. E., additional, Gatu-Johnson, M., additional, Grim, G. P., additional, Hatarik, R., additional, Jeet, J., additional, Kerr, S. M., additional, Kilkenny, J., additional, Kritcher, A. L., additional, Meaney, K. D., additional, Milovich, J. L., additional, Munro, D. H., additional, Nora, R. C., additional, Pak, A. E., additional, Ralph, J. E., additional, Robey, H. F., additional, Ross, J. S., additional, Schlossberg, D. J., additional, Sepke, S. M., additional, Spears, B. K., additional, Young, C. V., additional, and Zylstra, A. B., additional

Published
2022
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26. Measurements of fusion reaction history in inertially confined burning plasmas.

Author

Kim, Y., Meaney, K. D., Geppert-Kleinrath, H., Herrmann, H. W., Murphy, T. J., Young, C. S., Hoffman, N. M., Jorgenson, H. J., Morrow, T., Wilson, D. C., Loomis, E. N., Cerjan, C., Zylstra, A. B., Jeet, J., Schlossberg, D. J., Rubery, M. S., Moore, A. S., Kritcher, A. L., Carrera, J. A., and Mariscal, E. F.

Subjects
NUCLEAR fusion, CHERENKOV counters, PLASMA confinement, TRITIUM, GAS detectors, INERTIAL confinement fusion, DETECTORS
Abstract

Direct evidence of inertially confined fusion ignition appears in the abrupt temperature increase and consequent rapid increase in the thermonuclear burn rate as seen in the reaction history. The Gamma Reaction History (GRH) and Gas Cherenkov Detector (GCD) diagnostics are γ-based Cherenkov detectors that provide high quality measurements of deuterium–tritium fusion γ ray production and are, thus, capable of monitoring the thermonuclear burn rate. Temporal shifts in both peak burn time and burn width have been observed during recent high-yield shots (yields greater than 1017 neutrons) and are essential diagnostic signatures of the ignition process. While the current GRH and GCD detectors are fast enough to sense the changes of reaction history due to alpha heating, they do not have enough dynamic range to capture the onset of alpha heating. The next generation of instrumentation, GRH-15m, is proposed to increase the yield-rate coverage to measure the onset of alpha-heating. [ABSTRACT FROM AUTHOR]

Published
2023
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27. Experimental achievement and signatures of ignition at the National Ignition Facility

Author

Zylstra, A. B., primary, Kritcher, A. L., additional, Hurricane, O. A., additional, Callahan, D. A., additional, Ralph, J. E., additional, Casey, D. T., additional, Pak, A., additional, Landen, O. L., additional, Bachmann, B., additional, Baker, K. L., additional, Berzak Hopkins, L., additional, Bhandarkar, S. D., additional, Biener, J., additional, Bionta, R. M., additional, Birge, N. W., additional, Braun, T., additional, Briggs, T. M., additional, Celliers, P. M., additional, Chen, H., additional, Choate, C., additional, Clark, D. S., additional, Divol, L., additional, Döppner, T., additional, Fittinghoff, D., additional, Edwards, M. J., additional, Gatu Johnson, M., additional, Gharibyan, N., additional, Haan, S., additional, Hahn, K. D., additional, Hartouni, E., additional, Hinkel, D. E., additional, Ho, D. D., additional, Hohenberger, M., additional, Holder, J. P., additional, Huang, H., additional, Izumi, N., additional, Jeet, J., additional, Jones, O., additional, Kerr, S. M., additional, Khan, S. F., additional, Geppert Kleinrath, H., additional, Geppert Kleinrath, V., additional, Kong, C., additional, Lamb, K. M., additional, Le Pape, S., additional, Lemos, N. C., additional, Lindl, J. D., additional, MacGowan, B. J., additional, Mackinnon, A. J., additional, MacPhee, A. G., additional, Marley, E. V., additional, Meaney, K., additional, Millot, M., additional, Moore, A. S., additional, Newman, K., additional, Di Nicola, J.-M. G., additional, Nikroo, A., additional, Nora, R., additional, Patel, P. K., additional, Rice, N. G., additional, Rubery, M. S., additional, Sater, J., additional, Schlossberg, D. J., additional, Sepke, S. M., additional, Sequoia, K., additional, Shin, S. J., additional, Stadermann, M., additional, Stoupin, S., additional, Strozzi, D. J., additional, Thomas, C. A., additional, Tommasini, R., additional, Trosseille, C., additional, Tubman, E. R., additional, Volegov, P. L., additional, Weber, C. R., additional, Wild, C., additional, Woods, D. T., additional, Yang, S. T., additional, and Young, C. V., additional

