In traditional 2D NMR experiments a 2D Fourier transform is used to process the data to obtain a plot corresponding to frequency and signal intensity. In a 2D relaxation correlation experiment the plot correlates intensity as a function of signal lifetime through a 2D Inverse Laplace transform. The T1-T2 plots are very effective for samples with long T2 lifetimes, (e.g., liquids). As an alternative, the T1-T2* method combines saturation recovery and free induction decay. This is beneficial for samples that are more rigid than liquids (i.e., most solid samples) demonstrating shorter T2* lifetimes. In our recent work on MR experiments of metal-organic frameworks, we discuss why solid samples are particularly challenging to measure. How their decay is sinc-gaussian and transverse lifetimes (T2) are short-lived, and demonstrate its use as a quantitative measurement in the solid state. This work uses these ideas while expanding the scope of this measurement to organic reactions employing two different approaches. The first is by monitoring the reaction by the growth and appearance of peaks corresponding to the products of the reaction in the T1-T2* correlation plots. This is effective when the starting reagents have long or challenging to measure T1 times. The second strategy is by monitoring the decrease or disappearance of peaks corresponding to the starting materials, with concurrent appearance and growth of peaks corresponding to the products in the T1-T2* correlation plots.