Chromosome aberrations in human lymphocytes exposed to different doses of particle radiation: 150 MeV and spread out Bragg peak proton beams, 22 MeV/u boron beam and 199 V/u carbon beam were studied. For comparison, an experiment with 60Co γ-rays was also performed. We investigated distributions of aberration frequency and the shape of dose–response curves for the total aberration yield as well as for exchange and non-exchange aberrations, separately. Applying the linear-quadratic model, we could derive a relation between the fitted parameters and the ion track radius which could explain experimentally observed curvature of the dose–response curves. The results compared with physical expectations clearly show that the biological effects of ...
A few examples of models of chromosome aberration induction are summarised and discussed on the basi...
Inheritable chromosome aberrations (CA) are of concern because cytogenetic damage may trigger the ca...
Linear Energy Transfer (LET) is the main physical parameter to compare charged particles to photons ...
We irradiated normal human lymphocytes and fibroblasts with 137Cs γ rays, 3.5 MeV α particles and 1 ...
DNA damage of peripheral blood lymphocytes exposed to gamma and proton irradiation is studied by mea...
In the present study we examined the cytogenetic effects of 177 MeV/u Fe-ions (LET = 335 keV/$\mu m$...
Charged particles are adopted for cancer hadrontherapy and account for environmentally relevant expo...
Cytogenetic data accumulated from the experiments with peripheral blood lymphocytes exposed to dense...
Radiotherapy with high-energy carbon ion beams can be more advantageous compared to photons because ...
Cytogenetic data accumulated from the experiments with peripheral blood lymphocytes exposed to dense...
Due to its ability to induce DNA damage in a space and time controlled manner, ionising radiation is...
Purpose: To investigate the mechanisms underlying the induction of chromosome aberrations by ionizin...
The biological response to high linear energy transfer (LET) radiation differs considerably from tha...
We investigated the biological effects influenced by DNA damage distribution using accelerated heavy...
Due to its ability to induce DNA damage in a space and time controlled manner, ionising radiation is...
A few examples of models of chromosome aberration induction are summarised and discussed on the basi...
Inheritable chromosome aberrations (CA) are of concern because cytogenetic damage may trigger the ca...
Linear Energy Transfer (LET) is the main physical parameter to compare charged particles to photons ...
We irradiated normal human lymphocytes and fibroblasts with 137Cs γ rays, 3.5 MeV α particles and 1 ...
DNA damage of peripheral blood lymphocytes exposed to gamma and proton irradiation is studied by mea...
In the present study we examined the cytogenetic effects of 177 MeV/u Fe-ions (LET = 335 keV/$\mu m$...
Charged particles are adopted for cancer hadrontherapy and account for environmentally relevant expo...
Cytogenetic data accumulated from the experiments with peripheral blood lymphocytes exposed to dense...
Radiotherapy with high-energy carbon ion beams can be more advantageous compared to photons because ...
Cytogenetic data accumulated from the experiments with peripheral blood lymphocytes exposed to dense...
Due to its ability to induce DNA damage in a space and time controlled manner, ionising radiation is...
Purpose: To investigate the mechanisms underlying the induction of chromosome aberrations by ionizin...
The biological response to high linear energy transfer (LET) radiation differs considerably from tha...
We investigated the biological effects influenced by DNA damage distribution using accelerated heavy...
Due to its ability to induce DNA damage in a space and time controlled manner, ionising radiation is...
A few examples of models of chromosome aberration induction are summarised and discussed on the basi...
Inheritable chromosome aberrations (CA) are of concern because cytogenetic damage may trigger the ca...
Linear Energy Transfer (LET) is the main physical parameter to compare charged particles to photons ...