Alkene Reactions: III
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

The reaction of an alkene with ozone, followed by dissolving metal reduction with zinc dust, involves the intermediate formation of an ozonide, which is reduced in the second step to split the alkene and form aldehydes and ketones.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

Diiodomethane in the presence of zinc-copper amalgam in ether, generates carbene (CH2) which inserts into the alkene p system to form a cyclopropane ring.

Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

The reaction of an alkene with KMnO4 in the presence of aqueous acid, results in the cleavage of the alkene and oxidation of each of the alkene carbons. Disubstituted alkene carbons will yield ketones, monosubstituted alkene carbons yield carboxylic acids and terminal alkenes generate CO2. If the oxidation is allowed to proceed for too long, any ketones which are produced can be further oxidized to carboxylic acids.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

Chloroform in the presence of strong base, generates dichlorocarbene (CCl2) which inserts into the alkene p system to form a dichlorocyclopropane ring.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

The reaction of an alkene with ozone, followed by dissolving metal reduction with zinc dust, involves the intermediate formation of an ozonide, which is reduced in the second step to split the alkene and form aldehydes and ketones.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

Diiodomethane in the presence of zinc-copper amalgam in ether, generates carbene (CH2) which inserts into the alkene p system to form a cyclopropane ring.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

Chloroform in the presence of strong base, generates dichlorocarbene (CCl2) which inserts into the alkene p system to form a dichlorocyclopropane ring.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

The reaction of an alkene with ozone, followed by dissolving metal reduction with zinc dust, involves the intermediate formation of an ozonide, which is reduced in the second step to split the alkene and form aldehydes and ketones.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

 

Diiodomethane in the presence of zinc-copper amalgam in ether, generates carbene (CH2) which inserts into the alkene p system to form a cyclopropane ring.
Using the drawing pallet on the right, draw the structure of the major organic product for the reaction shown below:

   

The reaction of an alkene with KMnO4 in the presence of aqueous acid, results in the cleavage of the alkene and oxidation of each of the alkene carbons. Disubstituted alkene carbons will yield ketones, monosubstituted alkene carbons yield carboxylic acids and terminal alkenes generate CO2. If the oxidation is allowed to proceed for too long, any ketones which are produced can be further oxidized to carboxylic acids.
That is correct!
Sorry, that is not correct. You should modify your structures and try again. If cis-trans- stereochemistry is required, please make sure you have drawn the appropriate isomer using the "wedge bonds".
Note: Stereochemistry is shown using the "wedge" bond.
Click on the solid wedge to reverse orientation.
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