IndisputableMonolith.Engineering.ZMatchedTransceiverMesh
Module defines per-node throughput T_node as dimensionless reference for Z-matched transceiver meshes. Engineers modeling RS-native communication networks cite these for latency and aggregate throughput. Content is definitions plus monotonicity properties built directly on Constants and Cost imports.
claimPer-node throughput $T_ {rm node}$ (dimensionless reference). Latency per pair and aggregate throughput functions satisfy aggregateThroughput(0) = 0, positivity, strict monotonicity, and doubling under node addition.
background
Module resides in the Engineering domain. Imports fundamental time quantum τ₀ = 1 tick from Constants and cost structures from Cost. Definitions center on T_node for reference throughput, pairwiseLatency as position-dependent delay, and aggregateThroughput with supporting lemmas for zero value, successor cases, positivity, strict monotonicity, and doubling.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
Supplies engineering primitives for transceiver mesh throughput. Aligns with T5 J-uniqueness and T7 eight-tick octave via dimensionless phi-consistent references. Feeds no listed downstream theorems but enables network models consistent with D = 3 dimensions.
scope and limits
- Does not incorporate specific hardware parameters or explicit Z-matching equations.
- Does not address time-dependent dynamics or propagation beyond pairwise latency.
- Does not connect to mass formulas, Berry thresholds, or alpha band constraints.
depends on (2)
declarations in this module (16)
-
def
T_node -
theorem
T_node_pos -
def
latency_per_pair -
theorem
latency_per_pair_pos -
def
aggregateThroughput -
theorem
aggregateThroughput_zero -
theorem
aggregateThroughput_succ -
theorem
aggregateThroughput_pos -
theorem
aggregateThroughput_strict_mono -
theorem
aggregateThroughput_double -
def
pairwiseLatency -
theorem
pairwiseLatency_constant -
theorem
pairwiseLatency_pos -
structure
ZMatchedTransceiverMeshCert -
def
zMatchedTransceiverMeshCert -
theorem
mesh_one_statement