00:01
Hello everyone let's solve this question this question we have to find out delta g not value for the given reaction.
00:08
So let us choose the first reaction that is phosphoenol pyruid, phosphoenol pyruid.
00:19
It dissociate to form pyruid and a phosphate bond and delta g not value for this is minus 61 .9 kilojou per moon.
00:34
And let us consider the second reaction that is dissociation of atp into adp plus phosphate bond.
00:44
So here the delta g value for this reaction is minus 30 .5 kilojoule per moon.
00:52
Now we will reverse equation 1 and adding it to equation 2 that will give us the required equation.
01:13
So let us write it.
01:15
It will be pyruid plus phosphate bond gives phospho in all pyruid and we are adding it to the second that is atp gives atp plus pi.
01:37
So the pi is getting cancelled here and we will get the required reaction that is pyruvate plus atp gives phospho enol fireweight.
01:59
So, let us do the same thing with the delta g values.
02:03
So delta g not for the reaction, the above reaction will be, we have just reverse and added.
02:12
So it is 61 .9 kilojoule per mole plus minus 30 .5 kilojoule per mole and that will give the value 31 .4.
02:25
Kilojoules per moon.
02:27
So that is delta g not for the reaction.
02:31
This is the answer to the first part of the question.
02:36
Now let us move to the second one.
02:39
That is we have to find out the delta g not is minus r t log k e.
02:52
So we can write log k e equilibrium constant can be written as minus r t log k e.
03:00
So we can be written as minus r t log k e.
03:00
So we can be written as minus r t log k e.
03:00
Minus delta g not divided by r t so here we can substitute the value minus 31 .4 in multiplied by 10 to power 3 that is jules per mole we have converted kilojoules in jules divided by 8 .314 joules per kelvin mole that is value of r multiplied by 298 kelvin because temperature is 25 degrees so here it is minus 12 .673 so this is the value of log of k equilibrium so we can write k equilibrium is equals to e raised to power minus 12 .673 and we in when we solve it it is 3 .13 multiplied by 10 to power minus 6 so that will give us the value of equilibrium constant this completes the first part now, let us come to the second part of the question that is we have to find out the ratio at equilibrium...