show that every positive even integer is of the form 2q and the every positive odd integer is of the form to 2q + 1 where Q is some integer
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Answered by
2
aloha!
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we have to prove that every positive even integer is of the form 2q and every odd positive integer is of the form 2q + 1.
we know that,
a= bq + r
where a is some integer and b is divisor.
q is quotient and r is remainder.
now, let the positive integer ( even ) be a.
b would be equal to 2.
the remainder shall be less than 2.
a= bq + 0
a= 2q --------> which is even. any number multiplied by 2 will become even. ( 1st part proved )
but if 1 is added it would give us an odd number.
so,
adding 1 we get
a= bq + 1
which is an odd positive integer. ( 2nd part proved )
>>--------☺️---------<<
hope it helps :^)
>>--------☺️---------<<
is this question troubling you?
don't worry, I will help you out.
>>----------✪----------<<
we have to prove that every positive even integer is of the form 2q and every odd positive integer is of the form 2q + 1.
we know that,
a= bq + r
where a is some integer and b is divisor.
q is quotient and r is remainder.
now, let the positive integer ( even ) be a.
b would be equal to 2.
the remainder shall be less than 2.
a= bq + 0
a= 2q --------> which is even. any number multiplied by 2 will become even. ( 1st part proved )
but if 1 is added it would give us an odd number.
so,
adding 1 we get
a= bq + 1
which is an odd positive integer. ( 2nd part proved )
>>--------☺️---------<<
hope it helps :^)
Answered by
0
To Show :
Every positive odd integer is of the form 2qbabr that every positive odd integer is of the form 2q+1, where q € Z .
Solution :
Let a be any positive integer.
And let b = 2
So by Euclid's Division lemma there exist integers q and r such that ,
a = bq+r
a = 2q+r (b = 2)
And now ,
As we know that according to Euclid's Division Lemma :
0 ≤ r < b
Here ,
0 ≤ r < 2
Here the possible values of r are = 0,1
=> 0 ≤ r < 1
=> r = 0 or r = 1
a = 2q+0 = 2q or a = 2q+1
And if a = 2q , then a is an integer.
We know that an integer can be either odd or even.
So , therefore any odd integer is of the form 2q+1.
#Hence Proved
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