The question is as such:
Well, not... "we" per se. You might think — WHY am I involved in this? 🤔 I'm not obliged to solve that, am I? — Indeed. Do excuse me.
Let me rephrase that.
I want to find the ❓ operator.
Mwahahaha.
It's the reasonind behing this post. 🦹
Right. So.
I scribbled that using logarithmic. Here it goes.
The Scribble
$1000^1001❓1001^1000$
Let me assume:
$1000 = a$
Therefore:
$1001 = (a + 1)$
So this:
$1000^1001❓1001^1000$
Becomes:
$a^(a+1)❓(a + 1)^a$
➡️ I then place log (logarithmic function) on both sides.
This form:
$a^(a+1)❓(a + 1)^a$
➡️ Becomes:
$log_a$$(a^(a+1))$ $❓$ $log_a$$((a + 1)^a)$
Continue by implementing —
The form above can be transformed into this:
$(a + 1) log_a(a)❓(a) log_a(a + 1)$
I can simplify $log_a(a) = 1$. Thus:
$(a + 1) (1)❓(a) log_a(a + 1)$
$log_a(a + 1) > 1$ — very near 1 because $a = 1000$.
Therefore, I can safely simplify that —
Final simplification:
$(a + 1) (1)❓(a) (1)$
$(a + 1)❓(a)$
Anyway —
Thus:
Meaning:
Pattern
As I've observed, the pattern starts from any integer greater than $2$.
Let me try that.
$1$ and $2$
$1^2$❓$2^1$
$1$❓$2$
$1 < 2$
$2$ and $3$
$2^3$❓$3^2$
$8$❓$9$
$8 < 9$
$3$ and $4$
$3^4$❓$4^3$
$81$❓$64$
$81$ $>$ $64$
$4$ and $5$
$4^5$❓$5^4$
$1024$❓$625$
$1024$ $>$ $625$
$5$ and $6$
$5^6$❓$6^5$
$15625$❓$7776$
$15625$ $>$ 7776
$6$ and $7$
$6^7$❓$7^6$
$279936$❓$117649$
$279936$ $>$ 117649
$7$ and $8$
$7^8$❓$8^7$
$5764801$❓$2097152$
$5764801$ $>$ 2097152
•••
And so forth.
Ah. The pattern.
Once $a$ gets bigger than 2, $a^{(a+1)}$ will always comfortably beat $(a+1)^a$ every single time.
Establishing that —


