The maximum achievable photon energy of compact, conventional, Compton-scattering X-
ray sources is currently limited by the maximum permissible field gradient of conventional …

Based on single particle tracking in the framework of classical Thomson scattering with
incoherent superposition, we developed a relativistic, three-dimensional numerical model …

A tailored-pulse-imploded core with a diameter of 70 μ m is flashed by counterirradiating
110 fs, 7 TW laser pulses. Photon emission (> 40 eV) from the core exceeds the emission …

All-optical sources of inverse Compton scattering can deliver X-and gamma-rays with
ultrashort duration, small size, and ultrahigh brilliance, having attracted great attention …

Pellet injection and repetitive laser illumination are key technologies for realizing inertial
fusion energy. Numerous studies have been conducted on target suppliers, injectors and …

A Ti: sapphire laser HAMA pumped by a diode-pumped solid-state laser (DPSSL) is
developed to enable a high-repetitive inertial confinement fusion (ICF) experiment to be …

We show how optical free-electron lasers and enhanced incoherent Thomson scattering
radiation sources can be realized with Traveling-Wave Thomson-Scattering (TWTS) today …

The injection and engagement of pellets using laser beam irradiation is one of the key
technologies to realize a laser-driven inertial fusion energy (IFE) reactor. We irradiated ultra …

Short but intense laser pulses may produce the high surface temperatures of metal or
semiconductor targets exceeding the corresponding melting points. Hydrodynamic modeling …

Target injection is a key technology to realizing inertial fusion energy. Here we present the
first demonstration of target injection and neutron generation. We injected more than 600 …