We have conducted experiments on both the Vulcan and Titan laser facilities to study hot electron generation and transport in the context of fast ignition. Cu wires attached to Al cones were used to investigate the effect on coupling efficiency of plasma surround and the pre-formed plasma inside the cone. We found that with thin cones 15% of laser energy is coupled to the 40μm diameter wire emulating a 40μm fast ignition spot. Thick cone walls, simulating plasma in fast ignition, reduce coupling by x4. An increase of pre-pulse level inside the cone by a factor of 50 reduces coupling by a factor of 3. © 2010 IOP Publishing Ltd
Fast Ignition (FI) is a form of Inertial Confinement Fusion where the compression phase and the igni...
Nail-wire targets (20 μm diameter copper wires with 80 μm hemispherical head) were used to investiga...
One of the main issues of the fast ignitor scheme is the role of fast electron transport in the soli...
We have conducted experiments on both the Vulcan and Titan laser facilities to study hot electron ge...
Experimental results showing hot electron penetration into Cu wires using Kα fluorescence imaging ar...
This thesis described the generation and transportation of hot electron in fast ignition experiments...
Cone-guided fast ignition laser fusion depends critically on details of the interaction of an intens...
This thesis presents experimental measurements of fast electron energy transport made using optical ...
Fast electron transport and spatial energy deposition are investigated in integrated cone-guided Fas...
Here, we show that defocusing of the laser in the interaction of a picosecond duration, 1.053 μm wav...
The reentrant cone approach to Fast Ignition, an advanced Inertial Confinement Fusion scheme, remain...
The reentrant cone approach to Fast Ignition, an advanced Inertial Confinement Fusion scheme, remain...
An integrated experiment relevant to fast ignition. A Cu-doped deuterated polymer spherical shell ta...
The cone-guided fast ignition approach to Inertial Confinement Fusion requires laser-accelerated rel...
In cone-guided fast ignition (FI) inertial confinement fusion, successful ignition relies on the eff...
Fast Ignition (FI) is a form of Inertial Confinement Fusion where the compression phase and the igni...
Nail-wire targets (20 μm diameter copper wires with 80 μm hemispherical head) were used to investiga...
One of the main issues of the fast ignitor scheme is the role of fast electron transport in the soli...
We have conducted experiments on both the Vulcan and Titan laser facilities to study hot electron ge...
Experimental results showing hot electron penetration into Cu wires using Kα fluorescence imaging ar...
This thesis described the generation and transportation of hot electron in fast ignition experiments...
Cone-guided fast ignition laser fusion depends critically on details of the interaction of an intens...
This thesis presents experimental measurements of fast electron energy transport made using optical ...
Fast electron transport and spatial energy deposition are investigated in integrated cone-guided Fas...
Here, we show that defocusing of the laser in the interaction of a picosecond duration, 1.053 μm wav...
The reentrant cone approach to Fast Ignition, an advanced Inertial Confinement Fusion scheme, remain...
The reentrant cone approach to Fast Ignition, an advanced Inertial Confinement Fusion scheme, remain...
An integrated experiment relevant to fast ignition. A Cu-doped deuterated polymer spherical shell ta...
The cone-guided fast ignition approach to Inertial Confinement Fusion requires laser-accelerated rel...
In cone-guided fast ignition (FI) inertial confinement fusion, successful ignition relies on the eff...
Fast Ignition (FI) is a form of Inertial Confinement Fusion where the compression phase and the igni...
Nail-wire targets (20 μm diameter copper wires with 80 μm hemispherical head) were used to investiga...
One of the main issues of the fast ignitor scheme is the role of fast electron transport in the soli...