Andere Kunden interessierten sich auch für
![Source of the hot Universe]( "Source of the hot Universe")
Source of the hot Universe30,99 €![The Dark Hollow Gaussian Laser Beams in Aberrated Optical Systems]( "The Dark Hollow Gaussian Laser Beams in Aberrated Optical Systems")
The Dark Hollow Gaussian Laser Beams in Aberrated Optical Systems38,99 €![Observational Constraints on the Dark Energy Equation of State]( "Observational Constraints on the Dark Energy Equation of State")
Observational Constraints on the Dark Energy Equation of State36,99 €![Deposition of magnetic shape-memory films and shaping of laser beams]( "Deposition of magnetic shape-memory films and shaping of laser beams")
Deposition of magnetic shape-memory films and shaping of laser beams38,99 €![Low Emittance Electron Beams]( "Low Emittance Electron Beams")
Low Emittance Electron Beams38,99 €![Merging and splitting of clusters in the calorimeter of KLOE detector]( "Merging and splitting of clusters in the calorimeter of KLOE detector")
Merging and splitting of clusters in the calorimeter of KLOE detector32,99 €![Investigation of a 14.5 GHz ECR Ion Source]( "Investigation of a 14.5 GHz ECR Ion Source")
Investigation of a 14.5 GHz ECR Ion Source32,99 €
The accurate calculations of the absorbed dose distribution in patients irradiated by clinical beams is very important in radiotherapy treatment. Currently, the most accurate method of radiation therapy dose calculation is the Monte Carlo (MC) simulation of radiation transport, which requires detailed information on the character of the beam in the form of a phase-space file, which imposes very high requirements for disk space and CPU time. Monte Carlo calculations of dose distribution using multiple-source models is an alternative to using the phase-space information as direct input to the dose calculation code.