Abstract

The origin of life (OOL) problem remains one of the more challenging scientific questions of all time. In this essay, we propose that following recent experimental and theoretical advances in systems chemistry, the underlying principle governing the emergence of life on the Earth can in its broadest sense be specified, and may be stated as follows: all stable (persistent) replicating systems will tend to evolve over time towards systems of greater stability. The stability kind referred to, however, is dynamic kinetic stability, and quite distinct from the traditional thermodynamic stability which conventionally dominates physical and chemical thinking. Significantly, that stability kind is generally found to be enhanced by increasing complexification, since added features in the replicating system that improve replication efficiency will be reproduced, thereby offering an explanation for the emergence of life's extraordinary complexity. On the basis of that simple principle, a fundamental reassessment of the underlying chemistry–biology relationship is possible, one with broad ramifications. In the context of the OOL question, this novel perspective can assist in clarifying central ahistoric aspects of abiogenesis, as opposed to the many historic aspects that have probably been forever lost in the mists of time.

Highlights

  • The origin of life (OOL) problem continues to be one of the most intriguing and challenging questions in science

  • We will argue that recent developments in systems chemistry [9,10,11] have dramatically changed our ability to deal with the OOL problem by enabling the chemistry – biology connection to be clarified, at least in broad outline

  • The realization that abiogenesis—the chemical process by which simplest life emerged from inanimate beginnings—and biological evolution may be one single continuous physico-chemical process with an identifiable driving force opens up new avenues towards resolution of the OOL problem [1,7,12,13]

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Summary

Summary

The origin of life (OOL) problem remains one of the more challenging scientific questions of all time. We propose that following recent experimental and theoretical advances in systems chemistry, the underlying principle governing the emergence of life on the Earth can in its broadest sense be specified, and may be stated as follows: all stable (persistent) replicating systems will tend to evolve over time towards systems of greater stability. That stability kind is generally found to be enhanced by increasing complexification, since added features in the replicating system that improve replication efficiency will be reproduced, thereby offering an explanation for the emergence of life’s extraordinary complexity. In the context of the OOL question, this novel perspective can assist in clarifying central ahistoric aspects of abiogenesis, as opposed to the many historic aspects that have probably been forever lost in the mists of time

Introduction
Is the origin of life problem soluble in principle?
The role of autocatalysis during abiogenesis
A previously unrecognized stability kind: dynamic kinetic stability
Extending Darwinian theory to inanimate chemical systems
What is still to be learned?
Full Text
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