Divine v144 Source Corpus
Appendix B. Factor-Targeted Test-Design Matrix
| Factor target | Example pressure |
| 1 Neural Amount | Sustained function-relevant exertion that makes more neural substrate useful. |
| 2 Intraconnectivity | Tasks requiring denser internal coordination within one lobe. |
| 3 Organization Quality | Tasks where poor internal arrangement causes bottlenecks despite adequate raw capacity. |
| 4 Sublobar Specialization | Tasks requiring distinct specialist subfunctions. |
| 5 Recursive Specialization | Tasks requiring progressively finer functional decomposition. |
| 6 Efficiency | Repeated successful performance where equal output with less exertion is advantageous. |
| 7 Processing Power | Tasks requiring many simultaneous variables/operations. |
| 8 Processing Speed | Tasks with stringent processing-time demands. |
| 9 Interlobe Connectivity | Tasks requiring heavy communication among different lobe families. |
| 10 Selectivity | Tasks with many possible interlobe communications but few relevant ones. |
| 11 Crossfunctional Integration | Tasks requiring functions to combine into one coherent result. |
| 12 Crossfunctional Efficiency | Tasks requiring successful combined processing under resource constraints. |
| 13 Neural Routing | Rapidly changing tasks requiring dynamic reassignment of processing pathways. |
| 14 Neural Inhibition | Tasks containing strong distractors, interference, hostile cognition, or irrelevant anti-signals. |
| 15 Functional Independence | Tasks requiring one lobe to operate without unrelated support. |
| 16 Metaneural Control | Tasks requiring monitoring, modification, suppression, or redirection of neural systems. |
| 17 Plasticity | Repeated tasks where success requires architecture to change. |
| 18 Functionally Relevant Development | Genuine demand on the target function, especially at new Hyperfunction orders. |
| 19 Corrective Development | Tasks intentionally exposing causally localizable failures. Positive phi-failures are measured by demanded activation/coverage deficits; high MRD separately exposes failed lower Antilobe monitors for targeted anti-system correction. |
| 20 Growth Efficiency | Training blocks that produce growth and then optimize how much of that growth is useful. |
| 21 NFE Scaling | Tasks exploiting larger lobes while penalizing wasteful architectural complexity. |
| 22 Crossfunctional Prowess Efficiency | Tasks requiring broad/deep/high-quality crossfunctionality without proportional connectivity-complexity waste. |
Source Canon: Preserved verbatim text. Interactive cross-references and cranial annotations available at /#divine-section:316.