This question cannot be answered without far more information including what functional groups are allowed and which aren’t
That contains the empirical formula for carbohydrates (CH2O)n like glucose, fructose, galactose, mannose, and all their mirror images. If treated as sugars only the question is reasonable…with 4 chiral centers in glucose…that’s 2^4 or 16. In Fructose, the keto version, there are 3 so 2^3 = 8
giving you 24 total (only if you assume they are talking just sugar).
Aldose and Ketose included that’s 24 isomers that are sugars. But the question doesn’t say that…so you are just starting.
Now, if you must do that in every conceivable combination that gives a different structure. there are hundreds. Is this what your instructor meant? Probably not as they cannot answer this question…very few can and even fewer would expect it from students.
the answer to that question for anything as large as a sugar there are an infinite number of all three kinds of isomer.
If you don’t say what kind of isomer you mean, the question is impossible to answer at your level…if just sugars, it’s still difficult….
to answer this you will draw every workable combination of bonds until you can do no more new variations that don’t violate any rules like the octet rule.
It would take the average person all day and night and would teach little more than patience.
For all the work, it gives useless information that does nothing to help teach skills used in organic chemistry reactions. You should try it for sure and you’ll understand what a complex question this is.
This question cannot be answered without far more information including what functional groups are allowed and which aren’t
That contains the empirical formula for carbohydrates (CH2O)n like glucose, fructose, galactose, mannose, and all their mirror images. If treated as sugars only the question is reasonable…with 4 chiral centers in glucose…that’s 2^4 or 16. In Fructose, the keto version, there are 3 so 2^3 = 8
giving you 24 total (only if you assume they are talking just sugar).
Aldose and Ketose included that’s 24 isomers that are sugars. But the question doesn’t say that…so you are just starting.
Now, if you must do that in every conceivable combination that gives a different structure. there are hundreds. Is this what your instructor meant? Probably not as they cannot answer this question…very few can and even fewer would expect it from students.
the answer to that question for anything as large as a sugar there are an infinite number of all three kinds of isomer.
If you don’t say what kind of isomer you mean, the question is impossible to answer at your level…if just sugars, it’s still difficult….
to answer this you will draw every workable combination of bonds until you can do no more new variations that don’t violate any rules like the octet rule.
It would take the average person all day and night and would teach little more than patience.
For all the work, it gives useless information that does nothing to help teach skills used in organic chemistry reactions. You should try it for sure and you’ll understand what a complex question this is.
This question cannot be answered without far more information including what functional groups are allowed and which aren’t
That contains the empirical formula for carbohydrates (CH2O)n like glucose, fructose, galactose, mannose, and all their mirror images. If treated as sugars only the question is reasonable…with 4 chiral centers in glucose…that’s 2^4 or 16. In Fructose, the keto version, there are 3 so 2^3 = 8
giving you 24 total (only if you assume they are talking just sugar).
Aldose and Ketose included that’s 24 isomers that are sugars. But the question doesn’t say that…so you are just starting.
Now, if you must do that in every conceivable combination that gives a different structure. there are hundreds. Is this what your instructor meant? Probably not as they cannot answer this question…very few can and even fewer would expect it from students.
the answer to that question for anything as large as a sugar there are an infinite number of all three kinds of isomer.
If you don’t say what kind of isomer you mean, the question is impossible to answer at your level…if just sugars, it’s still difficult….
to answer this you will draw every workable combination of bonds until you can do no more new variations that don’t violate any rules like the octet rule.
It would take the average person all day and night and would teach little more than patience.
For all the work, it gives useless information that does nothing to help teach skills used in organic chemistry reactions. You should try it for sure and you’ll understand what a complex question this is.
This question cannot be answered without far more information including what functional groups are allowed and which aren’t
That contains the empirical formula for carbohydrates (CH2O)n like glucose, fructose, galactose, mannose, and all their mirror images. If treated as sugars only the question is reasonable…with 4 chiral centers in glucose…that’s 2^4 or 16. In Fructose, the keto version, there are 3 so 2^3 = 8
giving you 24 total (only if you assume they are talking just sugar).
Aldose and Ketose included that’s 24 isomers that are sugars. But the question doesn’t say that…so you are just starting.
Now, if you must do that in every conceivable combination that gives a different structure. there are hundreds. Is this what your instructor meant? Probably not as they cannot answer this question…very few can and even fewer would expect it from students.
the answer to that question for anything as large as a sugar there are an infinite number of all three kinds of isomer.
If you don’t say what kind of isomer you mean, the question is impossible to answer at your level…if just sugars, it’s still difficult….
to answer this you will draw every workable combination of bonds until you can do no more new variations that don’t violate any rules like the octet rule.
It would take the average person all day and night and would teach little more than patience.
For all the work, it gives useless information that does nothing to help teach skills used in organic chemistry reactions. You should try it for sure and you’ll understand what a complex question this is.
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