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The problem for Hawking was his struggle to understand how the universe could have created conditions so perfectly hospitable to life,” says Hertog. "Stephen told me he now thought he had been wrong (in A Brief History of Time) and so he and I worked, shoulder to shoulder, for the next twenty years to develop a new theory of the cosmos, one that could better account for the emergence of life.
originally posted by: Degradation33
a reply to: Astyanax
Every time a scientific theory struggles with its own genesis there is the physics god to the rescue.
originally posted by: Degradation33
a reply to: ltrz2025
The universe is a walking contradiction.
originally posted by: Degradation33
a reply to: Astyanax
Every time a scientific theory struggles with its own genesis there is the physics god to the rescue.
The problem for Hawking was his struggle to understand how the universe could have created conditions so perfectly hospitable to life,” says Hertog. "Stephen told me he now thought he had been wrong (in A Brief History of Time) and so he and I worked, shoulder to shoulder, for the next twenty years to develop a new theory of the cosmos, one that could better account for the emergence of life.
String theory is perfect for this. It comes across like the godless god copout when something extra is needed.
Why is our universe so hospitable to life?
It has to be.
Because every variation, including every universal history, initial condition, and law of physics has to exist in some form. According to string theory there is life because this is the universe where conditions allow for life.
I think people over-think this.
Amino acids are found EVERYWHERE in space. They are thought to be literally produced alongside inorganic stellar system formation.
The already present dust and ice in condensing clouds that can compact until fusion takes hold or emerge as building blocks from an extra-terrestrial primordial soup on the periphery.
I am willing to bet every system with icy comets has the organic building blocks of life left over from its formation. Stellar nurseries are probably equally packed full of these rudimentary building blocks for life. And primordial soups do not need to be attached to planets yet.
Plus it's logical in my mind to have some creation commonality.
I want to coin a new term for "panspremia" as "It-does-it-naturally-every-time-a-star-system--is-formed-from-a-condensing-cloud-of-material-spermia".
Doesn't have the same ring, but it's getting sorta of annoying with the complexity in which these theories try to link themselves up together for the theory of everything.
And maybe this is the universe where all those extra parameters line up to be perfect for this outcome?
Gravity is an elusive b**** in any case. Force carriers we cannot detect yet. That applies to all of the above.
Ten thousand light years from earth in a constellation far, far away, there is massive cloud of alcohol. It’s space booze.
Discovered in 1995 near the constellation Aquila, the cloud is 1000 times larger than the diameter of our solar system. It contains enough ethyl alcohol to fill 400 trillion trillion pints of beer. To down that much alcohol, every person on earth would have to drink 300,000 pints each day—for one billion years.
originally posted by: Degradation33
a reply to: ltrz2025
So now electrons are theoretical?
Tripping all over yourself now. What's a cathode ray tube anyway?
And I thought electrons had no radius?
Gravity wave is the new electron I guess.
"The electron is a theoretical model that has not been observed directly, but has been invented because it can consistently explain experimental data."
Like the electron and the muon, (the tau) was expected to have an associated neutrino. The first evidence for tau neutrinos came from the observation of "missing" energy and momentum in tau decay, analogous to the "missing" energy and momentum in beta decay leading to the discovery of the electron neutrino. The first detection of tau neutrino interactions was announced in 2000 by the DONUT collaboration at Fermilab, making it the second-to-latest particle of the Standard Model to have been directly observed, with Higgs boson being discovered in 2012.