TFNR - Notes on some relevant experiments

This section highlights a pair of key experiments that have significantly shaped our understanding of quantum phenomena and the nature of Physical Reality from the perspective of the micro InfoStructures. These experiments serve as crucial empirical touchstones that both illustrate and validate the conceptual framework discussed earlier.

The representation, explanation and interpretation of such experiments by conventional physics is completely insufficient, if not completely wrong, and has led physics into dead ends from which today it does not seem possible to escape without a complete paradigmatic revolution.

Double Slit Experiment

It is the prince of experiments, where many if not all of the peculiar concepts (uncertainty, locality, wave-particle duality, abstraction of quantum objects, etc.) that tighten quantum physics in the iron grip are involved, which has led to the current complete block of understanding the profound nature of Reality. The double slit experiment, with its striking demonstration of wave–particle duality, reveals the intricate interplay between discrete quantum units and their underlying wave-like behavior. It shows that particles, whether electrons or photons, can generate interference patterns that underscore the probabilistic and "fuzzy" properties of Reality. Viewed through the lens of InfoStructures, this experiment exemplifies how even the most elementary informational units exhibit dual characteristics, oscillating between discrete states and continuous distributions.

Stern-Gerlach Experiment

The Stern-Gerlach experiment provides pivotal evidence for the quantization of intrinsic properties, particularly the spin of particles. By directing particles through an inhomogeneous magnetic field and observing their discrete deflections, this experiment underscores the role of measurement in revealing the underlying structure of quantum states. From an InfoStructures perspective, Stern-Gerlach highlights how environmental dynamics interact with inherent properties to produce quantized, well-defined outcomes. An unconventional analysis of this experiment in the theoretical context proposed in this work will allow us to highlight controversial aspects of the quantum vision that have led to erroneous conclusions about the nature, properties, and behaviors of quantum objects.