On the Difference between Physics and Biology: Logical Branching and Biomolecules
George Ellis, Jonathan Kopel

TL;DR
This paper explores how biological systems differ from purely physical systems by incorporating logical causation through biomolecules, enabling complex processes like neural computation and intelligence.
Contribution
It introduces the concept that biomolecules facilitate logical branching in biological emergence, bridging physics and life, and discusses how this underpins intelligent behavior.
Findings
Biomolecules enable logical branching from physical causation.
Logical causation is essential for biological hierarchy and processes.
Intelligent life involves deductive causation transcending physical limitations.
Abstract
Physical emergence - crystals, rocks, sandpiles, turbulent eddies, planets, stars - is fundamentally different from biological emergence - amoeba, cells, mice, humans - even though the latter is based in the former. This paper points out that an essential difference is that as well as involving physical causation, causation in biological systems has a logical nature at each level of the hierarchy of emergence, from the biomolecular level up. The key link between physics and life enabling this to happen is provided by biomolecules, such as voltage gated ion channels, which enable branching logic to emerge from the underlying physics and hence enable logically based cell processes to take place in general, and in neurons in particular. These molecules can only have come into being via the contextually dependent processes of natural selection, which selects them for their biological…
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Taxonomy
TopicsPlant and Biological Electrophysiology Studies · Origins and Evolution of Life · Molecular Communication and Nanonetworks
