Difference between revisions of "Education:ExampleProductA"
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| − | [[File:ExampleProductA| | + | [[File:ExampleProductA.png|200px|center]] |
| − | <big>INCORRECT!</big> | + | <span style="color:red"><big>'''INCORRECT!'''</big></span> |
;Type of reaction | ;Type of reaction | ||
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;Position of attack | ;Position of attack | ||
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The methyl group directs the attack ortho/para, so this product (from para attack) is substituted at the correct position. | The methyl group directs the attack ortho/para, so this product (from para attack) is substituted at the correct position. | ||
;Position of C=O | ;Position of C=O | ||
| + | [[File:Red x small.PNG|15px|left]] | ||
The product of acylation should have the carbonyl C=O next to the ring. This is because this group becomes the electrophile that attacks the ring. The product A shown would need the methyl end of the chain to react as electrophile - very unlikely! | The product of acylation should have the carbonyl C=O next to the ring. This is because this group becomes the electrophile that attacks the ring. The product A shown would need the methyl end of the chain to react as electrophile - very unlikely! | ||
[[Category:ChemSpider Education]] | [[Category:ChemSpider Education]] | ||
Latest revision as of 23:17, 1 September 2010
INCORRECT!
- Type of reaction
This is a Friedel-Crafts acylation, which is a type of electrophilic aromatic substitution that occurs on aromatic rings that are not strongly deactivated.
- Position of attack
The methyl group directs the attack ortho/para, so this product (from para attack) is substituted at the correct position.
- Position of C=O
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The product of acylation should have the carbonyl C=O next to the ring. This is because this group becomes the electrophile that attacks the ring. The product A shown would need the methyl end of the chain to react as electrophile - very unlikely!
