| ... | @@ -19,7 +19,7 @@ The underwater light conditions is depending on the the irradiation and the exti |
... | @@ -19,7 +19,7 @@ The underwater light conditions is depending on the the irradiation and the exti |
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I_{z} = I_{0} \cdot e^{-k_{d} \cdot z}
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I_{z} = I_{0} \cdot e^{-k_{d} \cdot z}
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```
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```
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The extinction coefficient ($`k_{d}`$) is depending on the amount of Total Particulate Matter (TPM) in the water that varies over the season (described by [cosine function](Data#suspended-solids)). The extinction coefficient is calculated from the TPM concentration using a simplified version of the function that is used by Los and Wijsman (2007), based on Van Gils and Tatman (2003).
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The extinction coefficient ($`k_{d}`$) is depending on the amount of Total Particulate Matter (TPM) in the water that varies over the season (described by the [cosine function](Data#suspended-solids)). The extinction coefficient is calculated from the TPM concentration using a simplified version of the function that is used by Los and Wijsman (2007), based on Van Gils and Tatman (2003).
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Los and Wijsman (2007) use the relation from Van Gils and Tatman (2003)
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Los and Wijsman (2007) use the relation from Van Gils and Tatman (2003)
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