And in fact approaches to system design that try to make the code size independent of number of bussiness requirements and their possible changes in future lead to exactly the kind of "complexity worship" discussed in TFA (various ad-hoc turing complete VMs that interpret code represented as rows in bunch of relational tables and what not).
FWIW, Big-O itself, even in technical contexts, gets imprecise with e.g. calling hashtables O(1), which is not possible, even under the idealized computer model (instant memory access, etc).
Is there a shorter way of saying "scales proportionally with n" that you would suggest the tech community prefer because of its greater precision?
> What we ended up with was O(n) _classes_ (where n = the number of computation operations).
vs.
> what we ended up with was several classes for each operation.
The second is shorter, and says no more than what is relevant.
It would be wrong in both cases because the context can make clear what a variable or pronoun refers to. If the problem context makes clear what the binding constraint is and you just need to talk about scaling behavior, then it is indeed shorter to say "O(1) rather than O(n)" vs "doesn't depend on the operations rather than being directly proportional".
>>what we ended up with was several classes for each operation.
>The second is shorter, and says no more than what is relevant.
It says less: the O notation is used to indicate that as you add more operations, you will need to add more classes, rather than only needing to add classes when there is logic the operations don't yet implement.
The Orwell quote is valid at the heuristic level, but when
a) there's an installed base of people who know the jargon, and
b) the everyday English equivalent takes a lot more words to say the same thing, and
c) something coherent is meant by the jargon that could be so translated if necessary,
then that's exactly when you should use the jargon.
Give me "a^2 + b^2 = c^2" over "the sum of the squares of the lengths of a and b is equal to the square of the length of c".