Calculate the corresponding hydraulic mean depth that would exist in the channel if the bed was unrippled. The rugosity coefficient in an unrippled channel is 0.015 and the rugosity coefficient actually observed by experiments on the rippled bed of channel is 0.020. Consider the value of hydraulic mean depth of the channel as 1.5 m.

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Sediment Transport and Irrigation Channels Design topics include: Irrigation canal design capacity, sediment load, bed and suspended load and also their measurements, sediment transport importance and its mechanics, non scouring design methods, india stable channels, irigation canal cross section and maintenance.   Sediment transport: Understanding the behavior and transport of sediment is important for designing irrigation systems. For example, sediment transport in irrigation canals can affect the sustainability of an irrigation system. Unwanted erosion or deposition can lead... Show more

Calculate the corresponding hydraulic mean depth that would exist in the channel if the bed was unrippled. The rugosity coefficient in an unrippled channel is 0.015 and the rugosity coefficient actually observed by experiments on the rippled bed of channel is 0.020. Consider the value of hydraulic mean depth of the channel as 1.5 m.