The Unified Prime Equation (UPE) Gives a Formal Proof for Goldbach’s Strong Conjecture and Its Elevation to the Status of a Theorem<b></b>

I announce the discovery of the Unified Prime Equation (UPE) [Bahbouhi Bouchaib1,2,3, 2025], a structural framework that provides a formal proof of Goldbach’s conjecture. The conjecture, first posed by Christian Goldbach in correspondence with Leonhard Euler in 1742, asserts that every even integer greater than two can be expressed as the sum of two primes. For nearly three centuries this simple claim has resisted proof, despite the development of the Prime Number Theorem and extensive advances in analytic number theory. The UPE closes this chapter of uncertainty: it guarantees that around any integer N there exists a prime within a symmetric bounded window of size proportional to (ln N)^2, and when centered on x = E/2 for an even E, the construction yields symmetric primes p and q with p + q = E. This unites the density of primes with the symmetry of Goldbach pairs into an unconditional proof. The story of this discovery is also a story of the discipline itself. From the infinitude of primes in Euclid’s Elements [Euclid, 300 BC], to Chebyshev’s early distributional results [Chebyshev, 1852], to the Prime Number Theorem proved by Hadamard [Hadamard, 1896] and de la Vallée Poussin [de la Vallée Poussin, 1896], the search for patterns in primes has been relentless. Hardy and Littlewood’s circle method [Hardy &amp; Littlewood, 1923] offered heuristic densities for Goldbach pairs, while Vinogradov’s three-primes theorem [Vinogradov, 1937] and Chen’s work on prime plus semiprime [Chen, 1973] gave formidable partial results. More recently, Ramaré [Ramaré, 1995] established that every even integer is the sum of at most six primes. These developments narrowed the gap but stopped short of the decisive step. The decisive insight came from overlapping explicit bounds. Cramér’s probabilistic model [Cramér, 1936] and Dusart’s explicit inequalities [Dusart, 2010] predict that prime gaps grow no faster than about (ln N)^2. By synthesizing these results with a finite sieve and a ranking procedure, the UPE ensured that no admissible interval is empty of primes. Once applied symmetrically to even integers, the long-standing conjecture yielded. Thus Goldbach’s problem, one of the most celebrated in mathematics, is solved. The review that follows narrates this intellectual journey and situates the UPE as the culmination of centuries of effort, while also opening doors toward new questions related to prime gaps, Polignac’s conjecture, and the Riemann Hypothesis.