Informativity Institute · Press release archive
MQ reconstructs entanglement correlations through a shared preparation
The Bell–CHSH account rejects a factorized local-outcome premise while retaining operational no-signaling.
· Recorded source or audit snapshot · Retrospective release
CHICAGO — MQ’s entanglement construction treats a paired quantum preparation as a shared relational configuration whose realized outcome probabilities are not products of independent subsystem probabilities. Under the stated construction, it recovers the quantum Bell–CHSH bound of two times the square root of two.
Figure 1 summarizes the source result and its evidentiary scope.
The result and its scope
Shared preparation
Joint configuration and measurement context
Source reconstruction
Contextual Bell/CHSH correlations
Evidence boundary
No setting-independent local hidden-variable claim
Bell–CHSH refers to a combination of correlations obtained with different measurement settings. Its role is to test assumptions about how joint outcomes can be generated. The MQ manuscript does not claim that a Bell-factorizable, setting-independent local hidden-variable model reproduces the quantum result.
Instead, analyzer settings enter a contextual joint-availability description. The construction assigns probabilities to correlated outcomes of the shared preparation and recovers the appropriate polarization-correlation behavior in its worked example.
The source also retains operational no-signaling. A correlation between spatially separated records is not a controllable channel for transmitting a chosen message faster than light. Internal relational locality and locality in realized spacetime are different concepts and should not be conflated in a headline.
Recovering a known correlation is a theoretical consistency result. It does not mean the manuscript conducted a new loophole-free Bell experiment, nor that the result evades the assumptions of Bell’s theorem without changing the relevant factorization premise. Those assumptions need to be stated explicitly.
The result is a proposed account of how quantum-compatible correlations arise within MQ. For a journalist, the substantive questions concern the preparation, the role of context, the mathematical joint distribution, and the preservation of operational constraints. The work should be assessed at that level rather than promoted as a refutation of Bell or a mechanism for instantaneous communication.
Explore the related research
These institute pages provide further explanation and source material. Their claims retain the research-status qualifications stated in this release.
# # #
