I came across this molecule during reading up some patents. Thought it might be a fun challenge for those honing their skills in esoteric IUPAC nomenclature:
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Just a comment on the
challenge. When I began teaching, I wrestled with what I should do with IUPAC nomenclature. I had spent a virtual career seldom using it. In the pre-computer days, compounds were identified by their nomenclature, pre 196X CAS, post 196X CAS, German, French, common, trade, etc. I guess you could include IUPAC. If compounds are identified by their names, then a single name for each compound should enable exact searching.
In the computer era, you can search by structure. The actual structure is common to all names. If you could transfer that information, the names really didn't matter. Even with IUPAC names, there are the US variants, e.g., 1-hexene rather than hex-1-ene. None the less, both are quite understandable. If you think about my initial comment, then what matters more is whether one can draw the structure from an understandable name. For example, could you draw cholesterol from its IUPAC name? If you want a challenge, try writing its IUPAC name. I argue, cholesteryl acetate or 2-chlorocholesterol are readily understandable and more chemists could draw their structures than from IUPAC names.
Personally, I think it is an interesting challenge as to whether the programmers at Cambridge Scientific can create code to interpret the IUPAC rules to create a single satisfactory IUPAC name. In what I would argue conforms with my point, I presume curiouscat either used a structural representation or a systematic derivation of a name to draw the compound in the first place. I know students are required to use IUPAC nomenclature, but one should also keep in perspective that systematic nomenclature
should be the objective. I have yet to discover a textbook in which IUPAC names are used exclusively. Okay curiouscat, tell me I'm wrong and you first had to decode the IUPAC name.