using eculids division lemma sgow that any positive odd intiger is of the form 4q+1 or 4q+3 where q is same integer.
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Answered by
1
Hey Mate Here Is Your Answer
As per euclids division lemma
If a and b are 2 positive integer, then
a=bq+r
Let positive integer be a and b=4
Hence, a =4q+r
r is an integer greater than or equal to 0 and less than 4 hence r can be either 0,1,2,or 3.
If r=1
Our equation becomes
a=4q+r
a=4q+1
This will always be an odd integer.
If r=3
Our equation becomes
a=4q+r
a=4q+3
This will always be an odd integer.
Therefore, any odd integer is of the form 4q+1 or 4q+3....
Hence proved......
As per euclids division lemma
If a and b are 2 positive integer, then
a=bq+r
Let positive integer be a and b=4
Hence, a =4q+r
r is an integer greater than or equal to 0 and less than 4 hence r can be either 0,1,2,or 3.
If r=1
Our equation becomes
a=4q+r
a=4q+1
This will always be an odd integer.
If r=3
Our equation becomes
a=4q+r
a=4q+3
This will always be an odd integer.
Therefore, any odd integer is of the form 4q+1 or 4q+3....
Hence proved......
sunithasahu82:
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Answered by
3
Step-by-step explanation:
Let a be the positive integer.
And, b = 4 .
Then by Euclid's division lemma,
We can write a = 4q + r ,for some integer q and 0 ≤ r < 4 .
°•° Then, possible values of r is 0, 1, 2, 3 .
Taking r = 0 .
a = 4q .
Taking r = 1 .
a = 4q + 1 .
Taking r = 2
a = 4q + 2 .
Taking r = 3 .
a = 4q + 3 .
But a is an odd positive integer, so a can't be 4q , or 4q + 2 [ As these are even ] .
•°• a can be of the form 4q + 1 or 4q + 3 for some integer q .
Hence , it is solved .
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