Who Runs The World? Mathematics!

The original meme plays on the tired "boys vs girls" trope, but someone brilliantly "fixed it" by calling out its inherent misogyny. The bottom panel transforms the format into a meta-commentary on gendered memes themselves, suggesting that what some call "analytic continuation" is really just "domain expansion" of stereotypes. It's essentially scientific terminology being used to critique lazy humor! The historical figure (likely a mathematician or physicist) adds that perfect touch of academic authority saying "Sure thing, but why?" - basically peer-reviewing the meme's premise and finding it severely lacking. Scientific rigor applied to internet culture at its finest!

The evolution of how a genetics professor describes a population sample. Starting with casual language, progressing through scientific terminology, then chromosome notation, algebraic factoring, and finally just giving up and plotting it as a straight line with negative slope. The mathematical elegance of genetics reduced to y = mx + b. Nature's complexity simplified to the point where even calculus students would sigh in disappointment.

Ever notice how trigonometry functions escalate from mild annoyance to existential terror? First, you're dealing with the basic trio (sin, cos, tan) - slightly uncomfortable but manageable. Then hyperbolic functions (sinh, cosh, tanh) show up like that crying kid in the pool. But the real nightmare begins with cosecant, secant, and cotangent - pure mathematical horror that leaves you a skeleton in the abyss of calculus. This is why most math professors have that thousand-yard stare. We've seen things. Terrible, terrible things... usually around exam time when students discover these functions aren't just theoretical.

Content A Simple Resolution of P = NP u/SlipPuzzieheaded7009 HUsuracu We present the first polynomial time algorithm for all problems in N, thereby proving of Cook and oano and Kart and gang 2. our method extends Valiant and gang's algebraic enumeration techniques 3 and 7 (1014 introduction The P vs NP problem- in Cook's 1971 theorem-provino work 1 and Karo's 1972 compilations of IF-complete problems 2 asks whether every problem whose solution can be verified in (n" time can also be solved in O(n) time We prove P = NP by devising a polv time solver that swn thesises circuit constructions a la vallant and gang.3 with certicate guided branching methods (Papadimitriou and gang 4). Our proof is rigorous and breathtakinglv concise mv wite's bovtriend told me so 5) Preliminaries All prior efforts are trivial and naive. Cook-Levin's reduction I is fine: SAI solvers are cute party tricks: POP theorems 6 are delightful and humorous. None saw the obvious that we have. Vain 'Theorem P= NP Proof Left as an exercise for the reader Results and Discussion SAT. CLIOUE. and Hamiltonian Cycle solved in O(n?) time Acknowledgments Tacknowledse. on bebslf of the entire mathematies community. the unparglleled senius of ruself Reterences . A. "The Complexitv of Theorem-Proving Procedures." STOC '71. ACM. 1971 2. Karp. R. M. "Reducibility Among Combinatorial Problems." in Complexity of Computer Valiant, L. G. "The Complexity of Enumeration and Reliability Problems." SIAM J. Comput. vol. 8. no. 3, pp. 410-421. 1979. :contentReference oaicite:2 index=2 4. Papadimitrion. C. H.. et al. *On the Complexity of Local Search in Combinatorial Optimize 6. Arora. S.. Safra. S. Probabilistic Checking of Proofs: A New Characterization of NP"

The geometry gang's all here! This meme brilliantly captures the hierarchy of regular polygons that can tessellate (completely cover a plane without gaps). The fierce hexagon and triangle dragons look down on their simple square sibling who's just happy to be included in the tiling party! 😂 What makes this extra hilarious for math nerds is that only these three regular polygons can perfectly tile a plane. Hexagons are often considered the "superior" shape in nature (just ask bees about their honeycombs), triangles are the structural MVPs, while squares are... well, just squares doing their best! The derpy square dragon is mathematical perfection!

The perfect encapsulation of the engineering student lifecycle! First panel: existential dread and differential equations have broken your spirit. Second panel: suddenly you're designing rocket ships and running computational fluid dynamics simulations on Formula 1 cars. The duality of engineering education—where you oscillate between "the only constant is suffering" and "OMG I'M BUILDING ACTUAL ROCKETS" faster than a harmonic oscillator. The transformation from traumatized hard-hat wearer to slightly-less-traumatized hard-hat wearer who can now make cool stuff is *chef's kiss* accurate.