The Mass–Energy–Information–Consciousness Equivalence: A Theoretical Framework

@unpublished{cnl2026massenergyinformationconsciousness, author = {}, title = {The Mass–Energy–Information–Consciousness Equivalence: A Theoretical Framework}, institution = {Canemah Nature Laboratory}, year = {2026}, number = {CNL-WP-2026-011}, month = {january}, url = {https://canemah.org/archive/document.php?id=CNL-WP-2026-011}, abstract = {This working paper proposes a theoretical framework unifying mass, energy, information, and consciousness through a chain of experimentally grounded conversion factors, extended by a hypothesized consciousness–information relationship. Beginning with Einstein’s mass–energy equivalence (E = mc²) and Landauer’s principle establishing the thermodynamic cost of information processing, we trace a conversion network through the Bekenstein–Hawking bound connecting information to space. We then hypothesize a consciousness–information conversion factor κ, proposing that consciousness (Ψ) emerges as the product of information integration (Φ), uncertainty resolution rate (dI/dt), and temporal binding duration (τ). The framework suggests that consciousness represents a radical compression of information—approximately 10⁵:1 from sensory input to phenomenal experience—rather than simple information accumulation. We explore implications for distributed observation systems and propose that sufficiently dense measurement networks may increase the total “observation density” of a region, connecting this theoretical work to practical applications in environmental sensing and the Macroscope paradigm. In v2, we incorporate the first experimental observation of Bell correlations in momentum-entangled massive particles (Athreya et al. 2026), which strengthens the physical foundations of the conversion network by extending quantum nonlocality to external motional states.} }