Comprehensive track structure-based simulations of DNA damage induced in human cells by photons (5 keV-1.3 MeV) and light ions (0.25-512 MeV/u) were performed with PARTRAC. DNA strand breaks, double-strand breaks and their clustering were scored. Effective LET values were established for photons that provide LET-dependent damage yields in agreement with the data for ions. The resulting database captures the variations of biological effectiveness with radiation quality. In particular, it can help compare the effectiveness of conventional radiotherapy using photon beams with techniques relying on proton or ion beams
The PARTRAC code has been developed constantly in the last several years. It is a Monte Carlo code b...
The PARTRAC code enables to simulate, using Monte Carlo methods, individual energy deposition events...
This thesis introduces and explores various numerical models for calculating DNA damage produced by ...
Comprehensive track structure-based simulations of DNA damage induced in human cells by photons (5 k...
The biophysical simulation code PARTRAC was extended by a module to handle ions heavier than alpha p...
The biophysical simulation code PARTRAC was extended by a module to handle ions heavier than alpha p...
Track structure based simulations valuably complement experimental research on biological effects of...
Track structure based simulations valuably complement experimental research on biological effects of...
A module for proton track structure simulation in liquid water was implemented in the biophysical mo...
Track structures and resulting DNA damage in human cells have been simulated for hydrogen, helium, c...
Track structures and resulting DNA damage in human cells have been simulated for hydrogen, helium, c...
Track structures and resulting DNA damage in human cells have been simulated for hydrogen, helium, c...
Existing radiation codes for biomedical applications face the challenge of dealing with largely diff...
Existing radiation codes for biomedical applications face the challenge of dealing with largely diff...
Existing radiation codes for biomedical applications face the challenge of dealing with largely diff...
The PARTRAC code has been developed constantly in the last several years. It is a Monte Carlo code b...
The PARTRAC code enables to simulate, using Monte Carlo methods, individual energy deposition events...
This thesis introduces and explores various numerical models for calculating DNA damage produced by ...
Comprehensive track structure-based simulations of DNA damage induced in human cells by photons (5 k...
The biophysical simulation code PARTRAC was extended by a module to handle ions heavier than alpha p...
The biophysical simulation code PARTRAC was extended by a module to handle ions heavier than alpha p...
Track structure based simulations valuably complement experimental research on biological effects of...
Track structure based simulations valuably complement experimental research on biological effects of...
A module for proton track structure simulation in liquid water was implemented in the biophysical mo...
Track structures and resulting DNA damage in human cells have been simulated for hydrogen, helium, c...
Track structures and resulting DNA damage in human cells have been simulated for hydrogen, helium, c...
Track structures and resulting DNA damage in human cells have been simulated for hydrogen, helium, c...
Existing radiation codes for biomedical applications face the challenge of dealing with largely diff...
Existing radiation codes for biomedical applications face the challenge of dealing with largely diff...
Existing radiation codes for biomedical applications face the challenge of dealing with largely diff...
The PARTRAC code has been developed constantly in the last several years. It is a Monte Carlo code b...
The PARTRAC code enables to simulate, using Monte Carlo methods, individual energy deposition events...
This thesis introduces and explores various numerical models for calculating DNA damage produced by ...