Step 1: Understanding the Concept:
For a general quadratic polynomial of the form \(Px^2 + Qx + R\), the product of its zeros is given by the ratio of the constant term to the coefficient of the \(x^2\) term.
Step 2: Key Formula or Approach:
For a polynomial \(Px^2 + Qx + R\), the product of zeros \(\alpha \beta = \frac{R}{P}\).
Step 3: Detailed Explanation:
The given polynomial is \(cx^2 + ax + b\).
Here, the coefficient of the \(x^2\) term is \(P = c\).
The coefficient of the \(x\) term is \(Q = a\).
The constant term is \(R = b\).
Applying the formula for the product of zeros:
\[ \alpha \beta = \frac{\text{constant term}}{\text{coefficient of } x^2} = \frac{b}{c} \]
Step 4: Final Answer:
The value of \(\alpha . \beta\) is \(\frac{b}{c}\).
Let \( M \) be a \( 7 \times 7 \) matrix with entries in \( \mathbb{R} \) and having the characteristic polynomial \[ c_M(x) = (x - 1)^\alpha (x - 2)^\beta (x - 3)^2, \] where \( \alpha>\beta \). Let \( {rank}(M - I_7) = {rank}(M - 2I_7) = {rank}(M - 3I_7) = 5 \), where \( I_7 \) is the \( 7 \times 7 \) identity matrix.
If \( m_M(x) \) is the minimal polynomial of \( M \), then \( m_M(5) \) is equal to __________ (in integer).
In the given figure, graph of polynomial \(p(x)\) is shown. Number of zeroes of \(p(x)\) is
