New Theoretical Wormhole Models Link Quantum Teleportation and Black

A recent theoretical breakthrough suggests that a wormhole could remain open without the need for exotic negative‑energy material, using a quantum connection between two black holes to generate the required repulsive energy [1]. At the same time, claims of a wormhole‑like simulation on Google’s Sycamore quantum computer have sparked controversy over whether the results truly demonstrate a wormhole or can be explained by more conventional quantum processes [2].

Key takeaways

• Traversable wormholes may be stabilized by quantum entanglement rather than exotic matter [1].
• The proposed mechanism is mathematically equivalent to quantum teleportation, a protocol already demonstrated in labs [1].
• A 2022 experiment claimed to simulate a wormhole on the Sycamore quantum processor, but critics argue the data could be reproduced with classical methods [2].
• The work builds on the “ER = EPR” conjecture that links spacetime bridges to entangled particle pairs [1].
• Ongoing debate highlights the gap between theoretical models and experimental verification in quantum gravity [2].

From Science Fiction to Quantum Theory

The idea of a wormhole as a shortcut through spacetime first entered popular culture when Carl Sagan’s novel Contact featured a protagonist traveling via a black hole, prompting physicist Kip Thorne to explore whether a “tunnel” could be made traversable [1]. Decades of theoretical work led to the realization that ordinary wormholes collapse instantly, requiring “exotic material” with negative energy to keep them open. In 2019, a team led by Ping Gao, Daniel Jafferis, and Aron Wall proposed a different route: if two black holes are linked in a specific quantum state, the negative energy needed at the throat can be generated from outside the system [1]. Their calculations show that an object entering one black hole would emerge from the other, mirroring the steps of quantum teleportation—a process that moves quantum information without moving the physical carrier.

The proposal draws directly from Juan Maldacena’s “ER = EPR” conjecture, which posits that Einstein‑Rosen bridges (wormholes) and Einstein‑Podolsky‑Rosen entangled pairs are two descriptions of the same phenomenon [1]. By extending this idea to traversable wormholes, the researchers suggest that spacetime geometry and quantum entanglement are intimately connected, offering a potential resolution to the long‑standing black‑hole information paradox. If information can escape a black hole via a traversable wormhole, it would preserve the principle of unitarity that underlies quantum mechanics [1].

Quantum‑Computer Simulations and Skepticism

In November 2022, a separate group of physicists announced that they had simulated a wormhole inside Google’s Sycamore quantum computer, claiming that information injected into one set of simulated particles emerged from a second, spatially separated set [2]. The experiment relied on the Sachdev–Ye–Kitaev (SYK) model, a complex system of interacting particles that is difficult for classical computers to solve efficiently [2]. By simplifying the SYK model, the team reported that the quantum processor could mimic the behavior of a traversable wormhole, effectively demonstrating quantum teleportation in a laboratory setting.