GeV laser-plasma electron acceleration in a cm-scale capillary waveguide

Optics InfoBase Conference Papers (2006)

Authors:

K Nakamura, C Tóth, B Nagler, CGR Geddes, CB Schroeder, E Esarey, WP Leemans, AJ Gonsalves, SM Hooker

Abstract:

33 mm plasma channels produced in a gas-filled capillary discharge and 40 TW, 40 fs laser pulses were used to produce GeV electron beams in a multi-table-top setup. ©2006 Optical Society of America.

GeV laser-plasma electron acceleration in a cm-scale capillary waveguide

Optics InfoBase Conference Papers (2006)

Authors:

K Nakamura, C Tóth, B Nagler, CGR Geddes, CB Schroeder, E Esarey, WP Leemans, AJ Gonsalves, SM Hooker

Abstract:

33 mm plasma channels produced in a gas-filled capillary discharge and 40 TW, 40 fs laser pulses were used to produce GeV electron beams in a multi-table-top setup. © 2006 Optical Society of America.

GeV laser-plasma electron acceleration in a cm-scale capillary waveguide

Optics Infobase Conference Papers (2006)

Authors:

K Nakamura, C Tóth, B Nagler, CGR Geddes, CB Schroeder, E Esarey, WP Leemans, AJ Gonsalves, SM Hooker

Abstract:

33 mm plasma channels produced in a gas-filled capillary discharge and 40 TW, 40 fs laser pulses were used to produce GeV electron beams in a multi-table-top setup. © 2006 Optical Society of America.

GeV laser-plasma electron acceleration in a cm-scale capillary waveguide

Optics InfoBase Conference Papers (2006)

Authors:

K Nakamura, C Tóth, B Nagler, CGR Geddes, CB Schroeder, E Esarey, WP Leemans, AJ Gonsalves, SM Hooker

Abstract:

33 mm plasma channels produced in a gas-filled capillary discharge and 40 TW, 40 fs laser pulses were used to produce GeV electron beams in a multi-table-top setup.

Integral experiments for fast ignition research

Fusion Science and Technology 49:3 (2006) 342-357

Authors:

KA Tanaka, R Kodama, PA Norreys

Abstract:

This paper reviews the important schemes that have been investigated thus far in fast ignition research. Integral experiments for fast ignition research have been conducted utilizing various schemes: (a) double-pulse experiments with two 100-ps pulses injected to a compressed core, (b) gold cone-guided implosion with 100-TW laser pulse heating, and (c) imploded core heated by both a 100-TW and petawatt laser pulses through gold cones. Reviewing these results, several important issues were raised for further development of fast ignition research. The imploded core heated by a petawatt laser through a gold cone showed a 103 D-D neutron increase compared to the one with only the CD shell implosion.