To solve the given problem, we need to simplify the expression for \( R \):
\[ R = \frac{30^{65} - 29^{65}}{30^{64} + 29^{64}} \]
Let's analyze the numerator and the denominator:
Substituting into the expression for \( R \), we get:
\[ R = \frac{(30 - 29)(30^{64} + 30^{63}\cdot29 + \cdots + 30\cdot29^{63} + 29^{64})}{30^{64} + 29^{64}} \]
Which simplifies to:
\[ R = \frac{1 \times (30^{64} + 30^{63}\cdot29 + \cdots + 30\cdot29^{63} + 29^{64})}{30^{64} + 29^{64}} \]
The top part: \( 30^{64} + 30^{63}\cdot29 + \cdots + 29^{64} \) contains many terms, all of which are positive and greater than zero. Since these terms are more numerous than those in the denominator \((30^{64} + 29^{64})\), we can deduce that:
\[ R > 1 \]
Clearly, the simplified form reveals that \( R \) is greater than 1. Thus the correct answer is:
\[ R > 1.0 \]
The relationship between two variables \( x \) and \( y \) is given by \( x + py + q = 0 \) and is shown in the figure. Find the values of \( p \) and \( q \). Note: The figure shown is representative.

For any natural number $k$, let $a_k = 3^k$. The smallest natural number $m$ for which \[ (a_1)^1 \times (a_2)^2 \times \dots \times (a_{20})^{20} \;<\; a_{21} \times a_{22} \times \dots \times a_{20+m} \] is: