00:08
This question asks us for the products of each of these reactions.
00:12
So starting with a, if we have an excess of cl2, for each pie bond, we'll add a chlorine to each carbon.
00:20
So we have two pie bonds, so each carbon gets two chlorines.
00:23
So we'll have two chlorines on this side, two chlorines on this carbon, and then we'll have the rest of that molecule.
00:35
If we have just one equivalent of chlorine, then we'll get an alkene.
00:40
And chlorine adds anti, so we get a transalkene.
00:43
So if we have that c, we'll have a chlorine up and down on the other side.
00:49
And then we will have the rest of that molecule over there.
00:55
If we have water, acid, and the mercuric ion with the terminal alkyne, that will give us acid catalysis hydration.
01:04
So we're going to end up adding an oh to one of these carbons.
01:09
And because this one will give us a more stable carbocadion, that is the one that's going to get the oh on it.
01:15
So first we'll get an enol that will look like this.
01:22
And then that will totomerize into a ketone that will look like that.
01:30
Okay.
01:31
And then for d, now we have that same alkyne, but now we're doing hydroboration oxidation on it.
01:37
So instead of attacking the more substituted carbon with the oh, we're going to end up with the oh on the less substituted carbon.
01:45
So our enol will look a little bit different.
01:47
It'll look like this.
01:52
And then when we tetamorize, we'll get an althahide instead of the ketone that we had before.
01:58
So it'll look like that.
02:05
There is our aldehyde.
02:08
In e, we have an alkyne with h2 and palladium.
02:12
And that will reduce it all the way to.
02:14
An alcan...