The ScienceDaily report reframes the 1935 Einstein-Rosen bridge not as a traversable shortcut but as a symmetry linking two oppositely directed quantum time arrows, yet it stops short of confronting the deeper rupture this creates with classical general relativity. Einstein and Rosen's original construction, published in Physical Review as a mathematical regularization of the Schwarzschild singularity, assumed a single, globally consistent spacetime manifold; the new interpretation requires two mirrored sectors whose time-reversal symmetry survives only when quantum evolution remains unitary across horizons. This directly undermines the classical no-hair theorem and the assumption that event horizons irreversibly erase information. Methodologically the work is purely theoretical, drawing on analytic continuation of quantum fields in curved backgrounds without new observational data or numerical simulations, and the source article itself functions as an author commentary rather than a peer-reviewed preprint. Related analyses, such as the ER=EPR conjecture advanced by Maldacena and Susskind (2013, Fortschritte der Physik), already hinted at entanglement as a non-local bridge, but treated time as externally fixed; the time-mirror model extends this by making the arrow itself emergent from the bridge. A further connection appears in recent loop-quantum-gravity calculations of black-hole interiors (Ashtekar et al., 2022, Physical Review Letters), where discrete geometry naturally produces paired time orientations. What mainstream coverage misses is that accepting the mirror symmetry forces a revision of the equivalence principle itself near horizons, because observers in the forward and backward sectors would measure incompatible proper times. No experimental sample exists; the claim rests on consistency requirements of quantum field theory in curved space. Limitations include the absence of a full dynamical model for how the two sectors decouple in macroscopic regimes and the lack of falsifiable predictions until a concrete quantum-gravity framework is specified. If validated, the approach could dissolve the information paradox by relocating lost data into the time-reversed copy rather than requiring exotic matter or firewall resolutions.