To evaluate \( \log(1011 \cdot 105) \), we can use the property of logarithms that states:
\[ \log(a \cdot b) = \log a + \log b \]
Applying this property, we get:
\[ \log(1011 \cdot 105) = \log(1011) + \log(105) \]
Next, we can compute \( \log(1011) \) and \( \log(105) \) using a calculator (or logarithm tables) or approximate these values using known logarithms.
Using approximate values:
\[ \log(1011) \approx 3.0043 \quad \text{(since 1011 is slightly more than 1000)} \]
\[ \log(105) \approx 2.0212 \quad \text{(since \( 10^2 = 100 \) and \( 10^3 = 1000 \), and \( 105 \) is slightly above \( 100 \))} \]
Now we can add these two results together:
\[ \log(1011 \cdot 105) \approx 3.0043 + 2.0212 = 5.0255 \]
Therefore, the final evaluation gives us:
\[ \log(1011 \cdot 105) \approx 5.0255 \]
So, the answer is approximately:
\[ \boxed{5.0255} \]