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https://www.laserfocusworld.com/articles/print/volume-53/issue-02/world-news/optical-magnetism-photons-induce-high-levels-of-magnetism-in-optical-materials.html
Moray, after reading this article, reinforces below abstract findings.
On 3/6/2019 6:29 AM, Norman Wootan wrote:
>
>
> On 3/5/2019 8:28 AM, Norman Wootan wrote:
>>
>> https://www.youtube.com/watch?v=oQ1WZ-eJW8Y
>>
>>
>> On 3/5/2019 8:09 AM, Norman Wootan wrote:
>>>
>>> https://www.youtube.com/watch?v=iphcyNWFD10 The Livingston LIGO is
>>> only about 90 miles away and they have Scientific visiting days with
>>> tours.
>>>
>>> On 3/5/2019 7:54 AM, Norman Wootan wrote:
>>>>
>>>> Bert, reminded me of your double slit experiments.
>>>> https://www.youtube.com/watch?v=p-MNSLsjjdo
>>>>
>>>>
>>>> On 3/5/2019 7:33 AM, Norman Wootan wrote:
>>>>>
>>>>> Moray, I keep going back to the Micro Plasma Events instead of the
>>>>> Super Scale Solar Events, something we can experiment with as you
>>>>> are doing. See:
>>>>>
>>>>> Abstract
>>>>> Microscopically, collisionless reconnection in thin current sheets
>>>>> is argued to involve `composite electrons' in the ion inertial
>>>>> (Hall current) domain, a tiny fraction of electrons only. These
>>>>> `composite electrons' are confined to lower Landau levels
>>>>> $\epsilon_L\ll T_e$ (energy much less than temperature). They
>>>>> demagnetise by absorbing magnetic flux quanta $\Phi_0=h/e$,
>>>>> decouple from the magnetic field, transport the attached magnetic
>>>>> flux into the non-magnetic centre of the current layer, where they
>>>>> release the flux in the form of micro-scale magnetic vortices,
>>>>> becoming ordinary electrons. The newly born micro-scale magnetic
>>>>> vortices reconnect in their strictly anti-parallel sections when
>>>>> contacting other vortices, ultimately producing the meso-scale
>>>>> reconnection structure. We clarify the notions of magnetic field
>>>>> lines and field line radius, estimate the power released when two
>>>>> oppositely directed flux quanta annihilate, and calculate the
>>>>> number density and Landau-level filling-factor of `composite
>>>>> electrons' in the Hall domain. As side product we find that the
>>>>> magnetic diffusion coefficient in plasma also appears in quanta
>>>>> $D_0^m=e\Phi_0/m_e=h/m_e$, yielding that the bulk perpendicular
>>>>> plasma resistivity is quantised, with quantum (lowest limit)
>>>>> $\eta_{\,0\perp}=\mu_0 e\Phi_0/m_e=\mu_0h/m_e\sim 10^{-9}$ Ohm m.
>>>>> Keywords: Reconnection, thin current sheets, quantum Hall effect,
>>>>> quantised diffusivity, quantised plasma resistivity, composite
>>>>> electrons
>>>>>
>>>>> /(PDF) Collisionless magnetic reconnection: Flux quanta, field
>>>>> lines, `composite electrons' -- Is the quantum-Hall effect
>>>>> involved in its micro-scale physics?/. Available from:
>>>>> file:///C:/Users/Owner/Documents/(PDF)%20Collisionless%20magnetic%20reconnection%20%20Flux%20quanta,%20field%20lines,%20%60composite%20electrons'%20--%20Is%20the%20quantum-Hall%20effect%20involved%20in%20its%20micro-scale%20physics.html
>>>>> [accessed Mar 05 2019].
>>>>>
>>>>> Very interesting for the annihilation occurs at all levels. Norm
>>>>>
>>>>> On 3/3/2019 8:57 AM, Norman Wootan wrote:
>>>>>> https://en.wikipedia.org/wiki/Magnetoelectric_effect
>>>>>>
>>>>>> https://en.wikipedia.org/wiki/Electromagnetic_field
>>>>>>
>>>>>> https://en.wikipedia.org/wiki/Magnetostatics
>>>>>>
>>>>>> https://en.wikipedia.org/wiki/Electrostatics
>>>>>>
>>>>>> Bert, If we are to fully understand AG and EMP, we need to
>>>>>> understand the subtle differences from normal.
>>>>>>
>>>>>> The current debate is how to shield against EMP and Space
>>>>>> Radiation, magnetic. Pay particular attention to the first
>>>>>> topic, especially magnetostrictive and piezo materials
>>>>>>