A Solution to the P versus NP Problem
Frank Vega Delgado

TL;DR
This paper claims to prove that P does not equal NP by introducing a problem called Certifying, which demonstrates the existence of an NP problem not in P, implying P ≠ NP.
Contribution
The paper presents a novel problem, Certifying, as a proof that P is not equal to NP, claiming to resolve the long-standing open question.
Findings
Certifying problem is in NP but not in P
Proof that P ≠ NP based on the properties of Certifying
Reduction ad absurdum confirms the separation of P and NP
Abstract
The relationship between the complexity classes P and NP is a question that has not yet been answered by the Theory of Computation. The existence of a language in NP, proven not to belong to P, is sufficient evidence to establish the separation of P from NP. If a language is not recursive, it can't belong to the complexity class NP. We find a problem in NP which is not in P; because if it would be present in that class, then it will imply that some undecidable problem will be in NP too. That's why it can be confirmed by reduction ad absurdum the following result: P doesn't equal NP. This new problem named Certifying is to find a possible input given a particular deterministic Turing machine named Certified Turing machine and its output.
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Taxonomy
TopicsComputability, Logic, AI Algorithms · semigroups and automata theory · Cellular Automata and Applications
