Simulation of DNA damage using Geant4-DNA: an overview of the “molecularDNA” example application
Authors
Chatzipapas, Konstantinos P.
Tran, Ngoc Hoang
Đorđević, Miloš

Živković, Sara
Zein, Sara
Shin, Wook-Geun
Sakata, Dousatsu
Lampe, Nathanael
Brown, Jeremy M. C.
Ristić-Fira, Aleksandra

Petrović, Ivan M.

Kyriakou, Ioanna

Emfietzoglou, Dimitris
Guatelli, Susanna
Incerti, Sebastien

Article (Published version)
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Purpose The scientific community shows great interest in the study of DNA damage induction, DNA damage repair, and the biological effects on cells and cellular systems after exposure to ionizing radiation. Several in silico methods have been proposed so far to study these mechanisms using Monte Carlo simulations. This study outlines a Geant4-DNA example application, named “molecularDNA”, publicly released in the 11.1 version of Geant4 (December 2022). Methods It was developed for novice Geant4 users and requires only a basic understanding of scripting languages to get started. The example includes two different DNA-scale geometries of biological targets, namely “cylinders” and “human cell”. This public version is based on a previous prototype and includes new features, such as: the adoption of a new approach for the modeling of the chemical stage, the use of the standard DNA damage format to describe radiation-induced DNA damage, and upgraded computational tools to estimate DNA damage ...response. Results Simulation data in terms of single-strand break and double-strand break yields were produced using each of the available geometries. The results were compared with the literature, to validate the example, producing less than 5% difference in all cases. Conclusion: “molecularDNA” is a prototype tool that can be applied in a wide variety of radiobiology studies, providing the scientific community with an open-access base for DNA damage quantification calculations. New DNA and cell geometries for the “molecularDNA” example will be included in future versions of Geant4-DNA.
Keywords:
DNA damage / double strand breaks / Geant4-DNA / molecularDNA / Monte Carlo simulationsSource:
Precision Radiation Oncology, 2023, InPressFunding / projects:
- European Space Agency [Geant4-DNA through the“BioRad3” project [contract 4000132935/21/NL/CRS,2021–2023]
- European Space Agency [Grant Number:4000132935/21/NL/CRS]
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VinčaTY - JOUR AU - Chatzipapas, Konstantinos P. AU - Tran, Ngoc Hoang AU - Đorđević, Miloš AU - Živković, Sara AU - Zein, Sara AU - Shin, Wook-Geun AU - Sakata, Dousatsu AU - Lampe, Nathanael AU - Brown, Jeremy M. C. AU - Ristić-Fira, Aleksandra AU - Petrović, Ivan M. AU - Kyriakou, Ioanna AU - Emfietzoglou, Dimitris AU - Guatelli, Susanna AU - Incerti, Sebastien PY - 2023 UR - https://vinar.vin.bg.ac.rs/handle/123456789/10661 AB - Purpose The scientific community shows great interest in the study of DNA damage induction, DNA damage repair, and the biological effects on cells and cellular systems after exposure to ionizing radiation. Several in silico methods have been proposed so far to study these mechanisms using Monte Carlo simulations. This study outlines a Geant4-DNA example application, named “molecularDNA”, publicly released in the 11.1 version of Geant4 (December 2022). Methods It was developed for novice Geant4 users and requires only a basic understanding of scripting languages to get started. The example includes two different DNA-scale geometries of biological targets, namely “cylinders” and “human cell”. This public version is based on a previous prototype and includes new features, such as: the adoption of a new approach for the modeling of the chemical stage, the use of the standard DNA damage format to describe radiation-induced DNA damage, and upgraded computational tools to estimate DNA damage response. Results Simulation data in terms of single-strand break and double-strand break yields were produced using each of the available