Site Logo

STPrism

David L Abel

4 min read

Based on the provided sources, particularly the work of David L. Abel, the significance of speciation and non-ergodicity (addressed as statistical prohibitiveness and the limitations of phase space exploration) lies in their utility for distinguishing between biological evolution and the origin of life (abiogenesis).

1. Speciation: The Selection of Existing Fitness

In Abel’s framework, speciation is significant because it represents a mechanism that operates only after life has already originated. It is used to demarcate the boundary between “Chemical Evolution” (abiogenesis) and “Darwinian Evolution.”

• Irrelevance to Origins: Speciation results from natural selection, which is defined as the “differential survival and reproduction of the fittest already-programmed, already-living organisms”[1]. Because natural selection requires self-replication and phenotypic function to already exist, it cannot explain the origin of the genetic instructions (Prescriptive Information) required to create the first cell[4][5].

• Passive vs. Active Selection: Speciation is driven by “Selection of Existing Fitness” (natural selection), which is purely eliminative and passive[6]. It cannot perform “Selection for Potential Fitness” (artificial selection), which is required to program valid genetic algorithms before a functioning phenotype exists[2].

• Post-Hoc Phenomenon: The environment cannot select for a species or a function that does not yet exist. Therefore, attempting to use speciation or Darwinian mechanisms to explain the origin of the genetic code is considered a category error[1][4].

2. Non-Ergodicity: The Problem of Statistical Prohibitiveness

While the specific term “non-ergodicity” appears less frequently than “statistical prohibitiveness,” the concept is central to Abel’s Universal Plausibility Principle (UPP). It signifies the inability of undirected physical processes (Chance) to search the vast “phase space” of possible molecular combinations to find functional life within the limited time and resources of the universe.

• Vast Phase Space: The number of possible permutations for biopolymers (like proteins) is astronomically large. For example, a small protein of 200 amino acids has over 10260 possibilities, a number far exceeding the elementary particles in the cosmos (1090)[10][11].

• Universal Plausibility Metric (ξ): Because the search space is so large and the “probabilistic resources” (time and matter) of the universe are limited, the spontaneous generation of functional complexity is “statistically prohibitive”[10][11]. If the probability of an event is so low that it cannot happen even once in the history of the universe (yielding a metric of ξ<1.0), the hypothesis must be rejected as scientifically implausible[10].

• Inadequacy of Chance: This effectively describes a non-ergodic system where the system cannot visit all possible states. Consequently, “Chance Contingency” (randomness) cannot locate the tiny islands of function (e.g., functional protein folds) within the vast ocean of non-functional sequences[10][14].

Summary of Significance

The juxtaposition of these concepts supports Abel’s argument for a third fundamental category of reality—Choice Contingency (formalism/agency)—to explain the origin of life:

• Speciation confirms that nature can optimize existing life but cannot program it from scratch[4].

• Non-ergodicity (statistical prohibitiveness) confirms that chance cannot stumble upon the necessary programming within the lifespan of the universe[10][15].

Thus, Abel concludes that physicodynamics (Chance and Necessity) is insufficient to explain the origin of Prescriptive Information, necessitating a formal agency (Choice) to traverse the “Cybernetic Cut”[16][17].

Graph View