Show that every positive even integer is of the form 2q, and that every
positive odd integer is of the form 2q + 1, where q is some integer
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Let a be any positive integer and b=2. Then, by Euclid's division lemma there exist integers q and r such that
a = 2q + r , where 0 </= r < 2
now, 0 </= r <2
=> 0</= r</= 1
=> r=0 or, r=1 ( because r is an integer)
therefore a =2 q, then a is an even integer.
we know that an integer can either be even or odd. Therefore any odd integer is of the form 2q +1
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Let a be any positive integer and b=2. Then, by Euclid's division lemma there exist integers q and r such that
a = 2q + r , where 0 </= r < 2
now, 0 </= r <2
=> 0</= r</= 1
=> r=0 or, r=1 ( because r is an integer)
therefore a =2 q, then a is an even integer.
we know that an integer can either be even or odd. Therefore any odd integer is of the form 2q +1
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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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