Should I tell Her

The code reveals floating point numbers for what they truly are: just fancy structs with a sign, exponent, and mantissa wearing a trench coat. The programmer manually constructs a float by setting each field, then casts it back to a float with that sketchy pointer manipulation. And of course, there's the mandatory comment warning you to never actually do this in production because bitfield layout will betray you faster than a coworker who "fixed" your code. Typical C behavior - giving you enough rope to not only hang yourself but the entire dev team.

The eternal computer science debate that makes absolutely no sense to normal humans: endianness. On the left, the logical person crying because "end" should refer to what comes last (little-endian should be MSB first). On the right, Danny Cohen smugly enjoying the chaos he created by naming it backwards - where "big end" refers to the most significant byte coming first. For the uninitiated: endianness determines how multi-byte values are stored in memory. It's like arguing whether to read a number from left-to-right or right-to-left, except we've been fighting about it since the 1980s and nobody will ever surrender.

Listen, there are certain sacred traditions in coding that you just don't question. Using i and j as loop variables isn't a choice—it's practically written in the ancient scrolls of computer science. Passed down from the FORTRAN elders to every generation since. Try using pancake and waffle as your nested loop variables during a code review and watch your senior dev have an existential crisis. The programming gods will smite you with merge conflicts for the rest of eternity. Sure, we could use more descriptive variable names, but that would be... reasonable? And we can't have that. IT'S THE LAW!

When your variable naming skills follow you into real life. The license plate "NULLPTR" is the perfect way to announce that you're simultaneously a C++ developer and completely empty inside. Probably spends weekends dereferencing null pointers and wondering why everything crashes.

Ah yes, the classic "my 1000-line C++ monstrosity is faster than your 10-line Python script" flex. Your C++ friend is standing there like a caveman who just discovered fire, proudly waving around their manually managed memory and pointer arithmetic while you're over there with Python like Dexter from Dexter's Laboratory, solving the same problem with elegant simplicity. Sure, their code runs 100x faster... after they spent 100x longer debugging segmentation faults and memory leaks. Meanwhile, you wrote your solution during your coffee break and went back to having an actual life. The real speed was the development time we saved along the way.

The existential crisis of memory allocation! That moment when you realize a single boolean value—which only needs to represent true or false—consumes an entire byte of memory. The computer literally reserves 8 bits when you only need 1 bit, wasting 87.5% of the allocated space. It's the digital equivalent of buying an eight-bedroom mansion just to store a single paperclip. No wonder she's crying—the inefficiency is physically painful to anyone who's ever optimized code to save precious bytes. Memory waste is the real tragedy nobody talks about.