An1MuS
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I'd like to know the result of deriving both sides of the equation in respect to time
[itex]v= \frac {V}{m}[/itex]
[itex]\frac {d}{dt}v=( \frac {d}{dt}) \frac {V}{m}[/itex]
which gives
[itex]\dot v = . . . ?[/itex]
If you want some backup, this is a very common thermodynamics relation, where V = volume, m = mass and v = specific volume [m3/kg]. In open systems, we want to know mass flow and volumetric flow so we get [itex]\dot m[/itex] [kg/s] and [itex]\dot V[/itex] [m3/s]. I'd like to know if there's such a thing about specific volume as well, and that depends on how you do that derivative.
Best wishes and thanks,
An1MuS
[itex]v= \frac {V}{m}[/itex]
[itex]\frac {d}{dt}v=( \frac {d}{dt}) \frac {V}{m}[/itex]
which gives
[itex]\dot v = . . . ?[/itex]
If you want some backup, this is a very common thermodynamics relation, where V = volume, m = mass and v = specific volume [m3/kg]. In open systems, we want to know mass flow and volumetric flow so we get [itex]\dot m[/itex] [kg/s] and [itex]\dot V[/itex] [m3/s]. I'd like to know if there's such a thing about specific volume as well, and that depends on how you do that derivative.
Best wishes and thanks,
An1MuS