11.24 Architectural factors that determine whether Hyperemergent potential becomes realized

The existence of suitable Higher Lobes and emergent dimensions creates possibility-space, not automatic network realization. Hyperemergent Crossfunctionality depends strongly on architecture and task-time deployment.

Factor 9 - InterBrain-lobe Connectivity: provides and improves communication substrate among participating lobes and intermediate crossfunctions.

Factor 10 - InterBrain-lobe Selectivity: helps select which lobes, orders, sublobes, Antilobe signals, and emergent dimensions should participate rather than indiscriminately combining everything.

Factor 11 - Crossfunctional Integration: develops the capacity to integrate distinct lobe outputs into coherent crossfunctions under crossfunctional demandingness.

Factor 12 - Crossfunctional Efficiency: improves successful crossfunctional processing per relevant resource/exertion cost, preventing hyperemergent richness from requiring proportionally wasteful processing.

Factor 13 - Neural Routing: dynamically sends task-relevant higher-order dimensions to the correct network destinations.

Factor 14 - Neural Inhibition: suppresses irrelevant, conflicting, redundant, or destabilizing candidate interactions.

Factor 15 - Brain-lobe Functional Independence: allows a lobe to preserve its own function when the network does not require coupling, reducing destructive overintegration.

Factor 16 - Metaneural Control: can supervise which Hyperfunction orders and crossfunctional assemblies are recruited, amplified, inhibited, reorganized, or terminated.

Factors 17-20: plasticity, demand-driven development, corrective development, and growth efficiency can adapt the architecture after hyperemergent success or failure.

Factor 21 - Neural Functional Efficiency scaling: helps large participating lobes exploit additional architecture without proportionate complexity waste.

Factor 22 - Interlobe Crossfunctional Prowess per Connectivity Complexity: is the principal network-scaling metric for breadth, depth, and quality of crossfunctionality relative to utilized connectivity complexity. It does not define whether an output is Hyperemergent; it affects how formidably and efficiently such network integration can be realized.

A crucial distinction follows: Hyperemergent Crossfunctionality is an output/dependence property of the network computation, whereas Factor 22 is an architectural prowess-per-complexity property. A brain can have the conceptual possibility of a Hyperemergent Crossfunction but poor Factor-22 realization, or exceptionally high Factor-22 prowess while performing an ordinary non-hyperemergent crossfunction.