Input interpretation
![radiocarbon years](../image_source/8832599adbb0b161241db28a0bf5c797.png)
radiocarbon years
Equation
![t(BP) = -t_Libby log(2, N/N_0) | t(BP) | radiocarbon years before present N | remaining number of radiocarbon atoms N_0 | initial number of radiocarbon atoms t_Libby | Libby half-life for radioactive decay of carbon-14 (≈ 5568 years)](../image_source/9cdbde262df22e154d3912f0a4545fe5.png)
t(BP) = -t_Libby log(2, N/N_0) | t(BP) | radiocarbon years before present N | remaining number of radiocarbon atoms N_0 | initial number of radiocarbon atoms t_Libby | Libby half-life for radioactive decay of carbon-14 (≈ 5568 years)
Input values
![remaining number of radiocarbon atoms | 1 mol (mole) initial number of radiocarbon atoms | 2 mol (moles)](../image_source/d49cc54b2ebd0860e6ff4a9e903aa9c4.png)
remaining number of radiocarbon atoms | 1 mol (mole) initial number of radiocarbon atoms | 2 mol (moles)
Result
![radiocarbon years before present | 175.6 billion seconds = 5564 average Gregorian years = 5568 years](../image_source/2f39784d009ef96a72dfe861678cc528.png)
radiocarbon years before present | 175.6 billion seconds = 5564 average Gregorian years = 5568 years