Published
2022
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28. Design of an inertial fusion experiment exceeding the Lawson criterion for ignition

Author

Kritcher, A. L., primary, Zylstra, A. B., additional, Callahan, D. A., additional, Hurricane, O. A., additional, Weber, C. R., additional, Clark, D. S., additional, Young, C. V., additional, Ralph, J. E., additional, Casey, D. T., additional, Pak, A., additional, Landen, O. L., additional, Bachmann, B., additional, Baker, K. L., additional, Berzak Hopkins, L., additional, Bhandarkar, S. D., additional, Biener, J., additional, Bionta, R. M., additional, Birge, N. W., additional, Braun, T., additional, Briggs, T. M., additional, Celliers, P. M., additional, Chen, H., additional, Choate, C., additional, Divol, L., additional, Döppner, T., additional, Fittinghoff, D., additional, Edwards, M. J., additional, Gatu Johnson, M., additional, Gharibyan, N., additional, Haan, S., additional, Hahn, K. D., additional, Hartouni, E., additional, Hinkel, D. E., additional, Ho, D. D., additional, Hohenberger, M., additional, Holder, J. P., additional, Huang, H., additional, Izumi, N., additional, Jeet, J., additional, Jones, O., additional, Kerr, S. M., additional, Khan, S. F., additional, Geppert Kleinrath, H., additional, Geppert Kleinrath, V., additional, Kong, C., additional, Lamb, K. M., additional, Le Pape, S., additional, Lemos, N. C., additional, Lindl, J. D., additional, MacGowan, B. J., additional, Mackinnon, A. J., additional, MacPhee, A. G., additional, Marley, E. V., additional, Meaney, K., additional, Millot, M., additional, Moore, A. S., additional, Newman, K., additional, Di Nicola, J.-M. G., additional, Nikroo, A., additional, Nora, R., additional, Patel, P. K., additional, Rice, N. G., additional, Rubery, M. S., additional, Sater, J., additional, Schlossberg, D. J., additional, Sepke, S. M., additional, Sequoia, K., additional, Shin, S. J., additional, Stadermann, M., additional, Stoupin, S., additional, Strozzi, D. J., additional, Thomas, C. A., additional, Tommasini, R., additional, Trosseille, C., additional, Tubman, E. R., additional, Volegov, P. L., additional, Wild, C., additional, Woods, D. T., additional, and Yang, S. T., additional

Published
2022
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29. Bootstrap estimation of the effect of instrument response function uncertainty on the reconstruction of fusion neutron sources

Author

Lamb, Kevin M., primary, Geppert-Kleinrath, Verena, additional, Birge, Noah W., additional, Danly, Christopher R., additional, Divol, Laurent, additional, Fittinghoff, David N., additional, Freeman, Matthew S., additional, Pak, Arthur E., additional, Wilde, Carl H., additional, Zylstra, Alex B., additional, and Volegov, Petr L., additional

Published
2022
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31. T–T Neutron Spectrum from Inertial Confinement Implosions

Author

Bacher, A. D., Casey, D. T., Frenje, J. A., Gatu Johnson, M. J., Manuel, M., Sinenian, N., Zylstra, A. B., Séguin, F. H., Li, C. K., Petrasso, R. D., Glebov, V. Yu, Radha, P. B., Meyerhofer, D. D., Sangster, T. C., McNabb, D. P., Amendt, P. A., Boyd, R. N., Caggiano, J. A., Hatchett, S. P., Pino, J. E., Quaglioni, S., Rygg, J. R., Thompson, I. J., Herrmann, H. W., and Kim, Y. H.

