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originally posted by: TerraLiga
Of course, but the first billion years or so there were only four elements in the universe - all gasses. My thought experiment was to ask how many supernovae would it have taken to create enough mass to form rocky planets in order for other complex life to evolve. My research says a LOT and from truly enormous stars.
originally posted by: TerraLiga
originally posted by: Box of Rain
originally posted by: TerraLiga
What you’ve mentioned above is exactly what I was working on for a friend a couple years ago.
You have to ask yourselves how many supernova would it take to create all the non-gaseous material in the universe. Just earth alone is 13 billion trillion tons. How many supernova would it take to build just earth? Perhaps we are the only complex multi-cellular life in the universe because there was not enough material before earth?
Adding to what Barcs said in his post above, here is the elemental makeup of all regular matter in the galaxy in descending order of abundance:
Hydrogen = 74%
Helium = 24%
Oxygen = 1%
Carbon = 0.5%
Neon = 0.1%
Iron = 0.1%
Nitrogen = 0.1%
Silicon = 0.07%
Magnesium = 0.06%
All other elements < 0.05%
You’re supporting my argument, not Barcs. The bulk of the first two are in the stars, so that doesn’t leave many metals to build the mass.
originally posted by: TerraLiga
I’m not sure you’ve followed my narrative from the beginning. It was suggested life has always been in existence from the birth of the universe. I’m saying it hasn’t.
originally posted by: jjkenobi
You either believe in a creator who created everything from nothing.
Or you believe nothing created everything.
originally posted by: TerraLiga
originally posted by: Barcs
originally posted by: TerraLiga
What you’ve mentioned above is exactly what I was working on for a friend a couple years ago.
You have to ask yourselves how many supernova would it take to create all the non-gaseous material in the universe. Just earth alone is 13 billion trillion tons. How many supernova would it take to build just earth? Perhaps we are the only complex multi-cellular life in the universe because there was not enough material before earth?
Earth isn't built completely from super novae and neither is all non gaseous material in the universe. Only the heavier elements like Iron and gold form from super novae and the earth is tiny compared to a star.
Of course, but the first billion years or so there were only four elements in the universe - all gasses. My thought experiment was to ask how many supernovae would it have taken to create enough mass to form rocky planets in order for other complex life to evolve. My research says a LOT and from truly enormous stars.
You’re supporting my argument, not Barcs. The bulk of the first two are in the stars, so that doesn’t leave many metals to build the mass.
originally posted by: Barcs
You fail to grasp burden of proof, yet again. If you claim life always existed, you need to prove that instead of dishonestly flipping the burden of proof to the negative position. How many times do I have to tell you, "You can't prove it's not X" is not a valid argument for anything. You prove the positive not the negative.
The aim of this essay is to analyze the role of quantum mechanics as an inherent characteristic of life. During the last ten years the problem of the origin of life has become an innovative research subject approached by many authors. The essay is divided in to three parts: the first deals with the problem of life from a philosophical and biological perspective. The second presents the conceptual and methodological basis of the essay which is founded on the Information Theory and the Quantum Theory. This basis is then used, in the third part, to discuss the different arguments and conjectures of a quantum origin of life. There are many philosophical views on the problem of life, two of which are especially important at the moment: reductive physicalism and biosystemic emergentism. From a scientific perspective, all the theories and experimental evidences put forward by Biology can be summed up in to two main research themes: the RNA world and the vesicular theory. The RNA world, from a physicalist point of view, maintains that replication is the essence of life while the vesicular theory, founded on biosystemic grounds, believes the essence of life can be found in cellular metabolism. This essay uses the Information Theory to discard the idea of a spontaneous emergency of life through replication. Understanding the nature and basis of quantum mechanics is fundamental in order to be able to comprehend the advantages of using quantum computation to be able increase the probabilities of existence of auto replicative structures. Different arguments are set forth such as the inherence of quantum mechanics to the origin of life. Finally, in order to try to resolve the question of auto replication, three scientific propositions are put forward: Q-life, the quantum combinatory library and the role of algorithms in the origin of genetic language.
originally posted by: Box of Rain
But I agree with you that's not the same as what the OP is proposing, which is that life "always existed" and came into existence along with the universe, and thus didn't ever need to start -- it just was.
So there could have been metal-rich rocky planets out there LONG before our sun even existed, which means there was a decent chance there was life in the universe long before our sun existed.
Replication of DNA and synthesis of proteins are studied from the view-point of quantum database search. Identification of a base-pairing with a quantum query gives a natural (and first ever) explanation of why living organisms have 4 nucleotide bases and 20 amino acids. It is amazing that these numbers arise as solutions to an optimisation problem. Components of the DNA structure which implement Grover's algorithm are identified, and a physical scenario is presented for the execution of the quantum algorithm. It is proposed that enzymes play a crucial role in maintaining quantum coherence of the process. Experimental tests that can verify this scenario are pointed out.
Today Stéphane Guillet and colleagues at the University of Toulon in France say this may be easier than anybody expected. They say they have evidence that Grover’s search algorithm is a naturally occurring phenomenon. “We provide the first evidence that under certain conditions, electrons may naturally behave like a Grover search, looking for defects in a material,” they say.
That has obvious implications for quantum computing, but its real import may be much more profound. For some time, theorists have debated whether quantum search could explain one of the greatest mysteries about the origin of life. The idea that Grover searches occur in nature could finally solve the conundrum.
Of course they can.
We discuss foundational issues of quantum information biology (QIB) -- one of the most successful applications of the quantum formalism outside of physics. QIB provides a multi-scale model of information processing in bio-systems: from proteins and cells to cognitive and social systems. This theory has to be sharply distinguished from "traditional quantum biophysics". The latter is about quantum bio-physical processes, e.g., in cells or brains. QIB models the dynamics of information states of bio-systems. It is based on the quantum-like paradigm: complex bio-systems process information in accordance with the laws of quantum information and probability. This paradigm is supported by plenty of statistical bio-data collected at all scales, from molecular biology and genetics/epigenetics to cognitive psychology and behavioral economics. We argue that the information interpretation of quantum mechanics (its various forms were elaborated by Zeilinger and Brukner, Fuchs and Mermin, and D' Ariano) is the most natural interpretation of QIB. We also point out that QBIsm (Quantum Bayesianism) can serve to find a proper interpretation of bio-quantum probabilities. Biologically QIB is based on two principles: a) adaptivity; b) openness (bio-systems are fundamentally open). These principles are mathematically represented in the framework of a novel formalism -- quantum adaptive dynamics which, in particular, contains the standard theory of open quantum systems as a special case of adaptivity (to environment).
According to a report by Scientific American, quantum physicist, Chiara Marletto, who led the Oxford study, said, “Our models show that this phenomenon being recorded is a signature of entanglement between light and certain degrees of freedom inside the bacteria.”
Green sulfur bacteria, the species that Cole’s team used, are the Earth’s natural photosynthesis-powered creatures; like the leaves on a tree, these little organisms absorb light and then convert it to energy. The scientists of this study wanted to demonstrate quantum activity in these bacteria, so the microorganisms were placed between two mirrors and fired with a photon of light.
In this experiment, some of the light interacted with parts of the bacteria in a way that indicated that entanglement had occurred. Therefore, the scientists observed that the photons did not follow the rules of classical physics. A look at the energy levels in the setup have suggested that the bacteria may have become entangled, as some individual photons seem to have simultaneously interacted with and missed the bacterium at the same time.