The speed of instantly

Tony Sudbery

(RANSE Azerbaijan) Guluzade Royal

This theory claims that:The highest speed in the universe is the informative and meaning-making speed of consciousness.Light brings the event, but consciousness turns it into a result.Light carries energy, but does not create a result.Consciousness converts energy into meaning, creating an instant result.Light travels in space, requiring time.Consciousness does not need space — it compresses distance, cancels time.Light brings the event for observation, consciousness creates the meaning of the event.One is measurable, the other is outcome-producing.If light "brings the event," consciousness instantly turns it into a result.This difference is the intersection of the biggest physical event and the biggest spiritual event in the universe.Physics explains what is measurable, but consciousness is immeasurable, yet it is the fundamental layer of reality.The neural activity of the brain is a micro-model of the law of motion of the universe.

Paul Calvert

Jiaman Lin, chuanzai lin

Based on the vacuum superfluid vortex cosmos theory, this paper proposes the "incision-passing and instant closure" mechanism of quantum tunneling. A particle is a high-speed rotating vortex ring in the vacuum superfluid, and its internal strong force is the confining pressure produced by high-speed rotation. During tunneling, the vortex does not stretch or form a ribbon; instead, a local incision directly passes through the thin potential barrier. Once the incision passes through, it rewinds immediately, and the entire vortex ring switches across the barrier instantaneously. The process requires no confrontation with the internal strong force, since the rear fluid keeps rotating continuously. The low probability of tunneling arises from the strict condition of counter-rotational fluid engagement, not from intrinsic quantum randomness.

P. H. Bucksbaum

Sam Alterman, Peter J. Love

Abstract In the light-front (LF) formulation of quantum field theory (QFT), physics is formulated from the perspective of a massless observer necessarily traveling at the speed of light. The LF formulation provides an alternative computational approach to lattice gauge theory, and has recently been investigated as a future application of quantum computers. A natural question is how quantum resources such as entanglement and contextuality amongst physical qubits in the laboratory are utilized in LF simulations of QFTs. We use the (1+1) D transverse-field Ising model to explore this question. We derive the LF energy operator that generates the LF dynamics of the system, which is distinct from the instant-form (IF) Hamiltonian. We find that while the eigenstates of the IF Hamiltonian exhibit pairwise entanglement between positive and negative momenta in IF momentum-space, the eigenstates of the LF Hamiltonian are separable in LF momentum-space. We then calculate the momentum-space magic of the IF-momentum-space ground state and show that it always requires more magic to prepare than the LF-momentum-space ground state. At the quantum critical point, corresponding to a massless free fermion, both LF and IF ground states are stabilizers, but the LF ground state is separable in LF momentum-space while the IF ground state is a product of maximally entangled pairs in IF momentum-space. These results show that quantum resources such as entanglement and magic are utilized differently by quantum simulations formulated in LF and IF, and that the simplicity of the LF ground state results in fewer required quantum resources.