Published
2013
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32. Achieving record hot spot energies with large HDC implosions on NIF in HYBRID-E

Author

Kritcher, A. L., primary, Zylstra, A. B., additional, Callahan, D. A., additional, Hurricane, O. A., additional, Weber, C., additional, Ralph, J., additional, Casey, D. T., additional, Pak, A., additional, Baker, K., additional, Bachmann, B., additional, Bhandarkar, S., additional, Biener, J., additional, Bionta, R., additional, Braun, T., additional, Bruhn, M., additional, Choate, C., additional, Clark, D., additional, Di Nicola, J. M., additional, Divol, L., additional, Doeppner, T., additional, Geppert-Kleinrath, V., additional, Haan, S., additional, Heebner, J., additional, Hernandez, V., additional, Hinkel, D., additional, Hohenberger, M., additional, Huang, H., additional, Kong, C., additional, Le Pape, S., additional, Mariscal, D., additional, Marley, E., additional, Masse, L., additional, Meaney, K. D., additional, Millot, M., additional, Moore, A., additional, Newman, K., additional, Nikroo, A., additional, Patel, P., additional, Pelz, L., additional, Rice, N., additional, Robey, H., additional, Ross, J. S., additional, Rubery, M., additional, Salmonson, J., additional, Schlossberg, D., additional, Sepke, S., additional, Sequoia, K., additional, Stadermann, M., additional, Strozzi, D., additional, Tommasini, R., additional, Volegov, P., additional, Wild, C., additional, Yang, S., additional, Young, C., additional, Edwards, M. J., additional, Landen, O., additional, Town, R., additional, and Herrmann, M., additional

Published
2021
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33. Three dimensional low-mode areal-density non-uniformities in indirect-drive implosions at the National Ignition Facility

Author

Casey, D. T., primary, Landen, O. L., additional, Hartouni, E., additional, Bionta, R. M., additional, Hahn, K. D., additional, Volegov, P. L., additional, Fittinghoff, D. N., additional, Geppert-Kleinrath, V., additional, Wilde, C. H., additional, Milovich, J. L., additional, Smalyuk, V. A., additional, Field, J. E., additional, Hurricane, O. A., additional, Zylstra, A. B., additional, Kritcher, A. L., additional, Clark, D. S., additional, Young, C. V., additional, Nora, R. C., additional, Callahan, D. A., additional, MacGowan, B. J., additional, Munro, D. H., additional, Spears, B. K., additional, Peterson, J. L., additional, Gaffney, J. A., additional, Humbird, K. D., additional, Kruse, M. K. G., additional, Moore, A. S., additional, Schlossberg, D. J., additional, Gatu-Johnson, M., additional, and Frenje, J. A., additional

Published
2021
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34. High resolution >40 keV x-ray radiography using an edge-on micro-flag backlighter at NIF-ARC

Author

Hill, M. P., primary, Williams, G. J., additional, Zylstra, A. B., additional, Stan, C. V., additional, Lockard, T. E., additional, Gumbrell, E. T., additional, Rudd, R. E., additional, Powell, P. D., additional, Swift, D. C., additional, McNaney, J. M., additional, Le Galloudec, K. K., additional, Remington, B. A., additional, and Park, H. -S., additional

Published
2021
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36. A second order yield-temperature relation for accurate inference of burn-averaged quantities in multi-species plasmas

Author

Kabadi, N. V., primary, Adrian, P. J., additional, Bose, A., additional, Casey, D. T., additional, Frenje, J. A., additional, Gatu Johnson, M., additional, Lahmann, B., additional, Mannion, O. M., additional, Petrasso, R. D., additional, Rinderknecht, H. G., additional, Séguin, F. H., additional, Sio, H. W., additional, Sutcliffe, G. D., additional, and Zylstra, A. B., additional

