142 unifying physics of accelerators, lasers and plasma
EXERCISES
7.1 Chapter materials review.
Describe the methods of the creation of a monochromatic X-
ray beam in Compton sources.
7.2 Chapter materials review.
In laser plasma acceleration, the final energy of an accelerated electron beam is 1 GeV. The wavelength of the laser used
for laser plasma acceleration is 800 nm. Part of the same laser
pulse is redirected with mirrors to collide head-on with the
accelerated electron beam. Estimate the energy of photons
created in such a Compton source and the angular spread of
the photons.
7.3 Mini-project.
Select a desired photon energy of a laser plasma acceleration
betatron X-ray source (e.g., from 1 to 100 keV) and devise
a consistent set of basic parameters describing the source.
Discuss the justifications for selecting particular values of
certain parameters (for plasma or laser, etc.). Estimate the
brightness of the source.
7.4 Mini-project.
Select a desired photon energy of a Compton X-ray source
(e.g., from 1 keV to 10 MeV) and devise a consistent set of
basic parameters describing the source. Discuss the reasons
for selecting particular values of certain parameters (for electron beam, laser, etc.). Estimate the brightness of the source.
7.5 Analyze inventions or discoveries using TRIZ and AS-TRIZ.
Analyze and describe scientific or technical inventions described in this chapter in terms of the TRIZ and AS-TRIZ approaches, identifying a contradiction and an inventive principle that were used (could have been used) for these inventions.
7.6 Developing AS-TRIZ parameters and inventive principles.
Based on what you already know about accelerator science,
discuss and suggest the possible additional parameters for
the AS-TRIZ contradiction matrix, as well as the possible additional AS-TRIZ inventive principles.
EXERCISES
7.1 Chapter materials review.
Describe the methods of the creation of a monochromatic X-
ray beam in Compton sources.
7.2 Chapter materials review.
In laser plasma acceleration, the final energy of an accelerated electron beam is 1 GeV. The wavelength of the laser used
for laser plasma acceleration is 800 nm. Part of the same laser
pulse is redirected with mirrors to collide head-on with the
accelerated electron beam. Estimate the energy of photons
created in such a Compton source and the angular spread of
the photons.
7.3 Mini-project.
Select a desired photon energy of a laser plasma acceleration
betatron X-ray source (e.g., from 1 to 100 keV) and devise
a consistent set of basic parameters describing the source.
Discuss the justifications for selecting particular values of
certain parameters (for plasma or laser, etc.). Estimate the
brightness of the source.
7.4 Mini-project.
Select a desired photon energy of a Compton X-ray source
(e.g., from 1 keV to 10 MeV) and devise a consistent set of
basic parameters describing the source. Discuss the reasons
for selecting particular values of certain parameters (for electron beam, laser, etc.). Estimate the brightness of the source.
7.5 Analyze inventions or discoveries using TRIZ and AS-TRIZ.
Analyze and describe scientific or technical inventions described in this chapter in terms of the TRIZ and AS-TRIZ approaches, identifying a contradiction and an inventive principle that were used (could have been used) for these inventions.
7.6 Developing AS-TRIZ parameters and inventive principles.
Based on what you already know about accelerator science,
discuss and suggest the possible additional parameters for
the AS-TRIZ contradiction matrix, as well as the possible additional AS-TRIZ inventive principles.