1.1.3 Boundary-pushing function examples added by this edition

The next examples are not presented as quotations from Divine v140. They are explicit extensions added in this edition to demonstrate the outer boundary already permitted by Divine v140's open-ended function rule. Each remains constrained by the eligibility gate: the Arthitean mind or neural system must itself perform, control, regulate, resist, transform, simulate, preserve, or coordinate the function.

Extreme self-sovereignty and identity continuity

- Thought-source provenance: determining whether a thought arose from the self, another mind, a power, a rewritten history, a simulated submind, or an adversarial insertion.

- Identity continuity under conceptual rewrite: preserving executive self-identity even while external effects alter the rules or concept by which identity would ordinarily be defined.

- Self-version arbitration: deciding which of several temporally, causally, or ontologically divergent versions of the self should govern a shared action.

- Distributed-self consensus: forming coherent decisions across many concurrent selves, copies, avatars, or partitions while retaining local autonomy where useful.

- Consciousness-fork reunification: recombining independently developed consciousness branches without uncontrolled memory, goal, or identity corruption.

- Executive continuity across history rewrite: preserving goal-authorship and decision ownership when the causal history that produced those goals has been altered.

- Adversarial self-model firewalling: allowing a hostile agent to model or interact with a deliberately exposed self-model while protecting the deeper executive architecture.

Extreme hax, superhax, and effect-governance functions

- Ability-resistance allocation: dynamically distributing resistance resources to the powers or effects currently most exposed to metaeffect interference.

- Superhax counterrouting: detecting metaeffects aimed at other effects and rerouting, isolating, rejecting, or counteracting them before they alter their targets.

- Metaeffect provenance tracing: reconstructing which effect changed another effect, through which interaction chain, and under whose control.

- Effect-authentication: verifying that an active effect still possesses the intended identity, parameters, owner, target, and operating rule after adversarial modification.

- Effect-of-effect conflict arbitration: resolving incompatible metaeffects that simultaneously attempt to modify the same lower-order effect.

- Recursive metaeffect governance: coordinating metaeffects that target metaeffects, including deeper recursive effect-on-effect chains.

- Power-state synchronization: keeping many independently changing powers synchronized with current goals, threats, resistances, and one another.

- Adversarial power sandboxing: testing or emulating hostile powers inside isolated mental control architecture before exposing the wider brain or power system.

Extreme temporal, causal, and future-structure functions

- Cross-timeline epistemic reconciliation: reconciling incompatible evidence from different timelines without erasing the provenance of each evidence stream.

- Rewrite-aware memory arbitration: deciding how to treat memories when both the remembered event and the history defining its validity have been rewritten.

- Causal-calculus orchestration: coordinating calculations about the sequence of causal rewrite operations required to make a desired outcome necessary.

- Zeren-operation planning: selecting and sequencing mentally represented Zeren-operations while accounting for cascading consequences.

- Ultraprojected-future integration: integrating extremely deep projected future information into present decisions without flattening distinct projection layers.

- Future-rewrite consequence isolation: separating direct intended consequences of a future rewrite from secondary, tertiary, and recursively induced consequences.

- Self-referential causal stabilization: reasoning about a causal model that includes the thinker's own future interventions without allowing circular dependence to destroy actionability.

- Causality-rule change detection: detecting when the rules that relate causes to outcomes have themselves changed during an ongoing task.

Extreme conceptual, logical, and ontological functions

- Antipossibility-order discrimination: distinguishing possible, impossible, Antipossible, Antipossible^2, and recursively higher modal-category states without collapsing them into ordinary impossibility.

- Greater-Orders admissibility modelling: representing how a governing conceptual structure permits, rejects, or recursively rewrites the admissibility of subordinate states.

- Concept-rewrite counterinterpretation: preserving intended semantic distinctions when an external effect rewrites the concept-rules by which those distinctions would normally be interpreted.

- Ontology-layer addressing: directing a mental operation toward the intended ontological layer instead of accidentally applying it to a lower or higher analogue.

- Cross-ontology translation: translating information between incompatible ontologies while preserving explicitly selected invariants.

- Contradiction-isolated multi-logic operation: running mutually incompatible logical systems in parallel compartments and combining only the outputs whose translation rules are valid.

- Rule-rewrite-aware reasoning: reasoning inside a system whose rules may alter themselves in response to the reasoning process.

- Impossible-geometry cognition: representing and manipulating spatial or structural relationships that ordinary geometry cannot instantiate.

