Birth and Death in the Universe

Diverse natural systems in the universe from stars to organisms have finite “life cycles” (durations of existence). In my review, I attempt to answer fundamental but little explored questions about birth-death cycles, including “why do they exist?”, “what do they have in common?”, and “how/why do they vary?” Various physical and biological systems have life cycles because they cannot avoid “death”, metaphorically speaking. Thus, if their type is to persist, they must replace themselves. All systems with life cycles are dissipative structures with a generative phase of growth and increasing order driven by energy uptake/use and a degenerative phase of degrowth and decreasing order driven by entropy production and accidental damage. Life cycles vary in rapidity and duration, often in relation to system size. The life cycles of living systems also differ from those of non-living systems in using information to regulate their birth and death, at least in part. Living systems are born via self-production, whereas non-living systems are “born” de novo. Thus, living systems perpetuate themselves by means of branching ancestor–descendant lineages, thereby enabling the cumulative evolution of their relatively high levels of diversity and complexity. Living systems (from cells to societies) are also extraordinary in having multi-layered compound cycles, i.e., “cycles within cycles”. Based on my comparative analysis of living and non-living systems across the universe, I propose a preliminary, multi-mechanistic theory of life cycles and their origins.

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Publication Details

Journal
Sci
Published
2026-03-12
DOI
https://doi.org/10.3390/sci8030065
Primary Topic
Origins and Evolution of Life
Type
article
Field-Weighted Citation Impact
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article

Birth and Death in the Universe

Douglas S. Glazier
Sci
Origins and Evolution of Life
article

Birth and Death in the Universe

Douglas S. Glazier
article en

Abstract

Diverse natural systems in the universe from stars to organisms have finite “life cycles” (durations of existence). In my review, I attempt to answer fundamental but little explored questions about birth-death cycles, including “why do they exist?”, “what do they have in common?”, and “how/why do they vary?” Various physical and biological systems have life cycles because they cannot avoid “death”, metaphorically speaking. Thus, if their type is to persist, they must replace themselves. All systems with life cycles are dissipative structures with a generative phase of growth and increasing order driven by energy uptake/use and a degenerative phase of degrowth and decreasing order driven by entropy production and accidental damage. Life cycles vary in rapidity and duration, often in relation to system size. The life cycles of living systems also differ from those of non-living systems in using information to regulate their birth and death, at least in part. Living systems are born via self-production, whereas non-living systems are “born” de novo. Thus, living systems perpetuate themselves by means of branching ancestor–descendant lineages, thereby enabling the cumulative evolution of their relatively high levels of diversity and complexity. Living systems (from cells to societies) are also extraordinary in having multi-layered compound cycles, i.e., “cycles within cycles”. Based on my comparative analysis of living and non-living systems across the universe, I propose a preliminary, multi-mechanistic theory of life cycles and their origins.

SciVol. 8(3)
Juniata College (US)
Openalex Percentile: Top 27%
Origins and Evolution of Life
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