Ultracold Baryonic Dark Matter as a Topological OH⁻ Subnetwork in Quantum Amorphous Ice

Ultracold Baryonic Dark Matter as a Topological OH⁻ Subnetwork in Quantum Amorphous Ice This paper proposes a paradigm-shifting theory of dark matter, challenging the dominant WIMP paradigm after four decades of unsuccessful detection. The author argues that current dark matter searches suffer from ontological circularity: experiments assume particle-like dark matter, design detectors specifically for such particles, then interpret null results as requiring more sensitive particle detectors rather than questioning the fundamental premise. The alternative theory—Ultracold Baryonic Dark Matter (UBDM)—posits that dark matter consists of OH⁻ ions forming a topologically protected quantum network within Quantum Amorphous Ice (QAI), a cosmic substrate formed from water molecules. This framework derives multiple cosmological observations from first principles without free parameters. The asymmetric quantum dissociation of water (H₂O → H⁺ + OH⁻) naturally produces the observed cosmic ratio of dark to visible matter (94.4% to 5.6%), matching Planck measurements. The theory explains dark matter's invisibility through condensed matter physics principles. The OH⁻ subnetwork forms a quantum spin liquid described by the Kitaev Hamiltonian, generating a topological energy gap (0.726 eV) that suppresses electromagnetic interactions. This produces an extremely small photon interaction cross-section (2.43×10⁻⁴⁸ m²), rendering the network effectively transparent while still interacting gravitationally through an emergent field mechanism. Cosmologically, the theory proposes a static universe where redshift results from quantum phase dissipation rather than metric expansion, with the coherence horizon (13.8 billion light years) creating an observational limit without requiring a Big Bang. The cosmic microwave background naturally emerges as thermal radiation from the QAI network at 2.725 K. Unlike conventional dark matter models, UBDM makes specific, falsifiable predictions testable with current technology: a coherent absorption band at 1.0±0.3 THz in synthesized quantum ice; a characteristic "Boson peak" in heat capacity measurements at 10 K; and flat galactic rotation curves reproduced through quantum molecular dynamics simulations. This framework reconciles cosmology with quantum chemistry and solid-state physics, potentially resolving multiple astrophysical tensions while eliminating the need for exotic particles. If validated, it would represent one of the most profound scientific revolutions since Einstein, fundamentally altering our understanding of dark matter, cosmology, and the quantum vacuum. If falsified through the proposed experiments, it would nonetheless demonstrate rigorous scientific methodology through definitive testability.