The Cosmic Microwave Background Radiation (CMBR) harbours a cold spot in the southern celestial hemisphere — the so-called Eridanus Supervoid — whose anomalous temperature depression of ∼ 70 μK and spatial extent of roughly 300 Mpc at redshift z ≈ 1 resist explanation within a purely Gaussian, single-universe framework. In this work we develop a self-consistent theoretical programme that interprets this cold spot as a relic imprint of a conjugate parallel universe that shared a common inflationary epoch with our own before separating under a spontaneous symmetry-breaking transition. Our formalism is built upon three interlocking pillars. First, we introduce a two-dimensional imaginary time topology in which the temporal coordinate is promoted from a one-dimensional real line R1 to a pair of complex curves C1 and C2 embedded in the R3 manifold. The two curves carry opposite orientation angles of ±2πi, yielding an affine parameter of π for the coupled system. Second, we derive the entanglement entropy of the universe pair by treating each universe as a quantum object with an imaginary-time Ket vector; the Von Neumann entropy of the resulting density matrix links macroscopic cosmological observables to quantum information-theoretic quantities. Third, we embed the birth and separation of the twin universes within Perelman’s Ricci-flow surgery framework, identifying the blow-up of a curvature singularity as the topological mechanism responsible for the universal split. In addition, the paper addresses the holomorphic structure of pre- and post-Big Bang time, the non-Gaussian cosmic-texture signatures of the cold spot, a simulation-based glitch matrix, Jacobi-field analysis of the junction conditions, and the phenomenological implications for the Mandela effect, déjà vu, and related confabulation phenomena. The paper concludes with a probabilistic treatment of conjugate-universe counting within a landscape of 10500 vacua and a omprehensive statistical analysis supporting the twin-universe conjecture.