90340
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: If n\(^{2}\) - 1 is divisible by 8 then n is odd positive integer.
Reason: If n = 4q + 1 then n\(^{2}\) - 1 = 8q(2q + 1).
90341
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: Euclid division lemma States that a = bq + r where 0 < = r < b.
Reason: Dividend = divisor × quotient + remainder is called Euclid multiplication lemma.
90343
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: \(\sqrt{\text{a}}\) is an irrational number, where a is a prime number.
Reason: Square root of any prime number is an irrational number.
90340
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: If n\(^{2}\) - 1 is divisible by 8 then n is odd positive integer.
Reason: If n = 4q + 1 then n\(^{2}\) - 1 = 8q(2q + 1).
90341
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: Euclid division lemma States that a = bq + r where 0 < = r < b.
Reason: Dividend = divisor × quotient + remainder is called Euclid multiplication lemma.
90343
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: \(\sqrt{\text{a}}\) is an irrational number, where a is a prime number.
Reason: Square root of any prime number is an irrational number.
90340
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: If n\(^{2}\) - 1 is divisible by 8 then n is odd positive integer.
Reason: If n = 4q + 1 then n\(^{2}\) - 1 = 8q(2q + 1).
90341
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: Euclid division lemma States that a = bq + r where 0 < = r < b.
Reason: Dividend = divisor × quotient + remainder is called Euclid multiplication lemma.
90343
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: \(\sqrt{\text{a}}\) is an irrational number, where a is a prime number.
Reason: Square root of any prime number is an irrational number.
90340
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: If n\(^{2}\) - 1 is divisible by 8 then n is odd positive integer.
Reason: If n = 4q + 1 then n\(^{2}\) - 1 = 8q(2q + 1).
90341
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: Euclid division lemma States that a = bq + r where 0 < = r < b.
Reason: Dividend = divisor × quotient + remainder is called Euclid multiplication lemma.
90343
Directions: In the following questions, the Assertions (A) and Reason(s) (R) have been put forward. Read both the statements carefully and choose the correct alternative from the following:
Assertion: \(\sqrt{\text{a}}\) is an irrational number, where a is a prime number.
Reason: Square root of any prime number is an irrational number.