Published
2021
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37. Evidence of Three-Dimensional Asymmetries Seeded by High-Density Carbon-Ablator Nonuniformity in Experiments at the National Ignition Facility

Author

Casey, D. T., primary, MacGowan, B. J., additional, Sater, J. D., additional, Zylstra, A. B., additional, Landen, O. L., additional, Milovich, J., additional, Hurricane, O. A., additional, Kritcher, A. L., additional, Hohenberger, M., additional, Baker, K., additional, Le Pape, S., additional, Döppner, T., additional, Weber, C., additional, Huang, H., additional, Kong, C., additional, Biener, J., additional, Young, C. V., additional, Haan, S., additional, Nora, R. C., additional, Ross, S., additional, Robey, H., additional, Stadermann, M., additional, Nikroo, A., additional, Callahan, D. A., additional, Bionta, R. M., additional, Hahn, K. D., additional, Moore, A. S., additional, Schlossberg, D., additional, Bruhn, M., additional, Sequoia, K., additional, Rice, N., additional, Farrell, M., additional, and Wild, C., additional

Published
2021
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38. Record Energetics for an Inertial Fusion Implosion at NIF

Author

Zylstra, A. B., primary, Kritcher, A. L., additional, Hurricane, O. A., additional, Callahan, D. A., additional, Baker, K., additional, Braun, T., additional, Casey, D. T., additional, Clark, D., additional, Clark, K., additional, Döppner, T., additional, Divol, L., additional, Hinkel, D. E., additional, Hohenberger, M., additional, Kong, C., additional, Landen, O. L., additional, Nikroo, A., additional, Pak, A., additional, Patel, P., additional, Ralph, J. E., additional, Rice, N., additional, Tommasini, R., additional, Schoff, M., additional, Stadermann, M., additional, Strozzi, D., additional, Weber, C., additional, Young, C., additional, Wild, C., additional, Town, R. P. J., additional, and Edwards, M. J., additional

Published
2021
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39. First observation of increased DT yield over prediction due to addition of hydrogen

Author

Kim, Y., primary, Herrmann, H. W., additional, Hoffman, N. M., additional, Schmitt, M. J., additional, Kagan, G., additional, McEvoy, A. M., additional, Zylstra, A. B., additional, Smidt, J. M., additional, Gales, S., additional, Leatherland, A., additional, Rubery, M., additional, Gatu Johnson, M., additional, Frenje, J. A., additional, Yu Glebov, V., additional, and Forrest, C., additional

Published
2021
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41. Preparations for a European R&D roadmap for an inertial fusion demo reactor

Author

Norreys, P. A., primary, Ceurvorst, L., additional, Sadler, J. D., additional, Spiers, B. T., additional, Aboushelbaya, R., additional, Mayr, M. W., additional, Paddock, R., additional, Ratan, N., additional, Savin, A. F., additional, Wang, R. H. W., additional, Glize, K., additional, Trines, R. M. G. M., additional, Bingham, R., additional, Hill, M. P., additional, Sircombe, N., additional, Ramsay, M., additional, Allan, P., additional, Hobbs, L., additional, James, S., additional, Skidmore, J., additional, Fyrth, J., additional, Luis, J., additional, Floyd, E., additional, Brown, C., additional, Haines, B. M., additional, Olson, R. E., additional, Yi, S. A., additional, Zylstra, A. B., additional, Flippo, K., additional, Bradley, P. A., additional, Peterson, R. R., additional, Kline, J. L., additional, and Leeper, R. J., additional

Published
2020
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43. Integrated performance of large HDC-capsule implosions on the National Ignition Facility

