• Bertietaylor 's formula

    From Bertitaylor@21:1/5 to All on Mon Jun 30 00:11:55 2025
    XPost: sci.physics, sci.math

    If A is atomic weight and N is atomic number then the number of
    electrons E holding the N protons in the nucleus is

    E = A - N

    Now E may not be an integer. That indicates the electrons for a
    particular atom nucleus do not have unit charge on the average.

    Woof woof woof woof-woof woof woof-woof nice to have one's own formula!

    Bertietaylor (Arindam's celestial cyberdogs)

    --

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  • From guido wugi@21:1/5 to All on Mon Jun 30 21:33:45 2025
    Op 30/06/2025 om 21:23 schreef Paul.B.Andersen:
    Den 30.06.2025 11:57, skrev Bertitaylor:

    comprehend that we have posited that a neutron is a tight electron
    proton.

    β− decay is when a neutron in the core changes to a proton
    by emitting an electron.
    You claim that this proves that a neutron is a proton and
    an electron in tight bond.

    β+ decay is when a proton in the core changes to a neutron
    by emitting a positron.
    Does this prove that a proton is a neutron and a positron
    in tight bond?

    Or that particle transforms are time-reversible (within the limits of
    later and previous interactions) and that β- and β+ are time mirrors of
    each other?

    --
    guido wugi

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  • From Paul.B.Andersen@21:1/5 to All on Mon Jun 30 21:23:07 2025
    Den 30.06.2025 11:57, skrev Bertitaylor:

    comprehend that we have posited that a neutron is a tight electron
    proton.

    β− decay is when a neutron in the core changes to a proton
    by emitting an electron.
    You claim that this proves that a neutron is a proton and
    an electron in tight bond.

    β+ decay is when a proton in the core changes to a neutron
    by emitting a positron.
    Does this prove that a proton is a neutron and a positron
    in tight bond?


    --
    Paul

    https://paulba.no/

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  • From Paul.B.Andersen@21:1/5 to All on Tue Jul 1 21:28:05 2025
    Den 30.06.2025 21:33, skrev guido wugi:
    Op 30/06/2025 om 21:23 schreef Paul.B.Andersen:

    β− decay is when a neutron in the core changes to a proton
    by emitting an electron.

    β+ decay is when a proton in the core changes to a neutron
    by emitting a positron.

    Or that particle transforms are time-reversible (within the limits of
    later and previous interactions) and that β- and β+ are time mirrors of each other?


    It is not time reversible in the sense that a β− decay can be
    'undone' by a β+ decay so we get the same isotope back.

    Example of β− decay:
    Carbon-14 with 6 protons and 8 neutrons decays into
    Nitrogen-14 with 7 protons and 7 neutrons + electron and antineutrino Nitrogen-14 is stable

    Example of β+ decay:
    Carbon-10 with 6 protons and 4 neutrons decays into
    Boron-10 with 5 protons and 5 neutrons + positron and neutrino
    Boron-10 is stable

    Note that the decay tend to make the number of protons and neurons
    (more) equal.
    Isotopes with equal (or more balanced) number of protons and neutrons
    tend to be stable.

    --
    Paul

    https://paulba.no/

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  • From guido wugi@21:1/5 to All on Tue Jul 1 22:48:49 2025
    Op 1/07/2025 om 21:28 schreef Paul.B.Andersen:
    Den 30.06.2025 21:33, skrev guido wugi:
    Op 30/06/2025 om 21:23 schreef Paul.B.Andersen:

    β− decay is when a neutron in the core changes to a proton
    by emitting an electron.

    β+ decay is when a proton in the core changes to a neutron
    by emitting a positron.

    Or that particle transforms are time-reversible (within the limits of
    later and previous interactions) and that β- and β+ are time mirrors
    of each other?


    It is not time reversible in the sense that a β− decay can be
    'undone' by a β+ decay so we get the same isotope back.

    Example of β− decay:
    Carbon-14   with 6 protons and 8 neutrons decays into
    Nitrogen-14 with 7 protons and 7 neutrons + electron and antineutrino Nitrogen-14 is stable

    Example of β+ decay:
    Carbon-10 with 6 protons and 4 neutrons decays into
    Boron-10  with 5 protons and 5 neutrons + positron and neutrino
    Boron-10  is stable

    Note that the decay tend to make the number of protons and neurons
    (more) equal.
    Isotopes with equal (or more balanced) number of protons and neutrons
    tend to be stable.

    Thank you for the examples, kindof reminding me of things I never
    assimilated in nuclear chemistry courses or whatever it was called at
    that time ;-)

    --
    guido wugi

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  • From Bertitaylor@21:1/5 to All on Wed Jul 2 02:36:25 2025
    XPost: sci.physics

    Natural Idiots really need Artificial Idiocy to maintain dogmas and
    doctrines.

    WOOF woof-woof woof woof-woof woof

    Bertietaylor

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  • From Bertitaylor@21:1/5 to All on Sun Jul 13 02:20:13 2025
    XPost: sci.physics

    Just chant e=mcc 666 times, robot worshipping Penisnino.

    Woof

    --

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