geometries. The results were compared with the literature, to validate the example, producing less than 5% difference in all cases. Conclusion: “molecularDNA” is a prototype tool that can be applied in a wide variety of radiobiology studies, providing the scientific community with an open-access base for DNA damage quantification calculations. New DNA and cell geometries for the “molecularDNA” example will be included in future versions of Geant4-DNA. T2 - Precision Radiation Oncology T1 - Simulation of DNA damage using Geant4-DNA: an overview of the “molecularDNA” example application IS - InPress DO - 10.1002/pro6.1186 ER -
@article{ author = "Chatzipapas, Konstantinos P. and Tran, Ngoc Hoang and Đorđević, Miloš and Živković, Sara and Zein, Sara and Shin, Wook-Geun and Sakata, Dousatsu and Lampe, Nathanael and Brown, Jeremy M. C. and Ristić-Fira, Aleksandra and Petrović, Ivan M. and Kyriakou, Ioanna and Emfietzoglou, Dimitris and Guatelli, Susanna and Incerti, Sebastien", year = "2023", abstract = "Purpose The scientific community shows great interest in the study of DNA damage induction, DNA damage repair, and the biological effects on cells and cellular systems after exposure to ionizing radiation. Several in silico methods have been proposed so far to study these mechanisms using Monte Carlo simulations. This study outlines a Geant4-DNA example application, named “molecularDNA”, publicly released in the 11.1 version of Geant4 (December 2022). Methods It was developed for novice Geant4 users and requires only a basic understanding of scripting languages to get started. The example includes two different DNA-scale geometries of biological targets, namely “cylinders” and “human cell”. This public version is based on a previous prototype and includes new features, such as: the adoption of a new approach for the modeling of the chemical stage, the use of the standard DNA damage format to describe radiation-induced DNA damage, and upgraded computational tools to estimate DNA damage response. Results Simulation data in terms of single-strand break and double-strand break yields were produced using each of the available geometries. The results were compared with the literature, to validate the example, producing less than 5% difference in all cases. Conclusion: “molecularDNA” is a prototype tool that can be applied in a wide variety of radiobiology studies, providing the scientific community with an open-access base for DNA damage quantification calculations. New DNA and cell geometries for the “molecularDNA” example will be included in future versions of Geant4-DNA.", journal = "Precision Radiation Oncology", title = "Simulation of DNA damage using Geant4-DNA: an overview of the “molecularDNA” example application", number = "InPress", doi = "10.1002/pro6.1186" }
Chatzipapas, K. P., Tran, N. H., Đorđević, M., Živković, S., Zein, S., Shin, W., Sakata, D., Lampe, N., Brown, J. M. C., Ristić-Fira, A., Petrović, I. M., Kyriakou, I., Emfietzoglou, D., Guatelli, S.,& Incerti, S.. (2023). Simulation of DNA damage using Geant4-DNA: an overview of the “molecularDNA” example application. in Precision Radiation Oncology(InPress). https://doi.org/10.1002/pro6.1186
Chatzipapas KP, Tran NH, Đorđević M, Živković S, Zein S, Shin W, Sakata D, Lampe N, Brown JMC, Ristić-Fira A, Petrović IM, Kyriakou I, Emfietzoglou D, Guatelli S, Incerti S. Simulation of DNA damage using Geant4-DNA: an overview of the “molecularDNA” example application. in Precision Radiation Oncology. 2023;(InPress). doi:10.1002/pro6.1186 .
Chatzipapas, Konstantinos P., Tran, Ngoc Hoang, Đorđević, Miloš, Živković, Sara, Zein, Sara, Shin, Wook-Geun, Sakata, Dousatsu, Lampe, Nathanael, Brown, Jeremy M. C., Ristić-Fira, Aleksandra, Petrović, Ivan M., Kyriakou, Ioanna, Emfietzoglou, Dimitris, Guatelli, Susanna, Incerti, Sebastien, "Simulation of DNA damage using Geant4-DNA: an overview of the “molecularDNA” example application" in Precision Radiation Oncology, no. InPress (2023), https://doi.org/10.1002/pro6.1186 . .