90001 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: The graph y = f(x) is shown in figure, for the polynomial f(x). The number of zero of f(x) is 4. Reason: The number of zero of the polynomial f(x) - is the number of point of which f(x) cuts of touches the axes.

90002 On dividing a polynomial p(x) by a non-zero polynomial q(x), let g(x) be the quotient and r(x) be the remainder, than p(x) = q(x).g(x) + r(x), where

90003 The polynomial which when divided by -x\(^{1}\) + x - 1 gives a quotient x - 2 and remainder 3, is:

90004 If \(\alpha,\beta\) are the zeros of the polynomial f(x) = x\(^{1}\) - p(x + 1) - c such that \((\alpha+1)(\beta+1)=0,\) then c =

90001 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: The graph y = f(x) is shown in figure, for the polynomial f(x). The number of zero of f(x) is 4. Reason: The number of zero of the polynomial f(x) - is the number of point of which f(x) cuts of touches the axes.

90002 On dividing a polynomial p(x) by a non-zero polynomial q(x), let g(x) be the quotient and r(x) be the remainder, than p(x) = q(x).g(x) + r(x), where

90003 The polynomial which when divided by -x\(^{1}\) + x - 1 gives a quotient x - 2 and remainder 3, is:

90004 If \(\alpha,\beta\) are the zeros of the polynomial f(x) = x\(^{1}\) - p(x + 1) - c such that \((\alpha+1)(\beta+1)=0,\) then c =

90001 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: The graph y = f(x) is shown in figure, for the polynomial f(x). The number of zero of f(x) is 4. Reason: The number of zero of the polynomial f(x) - is the number of point of which f(x) cuts of touches the axes.

90002 On dividing a polynomial p(x) by a non-zero polynomial q(x), let g(x) be the quotient and r(x) be the remainder, than p(x) = q(x).g(x) + r(x), where

90003 The polynomial which when divided by -x\(^{1}\) + x - 1 gives a quotient x - 2 and remainder 3, is:

90004 If \(\alpha,\beta\) are the zeros of the polynomial f(x) = x\(^{1}\) - p(x + 1) - c such that \((\alpha+1)(\beta+1)=0,\) then c =

90001 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: The graph y = f(x) is shown in figure, for the polynomial f(x). The number of zero of f(x) is 4. Reason: The number of zero of the polynomial f(x) - is the number of point of which f(x) cuts of touches the axes.

90002 On dividing a polynomial p(x) by a non-zero polynomial q(x), let g(x) be the quotient and r(x) be the remainder, than p(x) = q(x).g(x) + r(x), where

90003 The polynomial which when divided by -x\(^{1}\) + x - 1 gives a quotient x - 2 and remainder 3, is:

90004 If \(\alpha,\beta\) are the zeros of the polynomial f(x) = x\(^{1}\) - p(x + 1) - c such that \((\alpha+1)(\beta+1)=0,\) then c =