The complete segregation and maximum mixedness models are commonly used to derive this  function. This function is equal to tau squared over quantity two t cubed for a LFR. For a CSTR, it is one  over tau times e to the negative t over tau, while for a PFR, it is the Dirac delta of t shifted by tau. For a step input and pulse input, respectively, this function can be obtained by taking the time derivative of  the F curve or by dividing the C curve by the area under the C curve. Because this function is a probability  distribution function, its first moment gives the mean exit age of a molecule. For 10 points, identify
The complete segregation and maximum mixedness models are commonly used to derive this  function. This function is equal to tau squared over quantity two t cubed for a LFR. For a CSTR, it is one  over tau times e to the negative t over tau, while for a PFR, it is the Dirac delta of t shifted by tau. For a step input and pulse input, respectively, this function can be obtained by taking the time derivative of  the F curve or by dividing the C curve by the area under the C curve. Because this function is a probability  distribution function, its first moment gives the mean exit age of a molecule. For 10 points, identify this  distribution of the time a molecule has spent in a chemical reactor.
The complete segregation and maximum mixedness models are commonly used to derive this  function.
residence time distribution [or RTD; or exit age distribution or E of t until "exit ages" is read]