The concept of a wormhole, a hypothetical tunnel connecting different points in spacetime, is still a subject of theoretical research and speculation. While there are various theories and mathematical models that propose the existence of wormholes, there are significant challenges and limitations associated with them.
One of the major challenges is the requirement of exotic matter with negative energy density to stabilize and traverse a wormhole. Exotic matter, which has yet to be observed or confirmed, would need to possess properties that violate the energy conditions of classical matter. The energy conditions are sets of physical principles that ensure the behavior of matter and energy in accordance with our current understanding of physics.
Additionally, even if a stable wormhole were hypothetically created, determining its precise location in space-time would be a complex task. The mathematics and physics involved in accurately determining the opening of a wormhole would likely be highly advanced and require a comprehensive understanding of spacetime geometry.
It's important to note that our current knowledge and technological capabilities are far from achieving the creation or manipulation of wormholes. Wormholes remain within the realm of theoretical physics, and there are many open questions and challenges that need to be addressed before we can determine their feasibility or practicality.