IndisputableMonolith.QuantumComputing.DecoherenceFromBIT
This module defines the BIT carrier frequency ω_BIT = 5φ in RS-native units and derives T2 decoherence times for quantum substrates from the Recognition Science cost function. Researchers modeling quantum hardware decoherence via RS principles would cite these definitions. The module consists of sequential definitions establishing positivity, band constraints, and phi-power ratios for the frequency and substrate T2 values.
claimThe BIT carrier frequency satisfies $\omega_{\rm BIT} = 5\phi$ in RS-native units. Derived T2 times for substrates obey $T2_{\rm substrate} = \tau_0 \cdot \phi^{r}$ with rung $r$ specific to transmon, fluxonium, NV center, and trapped-ion systems.
background
The module sits in the QuantumComputing domain and imports the RS time quantum $\tau_0 = 1$ tick from Constants together with the cost function from Cost. It introduces the BIT frequency and T2_substrate quantities that rest on the J-cost and phi-ladder structures of the parent framework. Sibling declarations establish positivity of $\omega_{\rm BIT}$, its placement inside the allowed band, and the strictly decreasing character of T2_substrate.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the BIT frequency and substrate T2 definitions that support downstream quantum-computing calculations in Recognition Science. It supplies the carrier-frequency step required for decoherence estimates on transmon, fluxonium, NV, and trapped-ion platforms.
scope and limits
- Does not convert T2 values to SI units or experimental frequencies.
- Does not model entanglement or multi-qubit decoherence channels.
- Does not incorporate external bath spectral densities beyond the BIT carrier.
- Does not address finite-temperature corrections to the T2 expressions.
depends on (2)
declarations in this module (16)
-
def
omega_BIT -
theorem
omega_BIT_pos -
theorem
omega_BIT_band -
def
T2_substrate -
theorem
T2_substrate_pos -
theorem
T2_substrate_strictly_decreasing -
theorem
T2_ratio_is_phi_power -
def
z_rung_transmon -
def
z_rung_fluxonium -
def
z_rung_NV -
def
z_rung_trapped_ion -
theorem
T2_transmon_to_fluxonium_ratio -
theorem
T2_transmon_to_trapped_ion_ratio -
structure
DecoherenceFromBITCert -
def
decoherenceFromBITCert -
theorem
decoherence_from_BIT_one_statement