Асосий контентга ўтиш
AkademIndex

Маҳсулотлар

Ишлаб чиқувчилар учун

AkademBaseЭкотизим учун очиқ API
← Ишга қайтиш

Ушбу иш иқтибос қилган ишлар

37 та иш

Иш: Geant4-DNA modeling of nanodosimetric quantities in the Jet Counter for alpha particles

  1. Track structure of light ions: experiments and simulations

    V. Conte, P. Colautti, B. Großwendt +2

    Мақола20123 иқтибос
    ABI

  2. Single track nanodosimetry of low energy electrons

    A. Bantsar, B. Großwendt, S. Pszona +1

    Мақола20083 иқтибос
    ABI

  3. Comparison of <scp>GEANT4</scp> very low energy cross section models with experimental data in water

    S. Incerti, A. Ivanchenko, M. Karamitros +14

    Мақола20103 иқтибос
    ABI

  4. Recent advances of nanodosimetry

    B. Großwendt

    Мақола20043 иқтибос
    ABI

  5. Experimental equivalent cluster-size distributions in nanometric volumes of liquid water

    B. Großwendt, Laura De Nardo, P. Colautti +3

    Мақола20043 иқтибос
    ABI

  6. Track structure modeling in liquid water: A review of the Geant4-DNA very low energy extension of the Geant4 Monte Carlo simulation toolkit

    Mario A. Bernal, Marie‐Claude Bordage, Jeremy M. C. Brown +23

    Шарҳ мақола20153 иқтибос
    ABI

  7. Geant4‐DNA example applications for track structure simulations in liquid water: A report from the Geant4‐DNA Project

    S. Incerti, Ioanna Kyriakou, Mario A. Bernal +16

    Мақола20183 иқтибос
    ABI

  8. Applications of nanodosimetry in particle therapy planning and beyond

    Antoni Ruciński, Anna Biernacka, R. Schulte

    Шарҳ мақолаRadiation Therapy and DosimetryPhysics in Medicine and Biology20212 иқтибос
    ABI

  9. Nanodosimetry-Based Plan Optimization for Particle Therapy

    Margherita Casiraghi, R. Schulte

    Мақола20152 иқтибос
    ABI

  10. The track structure of α-particles from the point of view of ionization-cluster formation in "nanometric" volumes of nitrogen

    B. Großwendt, S. Pszona

    Шарҳ мақола20022 иқтибос
    ABI

  11. A new method for measuring ion clusters produced by charged particles in nanometre track sections of DNA size

    S. Pszona, J. Kula, S Marjanska

    Мақола20002 иқтибос
    ABI

  12. The performance of a novel ion-counting nanodosimeter

    Guy Garty, S. Shchemelinin, A. Breskin +6

    Мақола20022 иқтибос
    ABI

  13. Formation of ion clusters by low-energy electrons in nanometric targets: experiment and Monte Carlo simulation

    A. Bantsar, B. Großwendt, S. Pszona

    Мақола20062 иқтибос
    ABI

  14. Formation of ionization clusters in nanometric structures of propane-based tissue-equivalent gas or liquid water by electrons and α-particles

    B. Großwendt

    Мақола20022 иқтибос
    ABI

  15. Dose prescription in carbon ion radiotherapy: How to compare two different RBE-weighted dose calculation systems

    Silvia Molinelli, Giuseppe Magro, Andrea Mairani +17

    Мақола20162 иқтибос
    ABI

  16. An Approach to Experimental Microdosimetry at the Nanometre Scale

    S. Pszona, R. Gajewski

    Мақола19942 иқтибос
    ABI

  17. Fast calculation of nanodosimetric quantities in treatment planning of proton and ion therapy

    José Ramos‐Méndez, Lucas Burigo, R. Schulte +2

    Мақола20182 иқтибос
    ABI

  18. Radiobiological issues in prospective carbon ion therapy trials

    Piero Fossati, Naruhiro Matsufuji, Tadashi Kamada +1

    Шарҳ мақола20182 иқтибос
    ABI

  19. Simultaneous optimization of RBE-weighted dose and nanometric ionization distributions in treatment planning with carbon ions

    Lucas Burigo, José Ramos‐Méndez, Mark Bangert +2

    Мақола20182 иқтибос
    ABI

  20. Is the dose‐averaged <scp>LET</scp> a reliable predictor for the relative biological effectiveness?

    Rebecca Grün, Thomas Friedrich, Erik Tranéus +1

    Мақола20182 иқтибос
    ABI

  21. Unfolding the background of secondary ions in measured nanodosimetric ionisation cluster size distributions

    G. Hilgers, Marion U. Bug, Hans Rabus

    Мақола20192 иқтибос
    ABI

  22. Reducing the background of secondary ions in an ion-counting nanodosimeter

    G. Hilgers, Hans Rabus

    Мақола20192 иқтибос
    ABI

  23. “Broadscale” nanodosimetry: Nanodosimetric track structure quantities increase at distal edge of spread-out proton Bragg peaks

    Hans Rabus, Sonwabile Arthur Ngcezu, T. Braunroth +1

    Мақола20192 иқтибос
    ABI

  24. Modelling variable proton relative biological effectiveness for treatment planning

    Aimee L. McNamara, Henning Willers, Harald Paganetti

    Шарҳ мақола20192 иқтибос
    ABI

  25. Nanodosimetric understanding to the dependence of the relationship between dose-averaged lineal energy on nanoscale and LET on ion species

    Tianyuan Dai, Hui Zhang, Xinguo Liu +6

    Мақола20202 иқтибос
    ABI