^Answer the question from the attachment^
#contentqualityrequired
#nospamanswers
Attachments:
Answers
Answered by
4
By Euclid's division lemma
a = bq + r , 0 < r < b
Let a be any positive integer
and b = 6
then r = 0 , 1 , 2 , 3 , 4 , 5
When r = 0
a = 6q
When r = 1
a = 6q + 1
When r = 2
a = 6q + 2
When r = 3
a = 6q + 3
When r = 4
a = 6q + 4
When r = 5
a = 6q + 5
(6q) , (6q + 2) , (6q + 4) are even Integers as sum of two even Integers is always even .
So the odd positive Integers are
(6q + 1), (6q + 3) and (6q + 5)
a = bq + r , 0 < r < b
Let a be any positive integer
and b = 6
then r = 0 , 1 , 2 , 3 , 4 , 5
When r = 0
a = 6q
When r = 1
a = 6q + 1
When r = 2
a = 6q + 2
When r = 3
a = 6q + 3
When r = 4
a = 6q + 4
When r = 5
a = 6q + 5
(6q) , (6q + 2) , (6q + 4) are even Integers as sum of two even Integers is always even .
So the odd positive Integers are
(6q + 1), (6q + 3) and (6q + 5)
Anny121:
thanks a lot☺️
Answered by
2
Hey friend , Harish here.
Here is your answer.
To prove ,
An odd integer is of the form 6q + 1 , 6 q +3 , 6q + 5
Proof,
Use Euclid's Division lemma.
It tell us that, a = b q + r , where 0 ≤ r < 8.
Here ,
→ a = 6 q + r , where 0 ≤ r < 6.
So,
r must be odd, and less than 6 in this condition.
So,
a = 6q + 1 , a = 6q + 3 , a = 6q + 5 .
Hence proved.
______________________________________________
Hope my answer is helpful to you.
Here is your answer.
To prove ,
An odd integer is of the form 6q + 1 , 6 q +3 , 6q + 5
Proof,
Use Euclid's Division lemma.
It tell us that, a = b q + r , where 0 ≤ r < 8.
Here ,
→ a = 6 q + r , where 0 ≤ r < 6.
So,
r must be odd, and less than 6 in this condition.
So,
a = 6q + 1 , a = 6q + 3 , a = 6q + 5 .
Hence proved.
______________________________________________
Hope my answer is helpful to you.
Similar questions