On a reinterpretation of decay experiments

Paul J. Werbos

Walter Meissner

Dmytro Melnychenko

Causal reinterpretation of radioactive decay within standard quantum theory. Proposes that decay events correspond to fixed nodes in a static causal topology rather than temporally generated stochastic processes. Spacetime is treated as an emergent projection of relational structure. The exponential decay law is preserved and no modification of quantum mechanical predictions is introduced. Apparent randomness is reinterpreted as epistemic access to an underlying causal structure.

Dmitrii Kouznetsov

Kim, yilwook

This is the third paper in the IFUF (Information-First Unified Framework) series, presenting a structural reinterpretation of the double-slit experiment. Unlike standard quantum mechanics, which relies on the arbitrary wave function collapse hypothesis, IFUF explains coherence loss through two unified mechanisms: Instantaneous Coherence Collapse and Temporal Coherence Decay (₸ Law). This paper introduces the concept of Coherence Length (Lc) as a quantifiable measure of quantum stability, directly linked to a particle’s intrinsic ₸ value. It reinterprets experimental data from large molecule interference (e.g., C60, C70) as structural validation of the IFUF model, showing that each collision constitutes a localized EMagnitude interaction—effectively a measurement event. By replacing environmental decoherence with internal structural necessity, IFUF offers a unified, predictive framework for quantum behavior and defines the ultimate physical boundaries for future quantum technologies.

Lucas L. Brugger, Cristhiano Duarte, Bruno F. Rizzuti

With 2025 being declared the Year of Quantum Science and Technology, our contribution seeks to provide a fresh perspective on Schrödinger's cat thought experiment. We reinterpret this experiment by viewing it through the lens of quantum theory as a generalisation of classical probability, rooted in a Bayesian subjectivist framework. In this revised approach, we treat the experiment as a remote measurement problem. Specifically, we explore how the beliefs of two agents, Alice and Bob, who are spatially separated yet share a quantum state, are updated when local measurements are conducted on their respective systems. Through this reinterpretation of the well-known experiment, we also aim to offer an educational perspective that will be beneficial for young scientists interested in the field of quantum theory.