Re: Magnetoelectric vs Electromagnetic

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
>

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
>>

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
>>>

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
>>>>

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
>>>>>

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
>>>>>>