finding
active
finding:least-fixpoint-theorem-a-continuous-function-f-on-an-cpo-with-least-element-has-a-unique-least-fixpoint-definable-as-f-nLeast Fixpoint Theorem: A continuous function f on an ω-cpo with least element has a unique least fixpoint definable as ⊔ f^n(⊥).
Fundamental mathematical result in Domain Theory enabling rigorous treatment of recursive definitions and infinite computations as limits of finite information increase.
Neighborhood — ranked by edge-count
Claims (1)
claim
- Author's proposed resolution to the information increase paradox: computation gains utility through extraction and filtering, not creation of logically new content.
Communities (2)
community
- Cross-scale frameworks linking spatial patterns, diagrams, and simplicity as expressions of care in design.
- Studies how information flow, increase, and explicitness emerge from computation relative to observers and subsystems, grounded in domain theory and order-theoretic formalism.
Related by similarity (8)
cosine ≥ 0.65 · no typed edgeEntities in the same semantic neighborhood but without a typed relation to this one — candidates for new edges or unrecognized duplicates.
- Distinguishes Huginn's convergence behavior from the ideal cyclic fixed point behavior
- The key theoretical contribution: each layer in a cyclic recurrence converges to a distinct fixed point, tracing a consistent trajectory in latent space
- Alexander's critique of least action as an insufficient and non-unique explanation for morphogenesis
- Theoretical framing that establishes cyclic fixed points as the meaningful limiting behavior
- Left to future work after demonstrating these behaviors are rare but not explaining their mechanism
- Mathematical principle grounding the formal definition of continuity in domain theory to physical and epistemic constraints on computation.
- Formal proposition establishing that fixed-point convergence implies cyclic fixed points for all block permutations
- The behavior where repeated application of a transformer block converges to a state where X' = S_k(X')