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Hello dear ... ur prove is here .
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If possible , let √3 be rational and let it's simplest form be a/b.
Than , a and b are integers having no common factor other than 1 , and b ≠ 0.
Now ,
{ on squaring both side }
{3 divides 3b^2}
{ 3 is prime and 3 divides a^2 => 3 divides a }
Let , a = 3c for some integer C.
putting a = 3c in (1 ) , we get
=> 3 divides b^2 [ 3 divides 3c^2]
=> 3 divides b
[ 3 is prime and 3 divides b^2 => 3 divides b ].
Thus , 3 is a common factor and a and b .
but , this contradict the fact that a and b have no common factor other than 1.
The contradicts arises by assuming that √3 is rational .
Hence , √3 is irrational .
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Hope it's helps you.
☺☺☺
_____________________________
If possible , let √3 be rational and let it's simplest form be a/b.
Than , a and b are integers having no common factor other than 1 , and b ≠ 0.
Now ,
{ on squaring both side }
{3 divides 3b^2}
{ 3 is prime and 3 divides a^2 => 3 divides a }
Let , a = 3c for some integer C.
putting a = 3c in (1 ) , we get
=> 3 divides b^2 [ 3 divides 3c^2]
=> 3 divides b
[ 3 is prime and 3 divides b^2 => 3 divides b ].
Thus , 3 is a common factor and a and b .
but , this contradict the fact that a and b have no common factor other than 1.
The contradicts arises by assuming that √3 is rational .
Hence , √3 is irrational .
_________________________________
Hope it's helps you.
☺☺☺
riju09:
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