In order to compare the curves, they must be normalized. The normalized RTD curve (often called...

 

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In order to compare the curves, they must be normalized. The normalized RTD curve (often called E(t)) is defined as C(t) *C(t) di E(t)=- Write a function called CompTrap that calculates the integral of a function using the Composite Trapezoidal rule. The input parameters are a vector of (evenly spaced) times over the time range [1], 12] and a vector of function values that corresponds to the time vector (you can assume that spacing of the data is uniform - you do not need to confirm this). to Normalise each of your concentration curves to give E(1) and in a new figure, plot these for each reactor using the same colours from part a. (NOTE: Instead of integrating to t= 0o you s should integrate to the last point in the data that you read in). Write the normalising value (which is equal C(1)dt) for each reactor to the command window, one to a line. In order to compare the curves, they must be normalized. The normalized RTD curve (often called E(t)) is defined as C(t) *C(t) di E(t)=- Write a function called CompTrap that calculates the integral of a function using the Composite Trapezoidal rule. The input parameters are a vector of (evenly spaced) times over the time range [1], 12] and a vector of function values that corresponds to the time vector (you can assume that spacing of the data is uniform - you do not need to confirm this). to Normalise each of your concentration curves to give E(1) and in a new figure, plot these for each reactor using the same colours from part a. (NOTE: Instead of integrating to t= 0o you s should integrate to the last point in the data that you read in). Write the normalising value (which is equal C(1)dt) for each reactor to the command window, one to a line.

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