| ... | @@ -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). 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 [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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