Pavlo Mikheenko is a Professor of Condensed Matter Physics at The University of Oslo, Norway:
https://www.mn.uio.no/fysikk/english/peo...index.html
I've only just stumbled across him, and his work.
Recently, Mikheenko has been writing many papers on research he's undertaking on the - cylindrical, helix-like - microtubule, where, by different experiments he's designed, he attempts to build evidence for the presence of warm/wet superconductivity within microtubules. Some of his papers are published, some are not. He's produced some really interesting results, and some enlightening speculations in his papers.
One of the signals for potential super-conductivity in materials, is their ability to screen magnetic fields.
In an Experiment (below) published at the 2023 iEEE conference, Mikheenko uses Magnetic force microscopy, together with a phase shifted technique to produce phase shifted image maps comparing mammalian microtubules with fungal microtubules. By convention, the phase shifted image map technique he uses shows areas with negative gradients of magnetic forces as dark. Therefore, magnetically screened areas are expected to be bright. This is interesting work.
The two images below show the bright areas of magnetically shielded microtubules. The upper image shows the more ordered mammalian microtubules. The lower image shows the more disordered fungal microtubules.
The next two images show the different stages of growth of mammalian microtubules taken 21 hours apart, they are far more detailed as they are produced within a stable oscillation regime. The upper image shows the initial bright (magnetic shielding) and highly ordered microtubule growth. The lower image is taken 21 hours later, and shows the extended microtubule growth that has taken place over the following 21 hours. However, note that the microtubules in the second image are dull, and not bright. This is presumed to be due to the microtubules becoming dehydrated over time, this is supportive of the idea that highly-ordered structure of water inside the microtubule channel maybe required for magnetic shielding, and thus would be required for super-conductivity.
The final image shows the bright (magnetically shielded) fully developed mammalian microtubule network, with many connections.
It is lovely to see an experimental physicist specialising in condensed matter physics just come right out and say that proving the existence of Josephson radiation from microtubules in living organisms would provide evidence for "transfer of information inside and between living organisms"
Note: The Quantum Mechanical Josephson junction was discovered by Professor Brian Josephson who was awarded a Nobel prize for his discovery.
https://en.wikipedia.org/wiki/Brian_Josephson
https://www.mn.uio.no/fysikk/english/peo...index.html
I've only just stumbled across him, and his work.
Recently, Mikheenko has been writing many papers on research he's undertaking on the - cylindrical, helix-like - microtubule, where, by different experiments he's designed, he attempts to build evidence for the presence of warm/wet superconductivity within microtubules. Some of his papers are published, some are not. He's produced some really interesting results, and some enlightening speculations in his papers.
One of the signals for potential super-conductivity in materials, is their ability to screen magnetic fields.
In an Experiment (below) published at the 2023 iEEE conference, Mikheenko uses Magnetic force microscopy, together with a phase shifted technique to produce phase shifted image maps comparing mammalian microtubules with fungal microtubules. By convention, the phase shifted image map technique he uses shows areas with negative gradients of magnetic forces as dark. Therefore, magnetically screened areas are expected to be bright. This is interesting work.
The two images below show the bright areas of magnetically shielded microtubules. The upper image shows the more ordered mammalian microtubules. The lower image shows the more disordered fungal microtubules.
The next two images show the different stages of growth of mammalian microtubules taken 21 hours apart, they are far more detailed as they are produced within a stable oscillation regime. The upper image shows the initial bright (magnetic shielding) and highly ordered microtubule growth. The lower image is taken 21 hours later, and shows the extended microtubule growth that has taken place over the following 21 hours. However, note that the microtubules in the second image are dull, and not bright. This is presumed to be due to the microtubules becoming dehydrated over time, this is supportive of the idea that highly-ordered structure of water inside the microtubule channel maybe required for magnetic shielding, and thus would be required for super-conductivity.
The final image shows the bright (magnetically shielded) fully developed mammalian microtubule network, with many connections.
It is lovely to see an experimental physicist specialising in condensed matter physics just come right out and say that proving the existence of Josephson radiation from microtubules in living organisms would provide evidence for "transfer of information inside and between living organisms"
Quote:...Proving [the] existence of coherent Josephson radiation in
living organisms would be additional argument in favor of
superconductivity and an evidence of mechanism for the
fast, with the speed of light, transfer of information inside
and between living organisms. Thus, superconductivity
could offers not only quantum processing in the organisms
[5], or effects based on entanglement of united electrons
[20], but also fast delivery of quantum information.
IV. CONCLUSIONS
Magnetic force microscopy of self-assembled
microtubules coming from different evolutional branches of
living organisms, namely mammals and fungi, reveals
differences and similarities in their growth and formation of
contacts between them. The microtubules assembled from
the tubulin of mammalian brain are long, spread in all
directions from a nucleation cite, branch intensively and
form parallel bundles. In contrast, microtubules formed from
the tubulin of the fruit body of a fungus Boletus edulis are
short, fragmented, but still well connected with each other. In
spite of these differences, both types of microtubules show
screening of magnetic field, which is considered to be
consequence of superconductivity. Due to the entanglement
of paired electrons in the superconducting state or other
effects, nanoscale superconductivity might be a key to
quantum processing of information in living organisms.
Additionally, superconductivity can provide fast, with the
speed of light, delivery of quantum information via coherent
Josephson radiation. The detection of infrared waves from a
slice of brain at application of voltage could be the evidence
of such a radiation. To be coherent, a high density of
Josephson contacts is required...
Note: The Quantum Mechanical Josephson junction was discovered by Professor Brian Josephson who was awarded a Nobel prize for his discovery.
https://en.wikipedia.org/wiki/Brian_Josephson
We shall not cease from exploration
And the end of all our exploring
Will be to arrive where we started
And know the place for the first time.
(This post was last modified: 2023-12-31, 02:04 PM by Max_B. Edited 1 time in total.)
And the end of all our exploring
Will be to arrive where we started
And know the place for the first time.