TY - JOUR
T1 - A versatile 10-TW laser system with robust passive controls to achieve high stability and spatiotemporal quality
AU - Chu, H. H.
AU - Huang, S. Y.
AU - Yang, L. S.
AU - Chien, T. Y.
AU - Xiao, Y. F.
AU - Lin, J. Y.
AU - Lee, C. H.
AU - Chen, S. Y.
AU - Wang, J.
PY - 2004/7
Y1 - 2004/7
N2 - We discuss the design, construction, and output characteristics of a versatile 10-TW Ti : sapphire laser system of high stability and spatiotemporal quality. By pumping the three amplifier stages independently and running at saturation, an energy stability of 1.3% is obtained. Controls over self-phase modulation, high-order dispersion, spatial aberration, and amplified spontaneous emission are done by robust passive methods. A time-bandwidth product of 1.2 times the Fourier-transform limit with a temporal contrast larger than 5 × 108 in the -10-ns scale, 2 × 106 in the -100-ps scale, and 104 in the -1-ps scale are achieved. The beam can be focused down to 1.2 times the diffraction limit with 80% of the energy enclosed in the Gaussian focal spot. Beam-pointing stability is < 13 μrad. Such high stability and spatiotemporal quality have made possible precision control over extremely nonlinear laser-plasma experiments, and the capability of computerized independent control of prepulse, pump pulse, probe pulse, and on-line diagnoses have made this system highly versatile and reliable.
AB - We discuss the design, construction, and output characteristics of a versatile 10-TW Ti : sapphire laser system of high stability and spatiotemporal quality. By pumping the three amplifier stages independently and running at saturation, an energy stability of 1.3% is obtained. Controls over self-phase modulation, high-order dispersion, spatial aberration, and amplified spontaneous emission are done by robust passive methods. A time-bandwidth product of 1.2 times the Fourier-transform limit with a temporal contrast larger than 5 × 108 in the -10-ns scale, 2 × 106 in the -100-ps scale, and 104 in the -1-ps scale are achieved. The beam can be focused down to 1.2 times the diffraction limit with 80% of the energy enclosed in the Gaussian focal spot. Beam-pointing stability is < 13 μrad. Such high stability and spatiotemporal quality have made possible precision control over extremely nonlinear laser-plasma experiments, and the capability of computerized independent control of prepulse, pump pulse, probe pulse, and on-line diagnoses have made this system highly versatile and reliable.
UR - http://www.scopus.com/inward/record.url?scp=3242699605&partnerID=8YFLogxK
U2 - 10.1007/s00340-004-1533-3
DO - 10.1007/s00340-004-1533-3
M3 - 期刊論文
AN - SCOPUS:3242699605
SN - 0946-2171
VL - 79
SP - 193
EP - 201
JO - Applied Physics B: Lasers and Optics
JF - Applied Physics B: Lasers and Optics
IS - 2
ER -