DETAILS:

$1.$Draw out an entire IR spectrum labeling all potential peaks that you can observe. You may rely on the "unicorn" spectrum that we drew in class together for guidance.

a$.$ Make it a full$-$page size for easy viewing.

b$.$ Use colors. Label the peaks with different colors and indicate the wavenumbers for each peak range. Show what bond is associated with each peak.

$2.$ Draw out a "unicorn" $1^H-NMR$ spectrum.

a$.$ Indicate all potential peaks for each region. You may draw the peaks as singlets or choose to represent different splitting patterns $($doublet$,$ triplet, so on$).$

b$.$ Make sure all signals are in the proper region with appropriate ppm values.

c$.$ Label what bonding neighborhood is represented. $($i$.$e$.,H$ on primary $s{p}^{3}C,H$ on $s{p}^{2}C)$

d$.$ Label the $"x"$ axis for upfield$/$downfield and shielded$/$deshielded locations.

$3.$ Draw out a "unicorn" ${13}^C-$NMR spectrum.

a$.$ Indicate all potential peaks for each region.

b$.$ Make sure all signals are in the proper region with appropriate ppm values.

c$.$ Label what bonding neighborhood is represented. $($i$.$e$.,s{p}^{3}C$ connected to a $s{p}^{3}C,$ vinylic $C$ in $C=C$ bond, and so on$)$