Perspective: Protocells and the Path to Minimal Life
The path to minimal life involves a series of stages that can be understood in terms of incremental, stepwise additions of complexity ranging from simple solutions of organic compounds to systems of encapsulated polymers capable of capturing nutrients and energy to grow and reproduce. This brief rev...
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description | The path to minimal life involves a series of stages that can be understood in terms of incremental, stepwise additions of complexity ranging from simple solutions of organic compounds to systems of encapsulated polymers capable of capturing nutrients and energy to grow and reproduce. This brief review will describe the initial stages that lead to populations of protocells capable of undergoing selection and evolution. The stages incorporate knowledge of chemical and physical properties of organic compounds, self-assembly of membranous compartments, non-enzymatic polymerization of amino acids and nucleotides followed by encapsulation of polymers to produce protocell populations. The results are based on laboratory simulations related to cyclic hydrothermal conditions on the prebiotic Earth. The final portion of the review looks ahead to what remains to be discovered about this process in order to understand the evolutionary path to minimal life. |
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subjects | Addition polymerization Amino acids Amino Acids - chemistry Animal Genetics and Genomics Artificial Cells Atmosphere Biological Evolution Biomedical and Life Sciences Carbohydrates Carbon dioxide Cell Biology Chemical compounds Earth Encapsulation Evolutionary Biology Laboratories Life Sciences Meteors & meteorites Microbiology Nucleotides Nutrients Organic compounds Origin of Life Physical properties Plant Genetics and Genomics Plant Sciences Polymerization Polymers Polymers - chemistry Populations Prebiotics Review Self-assembly Simulation Temperature |
title | Perspective: Protocells and the Path to Minimal Life |
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