From Partitioned Runtime to Generative Continuity: An OUXSPACE Framework for the Distributed Living Program in Lacrymaria olor

Lacrymaria olor provides an unusual experimental constraint on models of cellular control. Its highly organized microtubule-cortical architecture supports rapid whole-cell shape transformations, while classical microsurgical observations show that physically separated, enucleated fragments can transiently retain characteristic local motility and ciliary activity. In contrast, sustained regeneration is associated with fragments retaining nuclear resources. Together, these observations distinguish short-term local execution from long-term regenerative renewal and argue against models in which ongoing cellular function requires continuous readout from a single central controller. We develop this distinction within OUXSPACE as a distributed Living Program: a cell-wide, dynamically maintained architecture comprising nuclear and chromatin state, cytoskeletal and cortical organization, membranes, ions, energy and redox state, organelles, hydration, damage and repair. Genome and nuclear organization provide long-timescale possibility and renewal control, while cytoplasmic, cytoskeletal and membrane systems support locally executable runtime. Telomere/subtelomere organization is retained as a candidate slow renewal-state layer rather than a continuously polled master controller; a direct fast telomere-to-microtubule command pathway remains experimentally unresolved. From this architecture we derive the concept of Generative Continuity: biological continuity is preserved not by uninterrupted activity or permanent retention of particular material carriers, but by maintaining causal access to identity-compatible future states through repair, replacement and self-renewal. Cryopreservation provides the complementary limit case: execution may be strongly suppressed while restart capacity remains recoverable, showing that activity and continuity are distinct biological variables. Rehydration restores molecular accessibility, but biological restart additionally requires preserved selective architecture capable of converting accessible disequilibrium into constrained, self-maintaining flux. The same framework extends from repair and regeneration to reproduction, development and evolution. Reproduction transfers closure-forming potential to new individual systems, whereas evolution is formulated as differential generative continuity across generations under inheritance, variation and environmental constraints. Hydration is positioned as a physical compatibility and executability layer, not as a standalone repository of biological identity. The resulting framework generates experimentally separable predictions for physical partition, nuclear renewal, microtubule-membrane causal timing, telomere-state coupling and hydration-versus-ion effects. It therefore converts the 'Program of Life' from a proposed molecular location into a distributed, renewable and falsifiable architecture of biological continuity.