Re: A New Theory Of Quantum Entangled Morality__Or__Why Are Republicans More Immoral Than Democrats?

Posted: Tue Oct 30, 2018 3:35 pm, #14
by Doctor A
The latest research involving a single celled living organism points towards a quantum etangled basis for evolution. Although the results are still inclusive, further research may provide an entangled basis for morality at a much earlier stage of human development than expected.

From the previous post I reported,
We also know that all cells and biological organisms interact with and respond to the physical world around them including the physically detectable properties of light, magnetism, gravity, barometric pressure, and the like. It is now known that biological organisms also interact with the quantum entanglement found ubiquitously about them. Not only do organisms interact with quantum entanglement, but this relationship is a basic building block of living material in a Darwinian sense. This is evidenced by some of the latest scientific work on how birds use quantum entanglement to follow the earth’s magnetic waves when they migrate. At the heart of the matter we have an example of a form of evolutionary adaptation to entanglement.
We humans are no exception to these biological adaptations of our species to entanglement. Coming from the same primordial cauldron of cells, we too have evolved in response to the quantum entanglement around us as a means of survival. That is to say, we have adapted our species to quantum entanglement in such a way where the most fit survived to pass on our genetic material to our offspring; this fitness came about because of this long standing relationship between our cells and quantum entanglement. This confers to us and our offspring a survivability edge within our niche.
Now from an experiment described in Scientific America, a living organism has possibly been placed in a state of quantum entanglement.

"Schrödinger's Bacterium" Could Be a Quantum Biology Milestone
A recent experiment may have placed living organisms in a state of quantum entanglement
By Jonathan O'Callaghan on October 29, 2018 https://www.scientificamerican.com/arti ... milestone/
Earlier this year, for example, researchers showed the process of photosynthesis—whereby organisms make food using light—may involve some quantum effects. How birds navigate or how we smell also suggest quantum effects may take place in unusual ways within living things. But these only dip a toe into the quantum world. So far, no one has ever managed to coax an entire living organism—not even a single-celled bacterium—into displaying quantum effects such as entanglement or superposition.

So a new paper from a group at the University of Oxford is now raising some eyebrows for its claims of the successful entanglement of bacteria with photons—particles of light. Led by the quantum physicist Chiara Marletto and published in October in the Journal of Physics Communications, the study is an analysis of an experiment conducted in 2016 by David Coles from the University of Sheffield and his colleagues. In that experiment Coles and company sequestered several hundred photosynthetic green sulfur bacteria between two mirrors, progressively shrinking the gap between the mirrors down to a few hundred nanometers—less than the width of a human hair. By bouncing white light between the mirrors, the researchers hoped to cause the photosynthetic molecules within the bacteria to couple—or interact—with the cavity, essentially meaning the bacteria would continuously absorb, emit and reabsorb the bouncing photons. The experiment was successful; up to six bacteria did appear to couple in this manner.

Marletto and her colleagues argue the bacteria did more than just couple with the cavity, though. In their analysis they demonstrate the energy signature produced in the experiment could be consistent with the bacteria’s photosynthetic systems becoming entangled with the light inside the cavity. In essence, it appears certain photons were simultaneously hitting and missing photosynthetic molecules within the bacteria—a hallmark of entanglement. “Our models show that this phenomenon being recorded is a signature of entanglement between light and certain degrees of freedom inside the bacteria,” she says.

According to study co-author Tristan Farrow, also of Oxford, this is the first time such an effect has been glimpsed in a living organism. “It certainly is key to demonstrating that we are some way toward the idea of a ‘Schrödinger’s bacterium,’ if you will,” he says. And it hints at another potential instance of naturally emerging quantum biology: Green sulfur bacteria reside in the deep ocean where the scarcity of life-giving light might even spur quantum-mechanical evolutionary adaptations to boost photosynthesis.

There are many caveats to such controversial claims, however. First and foremost, the evidence for entanglement in this experiment is circumstantial, dependent on how one chooses to interpret the light trickling through and out of the cavity-confined bacteria. Marletto and her colleagues acknowledge a classical model free of quantum effects could also account for the experiment’s results. But, of course, photons are not classical at all—they are quantum. And yet a more realistic “semiclassical” model using Newton’s laws for the bacteria and quantum ones for photons fails to reproduce the actual outcome Coles and his colleagues observed in their laboratory. This hints that quantum effects were at play in both the light and the bacteria. “It’s a little bit indirect, but I think it’s because they’re only trying to be so rigorous in ruling out things and claiming anything too much,” says James Wootton, a quantum computing researcher at IBM Zurich Research Laboratory who was not involved in either paper.