Input interpretation
![kinetic energy of particle | incident particle | e^- (electron) radiation absorber | oxygen thickness | 20 cm](../image_source/c730987a1ee13fbef05c6af47214f695.png)
kinetic energy of particle | incident particle | e^- (electron) radiation absorber | oxygen thickness | 20 cm
Result
![0.14 MeV (megaelectronvolts)](../image_source/47e8bc3781769885c015dc2e83c4be5d.png)
0.14 MeV (megaelectronvolts)
Comparison as energy for 0.14 MeV
![≈ 0.27 × mass-energy of an electron ( 1 m_e c^2 )](../image_source/9cff328514f56237eb0edeb727245e6c.png)
≈ 0.27 × mass-energy of an electron ( 1 m_e c^2 )
![≈ 1.1 × average energy of a gamma ray photon ( ≈ 2×10^-14 J )](../image_source/27322937789165a1c8c1ee8ea6913307.png)
≈ 1.1 × average energy of a gamma ray photon ( ≈ 2×10^-14 J )
![≈ (1 to 1000) × energy of an X-ray photon ( 1×10^-17 to 2×10^-14 J )](../image_source/4742c639c0b645be2ac80575bb24f765.png)
≈ (1 to 1000) × energy of an X-ray photon ( 1×10^-17 to 2×10^-14 J )
Properties
![shielding thickness | 20 cm CSDA range | 0.0286 g/cm^2 stopping power | 2.95 MeV/(g/cm^2) collision stopping power | 2.95 MeV/(g/cm^2) radiative stopping power | 0.00482 MeV/(g/cm^2) radiation yield | 9.38×10^-4 density effect parameter | 0](../image_source/39df6a3d2e40e2ef17cb807ea17e1967.png)
shielding thickness | 20 cm CSDA range | 0.0286 g/cm^2 stopping power | 2.95 MeV/(g/cm^2) collision stopping power | 2.95 MeV/(g/cm^2) radiative stopping power | 0.00482 MeV/(g/cm^2) radiation yield | 9.38×10^-4 density effect parameter | 0
Range versus energy
![Range versus energy](../image_source/1a87cb29e32410e79f58a1bdb6bc0e3d.png)
Range versus energy
Radiation yield versus energy
![Range versus energy Radiation yield versus energy](../image_source/0dc3ca95c64c60c2e1e3be719dc346d3.png)
Range versus energy Radiation yield versus energy
Density effect parameter versus energy
![Range versus energy Density effect parameter versus energy](../image_source/7c0cb376271132dc6752ec03227ea866.png)
Range versus energy Density effect parameter versus energy
Stopping power versus energy
![Stopping power versus energy](../image_source/fae943121f7d14ed26c35cf4246ad7f7.png)
Stopping power versus energy
Absorber material properties
![〈Z/A〉 | 0.5 nuclear collision length (λ_T) | 61.3 g/cm^2 nuclear interaction length (λ_I) | 90.2 g/cm^2 radiation length (X_0) | 34.24 g/cm^2 minimum ionization (- dE/ dx |_ min) | 1.801 MeV/(g/cm^2) (at 20 °C and 1 atm) density | 1.429 g/L (at 0 °C) mean excitation energy | 95 eV Molière radius | 8.91 g/cm^2 pion collision length | 88.5 g/cm^2 pion interaction length | 121.9 g/cm^2 plasma energy | 0.74 eV](../image_source/0d42acd8fab10fb7131112b48359e743.png)
〈Z/A〉 | 0.5 nuclear collision length (λ_T) | 61.3 g/cm^2 nuclear interaction length (λ_I) | 90.2 g/cm^2 radiation length (X_0) | 34.24 g/cm^2 minimum ionization (- dE/ dx |_ min) | 1.801 MeV/(g/cm^2) (at 20 °C and 1 atm) density | 1.429 g/L (at 0 °C) mean excitation energy | 95 eV Molière radius | 8.91 g/cm^2 pion collision length | 88.5 g/cm^2 pion interaction length | 121.9 g/cm^2 plasma energy | 0.74 eV