Solar proton events (SPEs) occur infrequently and unpredictably, thus representing a potential hazard to interplanetary space missions. Biological damage from SPEs will be produced principally through secondary electron production in tissue, including important contributions due to delta rays from nuclear reaction products. We review methods for estimating the biological effectiveness of SPEs using a high energy proton model and the parametric cellular track model. Results of the model are presented for several of the historically largest flares using typical levels and body shielding
Track theory is combined with a realistic model of a heavy ion beam to study the effects of nuclear ...
Track theory is combined with a realistic model of a heavy ion beam to study the effects of nuclear ...
High-energy protons traversing tissue produce local sources of high-linear-energy-transfer (LET) ion...
Solar proton events (SPEs) occur infrequently and unpredictably, thus representing a potential hazar...
The assessment of biological damage from the galactic cosmic rays (GCR) is a current interest for ex...
The phenomenological track-structure model of cell damage is discussed. A description of the applica...
Cell damage by high linear energy transfer (LET) radiations has been described by a phenomenological...
Cell damage by high LET radiations has been described by a phenomenological model (track theory) for...
The quality factor (QF) as defined in International Commission on Radiological Protection report no....
Cell damage by high LET radiations has been described by a phenomenological model (track theory) for...
A parametric track structure model is used to estimate the cross section as a function of particle v...
Radiological experiments with cell cultures are expected to be performed on Lifesat to study possibl...
The quality factor (QF) as defined in International Commission on Radiological Protection report no....
The track model of Katz is used to make predictions of cell damage rates for possible Lifesat experi...
The energy deposition characteristics of heavy ions vary substantially compared to those of photons....
Track theory is combined with a realistic model of a heavy ion beam to study the effects of nuclear ...
Track theory is combined with a realistic model of a heavy ion beam to study the effects of nuclear ...
High-energy protons traversing tissue produce local sources of high-linear-energy-transfer (LET) ion...
Solar proton events (SPEs) occur infrequently and unpredictably, thus representing a potential hazar...
The assessment of biological damage from the galactic cosmic rays (GCR) is a current interest for ex...
The phenomenological track-structure model of cell damage is discussed. A description of the applica...
Cell damage by high linear energy transfer (LET) radiations has been described by a phenomenological...
Cell damage by high LET radiations has been described by a phenomenological model (track theory) for...
The quality factor (QF) as defined in International Commission on Radiological Protection report no....
Cell damage by high LET radiations has been described by a phenomenological model (track theory) for...
A parametric track structure model is used to estimate the cross section as a function of particle v...
Radiological experiments with cell cultures are expected to be performed on Lifesat to study possibl...
The quality factor (QF) as defined in International Commission on Radiological Protection report no....
The track model of Katz is used to make predictions of cell damage rates for possible Lifesat experi...
The energy deposition characteristics of heavy ions vary substantially compared to those of photons....
Track theory is combined with a realistic model of a heavy ion beam to study the effects of nuclear ...
Track theory is combined with a realistic model of a heavy ion beam to study the effects of nuclear ...
High-energy protons traversing tissue produce local sources of high-linear-energy-transfer (LET) ion...