A
I have not been following this discussion nor have I read all of the posts in this thread by far. But I think you are now talking about self organization?
One way to explore this origin of life topic is to look at the minimum complexity of independent life and survey the microbial database for the smallest genome. I came up with: Thermoplasma acidiphilum Archaea -1,509, Aquifex aeolicius Bacteria -1,512, Methanopyrus Kandleri AVI 9 Archaea - 1,692, Methanococcus jannaschii Archaea -1,738, Methanobacterium thermoautotrophicum Archaea -1,855, and Thermotoga maritima Bacteria -1,877.
The data indicate that the microbes possessing the smallest known genomes and capable of living independently in the earliest environment that would support life are extremophilic archaea and eubacteria. These organisms also happen to represent what many scientists consider to be the oldest life on Earth. To exist independently, life requires a minimum genome size of about 1,500 to 1,900 gene products. (A gene product refers to proteins and functional RNAs, such as ribosomal and transfer RNA.)
So far, as scientists have continued their sequencing efforts, all microbial genomes that fall below 1,500 belong to parasites. Organisms capable of permanent independent existence require more gene products.
The late evolutionary biologist Colin Patterson acknowledges the 1,700 genes of Methanococcus are "perhaps close to the minimum necessary for independent life." A minimum genome size (for independent life) of 1,500 to 1,900 gene products comports with what the geochemical and fossil evidence reveals about the complexity of Earth's first life. Some 1,500 different gene products would seem the bare minimum to sustain this level of metabolic activity.
Theoretical and experimental studies designed to discover the bare minimum number of gene products necessary for life all show significant agreement. Life seems to require between 250 and 350 different proteins to carry out its most basic operations. That this bare form of life cannot 1 survive long without a source of sugars, nucleotides, amino acids, and fatty acids is worth noting.
These numbers define the minimum number of different proteins that must come together all at once to form the cell's structural features and execute the basic functions necessary to sustain life. To explain life's "ignition," both naturalistic scenarios and biblical creation must account for a simultaneous occurrence of all the essential gene products and for their perfectly engineered assembly.
Biophysicist Hubert Yockey's calculation for cytochrome C represents the best probability estimate for a single gene product or protein to come into existence exclusively by natural means. If one assumes that the value Yockey obtained for cytochrome C (approximately one chance in 10 to the power of 75 is roughly representative of all proteins contained in the minimum gene set, then it becomes unimaginable that even 250 different proteins could come into existence simultaneously, let alone 1,500.
At 1,500 Yockey calculates the probability as 10 to the power of 112,500... a statistical impossibility.
I apologize if I'm way off base with where this discussion is. It just looked to me like you were discussing self-organization and I always like to begin that discussion here and then work both backwards and forewards. Peace and God loves you .
One way to explore this origin of life topic is to look at the minimum complexity of independent life and survey the microbial database for the smallest genome. I came up with: Thermoplasma acidiphilum Archaea -1,509, Aquifex aeolicius Bacteria -1,512, Methanopyrus Kandleri AVI 9 Archaea - 1,692, Methanococcus jannaschii Archaea -1,738, Methanobacterium thermoautotrophicum Archaea -1,855, and Thermotoga maritima Bacteria -1,877.
The data indicate that the microbes possessing the smallest known genomes and capable of living independently in the earliest environment that would support life are extremophilic archaea and eubacteria. These organisms also happen to represent what many scientists consider to be the oldest life on Earth. To exist independently, life requires a minimum genome size of about 1,500 to 1,900 gene products. (A gene product refers to proteins and functional RNAs, such as ribosomal and transfer RNA.)
So far, as scientists have continued their sequencing efforts, all microbial genomes that fall below 1,500 belong to parasites. Organisms capable of permanent independent existence require more gene products.
The late evolutionary biologist Colin Patterson acknowledges the 1,700 genes of Methanococcus are "perhaps close to the minimum necessary for independent life." A minimum genome size (for independent life) of 1,500 to 1,900 gene products comports with what the geochemical and fossil evidence reveals about the complexity of Earth's first life. Some 1,500 different gene products would seem the bare minimum to sustain this level of metabolic activity.
Theoretical and experimental studies designed to discover the bare minimum number of gene products necessary for life all show significant agreement. Life seems to require between 250 and 350 different proteins to carry out its most basic operations. That this bare form of life cannot 1 survive long without a source of sugars, nucleotides, amino acids, and fatty acids is worth noting.
These numbers define the minimum number of different proteins that must come together all at once to form the cell's structural features and execute the basic functions necessary to sustain life. To explain life's "ignition," both naturalistic scenarios and biblical creation must account for a simultaneous occurrence of all the essential gene products and for their perfectly engineered assembly.
Biophysicist Hubert Yockey's calculation for cytochrome C represents the best probability estimate for a single gene product or protein to come into existence exclusively by natural means. If one assumes that the value Yockey obtained for cytochrome C (approximately one chance in 10 to the power of 75 is roughly representative of all proteins contained in the minimum gene set, then it becomes unimaginable that even 250 different proteins could come into existence simultaneously, let alone 1,500.
At 1,500 Yockey calculates the probability as 10 to the power of 112,500... a statistical impossibility.
I apologize if I'm way off base with where this discussion is. It just looked to me like you were discussing self-organization and I always like to begin that discussion here and then work both backwards and forewards. Peace and God loves you .