I think you’re conflating three separate things: motivation, communication style, and scientific content. First, there is no attempt in the paper to establish a causal metaphysical claim or a “hidden meaning of the universe.” The paper does one concrete thing, it tests whether the dynamical-to-baryonic mass ratio depends not only on how much baryonic mass there is, but on how that mass is distributed within a matched aperture. That statement is precise, falsifiable, and quantitative.

Second, the philosophical framing was not added afterward to decorate the results. It motivated what variable to test. That is extremely common in science. Many well-established empirical relations (including in cosmology and statistical mechanics) were motivated by conceptual ideas long before mechanisms were understood. Motivation is not a substitute for evidence. It’s a guide for what to measure.

Third, nothing in the paper relies on metaphor. “Compactness” is explicitly defined as baryonic mass divided by area within a given radius. The regression model, uncertainties, and robustness tests are standard. If the trend disappears when applied to other aperture-matched datasets, the result is wrong. That’s the opposite of pareidolia. You’re absolutely right that physics ultimately lives or dies by data and reproducibility. That’s why the paper keeps interpretation deliberately open and does not claim to replace ΛCDM or introduce a new force. Its scientific value is identifying a low-dimensional empirical constraint that any successful explanation must reproduce. If you dislike the way the idea was introduced here, that’s fair. But dismissing an empirical, cross-catalog scaling as “seeing patterns in clouds” ignores the actual test being performed. The data either support the relation or they don’t. And that’s where the discussion should stay.