(Note: This question is tangentially related to this earlier one.)
Let $$\sigma(x) = \sum_{d \mid x}{d}$$ denote the sum of divisors of $x \in \mathbb{N}$, where $\mathbb{N}$ is the set of natural numbers or positive integers.
Recall that a Descartes number is an odd number $n = km$, with $1 < k$, $1 < m$, satisfying $$\sigma(k)(m+1)=2km.$$ ($m$ is called the quasi-Euler prime of $n$.) Note that we define $\sigma(m) := m + 1$ even when $m$ is composite (that is, we pretend that $m$ is prime).
Notice that the lone Descartes number $\mathscr{D}$ that is known is $$\mathscr{D} = k'm' = {{3003}^2}\cdot{22021}.$$
In particular, note that: $$\frac{\sigma(k')}{m'} + \frac{\sigma(m')}{k'} = \frac{670763}{819} \approx 819.002,$$ where $$\lfloor{\frac{670763}{819}}\rfloor = 819 = 2\cdot{{3003}^2} - \sigma({{3003}^2}) = D({{3003}^2}),$$ and $D(x)=2x-\sigma(x)$ is the deficiency of the positive integer $x$.
Here are my questions:
(1) Is there a number $k_2 \times m_2 = \mathscr{D}_2 \neq \mathscr{D} = {{3003}^2}\cdot{22021}$ satisfying $$\lfloor{\frac{\sigma(k_2)}{m_2} + \frac{\sigma(m_2)}{k_2}}\rfloor = D(k_2)?$$
Note that I have no restrictions on $k_2$, $m_2$, and therefore, $\mathscr{D}_2$.
(2) When does the relationship $$\lfloor{\frac{\sigma(k_3)}{m_3} + \frac{\sigma(m_3)}{k_3}}\rfloor = D(k_3)$$ hold, for some integers $1 < k_3$, $1 < m_3$?
After trying to search (in Sage Cell Server) for examples satisfying the equation $$\lfloor{\frac{\sigma(k_3)}{m_3} + \frac{\sigma(m_3)}{k_3}}\rfloor = D(k_3)$$ for some integers $1 \leq k_3 \leq 1000$, $1 \leq m_3 \leq 1000$, I believe that it holds for most $k_3$ and $m_3$:
Pari/GP script #1
Output #1
Pari/GP script #2
Output #2
Pari/GP script #3
Output #3