www.osa-opn.org 24 | OPN October 2008 Two positively charged
... purely quantum mechanical process. The time between ionization and re-collision is only a femtosecond or two. This re-collision electron wave packet can do one of three things. Each implies a direction in attosecond science. First, the electron can elastically scatter. Elastic scattering is diffract ...
... purely quantum mechanical process. The time between ionization and re-collision is only a femtosecond or two. This re-collision electron wave packet can do one of three things. Each implies a direction in attosecond science. First, the electron can elastically scatter. Elastic scattering is diffract ...
chenjiqualv04 - Physics at UC Merced
... second order dispersions and 1 2 are losses of each wave. Each NLSE Eq. (2) or Eq. (3) has dispersion term, self-phase modulation (SPM) term, cross-phase modulation (XPM) term and gain term. However, now in parametric amplifiers the gain is from the conjugation of other pulses through wave-mixing ...
... second order dispersions and 1 2 are losses of each wave. Each NLSE Eq. (2) or Eq. (3) has dispersion term, self-phase modulation (SPM) term, cross-phase modulation (XPM) term and gain term. However, now in parametric amplifiers the gain is from the conjugation of other pulses through wave-mixing ...
Optical probing of spin fluctuations of a single paramagnetic Mn
... valence-band mixing. However, the dark excitons mainly contribute to the signal by undergoing a spin flip to become bright excitons, which decay radiatively. The PL decay is then determined by both radiative decay and exciton spin flips. The exciton decay, and particularly the amplitude of the slow ...
... valence-band mixing. However, the dark excitons mainly contribute to the signal by undergoing a spin flip to become bright excitons, which decay radiatively. The PL decay is then determined by both radiative decay and exciton spin flips. The exciton decay, and particularly the amplitude of the slow ...
Department of Chemistry
... Fundamentals of analytical separations; distribution methods in discrete stages; methods in continuous stages; chromatographic methods: GC, HPLC, SFC; non-chromatographic methods: electrophoresis, field-flow fractionation, size exclusion; recent innovations. Designed for the Master’s Degree Programs ...
... Fundamentals of analytical separations; distribution methods in discrete stages; methods in continuous stages; chromatographic methods: GC, HPLC, SFC; non-chromatographic methods: electrophoresis, field-flow fractionation, size exclusion; recent innovations. Designed for the Master’s Degree Programs ...