Author

Hohenberger, M., primary, Casey, D. T., additional, Kritcher, A. L., additional, Pak, A., additional, Zylstra, A. B., additional, Thomas, C. A., additional, Baker, K. L., additional, Le Pape, S., additional, Bachmann, B., additional, Berger, R. L., additional, Biener, J., additional, Clark, D. S., additional, Divol, L., additional, Döppner, T., additional, Geppert-Kleinrath, V., additional, Hinkel, D., additional, Huang, H., additional, Kong, C., additional, Landen, O. L., additional, Milovich, J., additional, Nikroo, A., additional, Rice, N., additional, Robey, H., additional, Schoff, M., additional, Sevier, J., additional, Sequoia, K., additional, Stadermann, M., additional, Strozzi, D., additional, Volegov, P. L., additional, Weber, C., additional, Wild, C., additional, Woodworth, B., additional, Callahan, D. A., additional, and Hurricane, O. A., additional

Published
2020
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44. Hot-spot mix in large-scale HDC implosions at NIF

Author

Zylstra, A. B., primary, Casey, D. T., additional, Kritcher, A., additional, Pickworth, L., additional, Bachmann, B., additional, Baker, K., additional, Biener, J., additional, Braun, T., additional, Clark, D., additional, Geppert-Kleinrath, V., additional, Hohenberger, M., additional, Kong, C., additional, Le Pape, S., additional, Nikroo, A., additional, Rice, N., additional, Rubery, M., additional, Stadermann, M., additional, Strozzi, D., additional, Thomas, C., additional, Volegov, P., additional, Weber, C., additional, Wild, C., additional, Wilde, C., additional, Callahan, D. A., additional, and Hurricane, O. A., additional

Published
2020
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45. Saturn-ring proton backlighters for the National Ignition Facility

Author

Zylstra, A. B., primary, Craxton, R. S., additional, Rygg, J. R., additional, Li, C.-K., additional, Carlson, L., additional, Manuel, M. J.-E., additional, Alfonso, E. L., additional, Mauldin, M., additional, Gonzalez, L., additional, Youngblood, K., additional, Garcia, E. M., additional, Browning, L. T., additional, Le Pape, S., additional, Lemos, N. Candeias, additional, Lahmann, B., additional, Gatu Johnson, M., additional, Sio, H., additional, and Kabadi, N., additional

Published
2020
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48. Demonstration of Scale-Invariant Rayleigh-Taylor Instability Growth in Laser-Driven Cylindrical Implosion Experiments

Author

Sauppe, J. P., primary, Palaniyappan, S., additional, Tobias, B. J., additional, Kline, J. L., additional, Flippo, K. A., additional, Landen, O. L., additional, Shvarts, D., additional, Batha, S. H., additional, Bradley, P. A., additional, Loomis, E. N., additional, Vazirani, N. N., additional, Kawaguchi, C. F., additional, Kot, L., additional, Schmidt, D. W., additional, Day, T. H., additional, Zylstra, A. B., additional, and Malka, E., additional

Published
2020
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49. Symmetric fielding of the largest diamond capsule implosions on the NIF

Author

Kritcher, A. L., primary, Casey, D. T., additional, Thomas, C. A., additional, Zylstra, A. B., additional, Hohenberger, M., additional, Baker, K., additional, Le Pape, S., additional, Bachmann, B., additional, Bhandarkar, S., additional, Biener, J., additional, Braun, T., additional, Clark, D., additional, Divol, L., additional, Döppner, T., additional, Hinkel, D., additional, Kong, C., additional, Mariscal, D., additional, Millot, M., additional, Milovich, J., additional, Nikroo, A., additional, Pak, A., additional, Rice, N., additional, Robey, H., additional, Stadermann, M., additional, Sevier, J., additional, Strozzi, D., additional, Weber, C., additional, Wild, C., additional, Woodworth, B., additional, Edwards, J., additional, Callahan, D. A., additional, and Hurricane, O. A., additional

Published
2020
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50. H2(p,γ)He3 cross section measurement using high-energy-density plasmas

Author

Zylstra, A. B., primary, Herrmann, H. W., additional, Kim, Y. H., additional, McEvoy, A., additional, Frenje, J. A., additional, Johnson, M. Gatu, additional, Petrasso, R. D., additional, Glebov, V. Yu., additional, Forrest, C., additional, Delettrez, J., additional, Gales, S., additional, and Rubery, M., additional

Published
2020
Full Text
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