To achieve high focal spot intensities in heavy ion fusion, the ion beam must be compressed longitudinally by factors of ten to one hundred before it is focused onto the target. The longitudinal compression is achieved by imposing an initial velocity profile tilt on the drifting beam. In this paper, the problem of longitudinal drift compression of intense charged particle beams is solved analytically for the two important cases corresponding to a cold beam, and a pressure-dominated beam, using a one-dimensional warm-fluid model describing the longitudinal beam dynamics
Longitudinal bunching factors in excess of 70 of a 300-keV, 27-mA K^{+} ion beam have been demonstra...
The dynamics of a longitudinally cold, charged-particle beam can be simulated by dividing the beam i...
Intense beams of heavy ions are well suited for heating matter to regimes of emerging interest. A ne...
Longitudinal bunch compression of intense ion beams for warm dense matter and heavy ion fusion appli...
Longitudinal compression of space-charge dominated beams can be achieved by imposing a head-to-tail ...
Heavy ion drivers for warm dense matter and heavy ion fusion applications use intense charge bunches...
A drift compression and final focus lattice for heavy ion beams should focus the entire beam pulse o...
Neutralized drift compression offers an effective method for particle beam focusing and current ampl...
The longitudinal and transverse dynamics of a heavy ion fusion beam during the drift compression and...
Heavy ion driven inertial fusion drivers and experiments use space-charge dominated beams that requi...
In the currently envisioned configurations for heavy ion fusion, it is necessary to longitudinally c...
In the currently envisioned configurations for heavy ion fusion, it is necessary to longitudinally c...
Longitudinal compression factors in excess of 50 of a 300-keV, 20-mA K+ ion beam have been demonstra...
Neutralized drift compression offers an effective method for particle beam focusing and current ampl...
Neutralized drift compression offers an effective means for particle beam pulse compression and curr...
Longitudinal bunching factors in excess of 70 of a 300-keV, 27-mA K^{+} ion beam have been demonstra...
The dynamics of a longitudinally cold, charged-particle beam can be simulated by dividing the beam i...
Intense beams of heavy ions are well suited for heating matter to regimes of emerging interest. A ne...
Longitudinal bunch compression of intense ion beams for warm dense matter and heavy ion fusion appli...
Longitudinal compression of space-charge dominated beams can be achieved by imposing a head-to-tail ...
Heavy ion drivers for warm dense matter and heavy ion fusion applications use intense charge bunches...
A drift compression and final focus lattice for heavy ion beams should focus the entire beam pulse o...
Neutralized drift compression offers an effective method for particle beam focusing and current ampl...
The longitudinal and transverse dynamics of a heavy ion fusion beam during the drift compression and...
Heavy ion driven inertial fusion drivers and experiments use space-charge dominated beams that requi...
In the currently envisioned configurations for heavy ion fusion, it is necessary to longitudinally c...
In the currently envisioned configurations for heavy ion fusion, it is necessary to longitudinally c...
Longitudinal compression factors in excess of 50 of a 300-keV, 20-mA K+ ion beam have been demonstra...
Neutralized drift compression offers an effective method for particle beam focusing and current ampl...
Neutralized drift compression offers an effective means for particle beam pulse compression and curr...
Longitudinal bunching factors in excess of 70 of a 300-keV, 27-mA K^{+} ion beam have been demonstra...
The dynamics of a longitudinally cold, charged-particle beam can be simulated by dividing the beam i...
Intense beams of heavy ions are well suited for heating matter to regimes of emerging interest. A ne...