- Higher-dimensional topological cognition: reasoning directly over structures whose dimensional organization exceeds ordinary spatial intuition.

- Semantic-invariance preservation: preserving chosen meanings or reference-relations while surrounding conceptual rules are transformed.

- Ontological-threat classification: distinguishing whether a threat acts on physical state, mind, identity, effect-rules, concepts, metaconcepts, or still higher governing structures.

Extreme information, omission, and adversarial-analysis functions

- Nullpattern recognition: recognizing recurrent relational, sequential, conditional, or co-occurring structure among multiple informative absences.

- Crosspattern recognition: recognizing recurrent structure jointly composed of information-instances and informative absences.

- Metacrosspattern recognition: recognizing patterns, nullpatterns, or crosspatterns across multiple crosspatterns.

- Nulldata inference: inferring hidden states from what systematically failed to occur, appear, trigger, or propagate.

- Absence-authentication: distinguishing a genuinely informative absence from missing data caused by sensor failure, suppression, deception, or irrelevant non-occurrence.

- Adversarial-omission analysis: detecting strategically meaningful omissions in an opponent's communication, preparation, action sequence, or information release.

- Counterdeception modelling: constructing and testing models designed to remain useful when an adversary intentionally manipulates visible evidence.

- Antagocognitive opponent modelling: modelling how another cognitive agent may attempt to outsmart the Arthitean while simultaneously protecting the Arthitean from being outmodelled.

- Controlled hostile-cognition emulation: temporarily emulating an opponent's reasoning architecture to predict them while preventing the emulation from taking executive control.

- Strategic decoy-cognition generation: creating internally controlled deceptive mental traces intended for hostile mind-reading without corrupting authentic planning.

Extreme metaneural and architecture-control functions

- Hyperfunction-order recruitment scheduling: selecting which Higher-Lobe orders should be recruited for each task phase instead of equating structural availability with activation.

- Emergent-dimension exposure control: selecting which higher-Hyperfunction-generated emergent dimensions are made available to a crossfunction.

- Hyperemergent crossfunction composition: constructing a crossfunctional network specifically around emergent dimensions from one or more Higher Lobes.

- Recursive Hyperemergent scheduling: coordinating crossfunctions whose outputs recursively become inputs to later crossfunctions.

- Crossfunction failure localization: determining whether a failed result arose from local lobe failure, routing failure, selection failure, integration failure, inhibition failure, or a missing emergent contribution.

- Functional-architecture conflict resolution: allowing neural functions with normally incompatible activation requirements to coexist without mutual destruction.

- Temporary cognition-architecture synthesis: building a temporary neural organization for a novel task and safely dismantling or integrating it afterward.

- Brain-lobe Generation governance: determining when an unmet function merits a new primary lobe rather than deeper specialization or improved crossfunctionality.

- Recursive Sublobar Specialization planning: deciding how deeply a lobe should subdivide and which progressively narrower subfunctions should receive dedicated architecture.

- Function-space search: searching for a genuinely new mind-performable function when existing functions and crossfunctions cannot satisfy a demand.

- Function invention: constructing a new coherent mental operation that did not previously exist as a used function-kind.

- Maximumless neural task scheduling: selecting a sparse task-relevant active network from a maximumless-scale structural possibility-space.

Extreme Hyperfunction and crossfunction boundary cases

- Emergent-dimension translation: translating between higher-order emergent dimensions from different Hyperfunction families that share no primitive human-readable analogue.

- Hyperemergent output stabilization: maintaining a network function whose defining property depends on emergent dimensions from several Higher Lobes.

- Crossfunction-of-crossfunction integration: using an already-produced crossfunction as a typed input to another crossfunction while preserving provenance of its component functions.

- Evolving-function crosscoordination: maintaining useful crossfunctionality while one or more participating function-kinds are being adaptively modified.

- Incompatible-function co-instantiation: allowing functions with mutually hostile ordinary requirements to operate together through compartmentalization, routing, or higher-order integration.

- Novel-function emergence detection: recognizing when a crossfunction has stopped being merely a combination of existing functions and has produced a genuinely new function-kind.

- Hyperemergence provenance tracing: identifying which specific higher-order emergent dimensions caused a novel network-level property.

- Counterfactual Hyperfunction downgrade testing: mentally testing whether replacing H_h with lower H_j would remove a crossfunctional property, thereby identifying order-dependent hyperemergence.