Changes

** If you are performing the typical Hydrogen-1 (Proton NMR) analysis of a sample, where these peaks are on the X-Axis represents different ways the electrons of a given Hydrogen within a compound are configured. For a simple compound where there is hydrogen in just one configuration (H2O / Water), you'd expect one peak. For Ethanol, CH3-CH2-OH, [https://www.youtube.com/watch?v=CjII0Cg882U we'd expect three peaks].

** If you are performing the typical Hydrogen-1 (Proton NMR) analysis of a sample, where these peaks are on the X-Axis represents different ways the electrons of a given Hydrogen within a compound are configured. For a simple compound where there is hydrogen in just one configuration (H2O / Water), you'd expect one peak. For Ethanol, CH3-CH2-OH, [https://www.youtube.com/watch?v=CjII0Cg882U we'd expect three peaks].

The stronger magnetic field, the greater resolution one can achieve. You will occasionally hear of people referring to the strength of the NMR in terms of MHz (as opposed to the strength of the magnetic field in Tesla). When this is the case, they are typically referring to the frequency of of Hydrogen-1 at a given field strength. So, in our case, at 1.4 Tesla, you could say we have a 60MHz NMR. The implication, again, is that it operates at 60MHz when using the Hydrogen-1 probe.

The stronger magnetic field, the greater resolution one can achieve. You will occasionally hear of people referring to the strength of the NMR in terms of MHz (as opposed to the strength of the magnetic field in Tesla). When this is the case, they are typically referring to the frequency of Hydrogen-1 at a given field strength. So, in our case, at 1.4 Tesla, you could say we have a 60MHz NMR. The implication, again, is that it operates at 60MHz when using the Hydrogen-1 probe.

== Terminology ==

== Terminology ==