Advanced Praise for <i>The Sentient Cell: The Cellular Foundations of Consciousness</i>

TL;DR: This study examines the implications of attributing human-like agency and creativity to generative artificial intelligence, arguing that over-anthropomorphization risks dissolving humanness into algorithmic processes, and proposes a clear delineation of boundaries to harness AI's power responsibly.

Abstract: Consciousness requires explanation for how biological architectures reliably generate it. This paper introduces Value Saturation, advancing an identity claim: phenomenal consciousness IS explicit recursive self-modeling saturated by homeostatic significance under perspectival entrapment. Building on the Reaction to Reflection framework, the theory distinguishes sentience (implicit recursion under survival stakes, Level 2) from subjective consciousness (explicit recursion where self-models become manipulable, Levels 4-5). Three integrated components prove necessary: interoceptive binding, homeostatic saturation, and perspectival entrapment. Testable predictions include developmental progression from birth sentience to subjective consciousness around ages 3-5, awareness-manipulation asymmetry, and clinical dissociations producing aberrant rather than absent phenomenology. Converging evidence from prediction error processing, homeostatic feelings, metacognitive hierarchies, and biological computing's thermodynamic advantages supports these requirements. The framework specifies falsification criteria and transforms consciousness into an empirically tractable investigation of organizational transitions in biological systems under thermodynamic constraints.

TL;DR: This chapter highlights recent advances of DIET in methanogenesis and AOM processes, which has a significant impact on the global carbon cycle.

TL;DR: In this article , the authors used a molecular structure model for actin filaments to investigate the impact of roughness and finite size on the mean electrical potential, ionic density distributions, currents, and conductivities.

TL;DR: In this paper, the authors identified archaeal genes encoding candidates of fusexins, a superfamily of fusogens mediating somatic and gamete fusion in multiple eukaryotic lineages.