Changes

==Calculate the remaining dimensions==

==Calculate the remaining dimensions==

* Step 6: Multiply the depth of each separate component by the void ratio and then sum the total to find the 1 dimensional storage (in mm).

* Step 6: Multiply the depth of each separate component by the void ratio and then sum the total to find the 1 dimensional storage (in mm).

* Step 7: Calculate the required total storage (in m³):

* Step 7: Calculate the required total storage (m³):

<math>Storage=RVC_T\times A_c\times0.095</math>

<math>Storage=RVC_T\times A_c\times0.095</math>

{{Plainlist|1=Where:

{{Plainlist|1=Where:

* Step 8. Divide required storage (m³) by the 1 dimensional storage (in m) to find the required footprint area (A_p) for the bioretention in m².  

* Step 8. Divide required storage (m³) by the 1 dimensional storage (in m) to find the required footprint area (A_p) for the bioretention in m².  

* Step 9. Calculate the peak flow rate (''Q_p'', in L/s) through the filter media:

* Step 9. Calculate the peak flow rate (''Q_p'', in L/s) through the filter media:

<math>Q_{p} = A_{p}\times K_{sat}\times 3.6 \times10^-3</math>   

<math>Q_{p} = A_{p}\times K_{sat}\times 3.6 \times10^{-3}</math>   

{{Plainlist|1=Where:

{{Plainlist|1=Where:

*''K_sat'' is the saturated hydraulic conductivity of the filter media (mm/hr), and

*''K_sat'' is the saturated hydraulic conductivity of the filter media (mm/hr), and

*''A_p'' is the area of the practice (m².}}

*''A_p'' is the area of the practice (m²).}}

----

----