Body
Ole and Mick, I am seeing two ways of the saturation phenomenon. By
subjecting powerful neo magnetic to a hydro-static pressure of 23gpa
there is a total disappearance of ferromagnetism and a conversion of the
stored energy in the fields into electrical energy. Now I understand
why Tesla experimented with supersaturation of iron. In recent
Scientific and Physics papers we see that fundamental atomic lattice
structures are altered and lends credence to the idea that iron Fe can
transition to Mn (down shift in periodic table) at super saturation
(magnetically) yielding electrons.
On 12/31/2018 8:12 AM, [email protected] [EVGRAY] wrote:
>
> Hi Mick,
>
> The NMR is mentioned in another video about trimming or finding
> resonance. The nonlinear regions around saturation of the magnetizing
> curve are what are causing ferroresonance. Saturation happens very
> fast and can be used for making very short pulses. This is the
> interesting region with its negative inductance characteristic to look
> for free energy.
>
> The big problem is calculating nonlinear circuits.
>
> Regards
> Ole
>
>
>
> ---In [email protected], <mkjekyll@...> wrote :
>
> Ole,
>
> The magnet, It was just another guess. I did not know he mentioned NMR.
>
> I think we are all coming very close to the answers with Norm
> reminding us of the importance of the saturated state iron energy
> pump. Just have to find the commonalities of the working systems
> without becoming overwhelmed.
>
> On 12/30/2018 7:01 PM, onielsen@... <mailto:onielsen@...> [EVGRAY] wrote:
>
>> kHi Mick,
>>
>> I don't think he use magnets to bias the core. Here is a YouTube
>> channel with Akula videos:
>> https://www.youtube.com/channel/UCe-rV_geumWg3VXqgZ9pjvw/videos.
>> In one of the videos he show that there is an air gap at each leg
>> of the ring core (double U-core) made by two small pieces of
>> paper. It's the video of the number four lantern where he splits
>> it apart at the end. He also shows how to find the NMR of a core
>> in one of the videos.
>>
>> If not removing the energy while keeping on adding pulses to the
>> primary coil the core will go into saturation. If the output is
>> of too low resistance it can't absorb the energy fast enough
>> which only increases the magnetization. At some point the
>> inductance decreases when the core can't conduct anymore magnetic
>> flux.
>>
>> Here is Akula0083's YouTube channel:
>> https://www.youtube.com/channel/UC2aHNMDJzRW7YDd145_Pa2w/featured.
>> To find his free energy videos here go back three to four years
>> in the 'VIDEOS' tab.
>>
>> Regards
>> Ole
>>
>>
>>
>> ---In [email protected] <mailto:[email protected]>,
>> <mkjekyll@...> <mailto:mkjekyll@...> wrote :
>>
>> Ole,
>>
>> Maybe he has a neo on the core to get it close to saturation.
>>
>> On 12/30/2018 4:43 PM, onielsen@... <mailto:onielsen@...>
>> [EVGRAY] wrote:
>>
>>> Hi Norman, Mick,
>>>
>>> I wonder if Roman Karnouhov (Akula0083) is driving the core
>>> into saturation by a sequence of pulses in his self-runner
>>> lanterns. He shows the collector voltage of the output
>>> transistor that drives the primary coil in his lantern going
>>> negative: https://www.youtube.com/watch?v=nl9E8F1gOD0 (21:58).
>>> The auto generated subtitle translation of this video isn't
>>> too good. The negative biasing happens while the transistor
>>> is supposed to be forward conducting by having positive base
>>> signal. The current through the winding isn't shown to
>>> actual see what happens. Roman claims the effect to be
>>> ferrorresoannce which requires the core to actually
>>> saturate. It's also claimed that the rise time of the
>>> primary coil signal must be faster than the period of the
>>> ferroresonant frequency. Such short pulse periods at this
>>> low voltage shouldn't saturate the coil unless it is already
>>> biased close to the saturation current. This could actually
>>> be the case with the unidirectional succeeding pulses. Roman
>>> doesn't show the phasing of the primary to secondary coils.
>>> But if the secondary current flows while the primary current
>>> is off and the converter runs in continuous mode (i.e. the
>>> current never goes to zero) the working point of the
>>> magnetization can be put around the saturation level (the
>>> knee point of the magnetization curve). This allows storing
>>> magnetic energy in the core to be able to saturate it by
>>> adding only a small amount of extra energy. This is then
>>> done by the very short pulse that saturates the core and
>>> thus makes the inductance of the windings almost vanish
>>> which increases the current through the windings. Roman
>>> calls this the inertia of the current. As the current is
>>> always continuous through an inductor (i.e. no jumps are
>>> allowed) only the voltage across it can jump or change sign
>>> to switch the power direction from absorbing energy to
>>> giving off energy. But the voltage across the primary coil
>>> doesn't change sign. Instead the voltage across it increases
>>> to more than the supply voltage by crossing the ground level
>>> (0V). As this voltage is greater than the input voltage the
>>> energy can't flow from the voltage supply and thus either
>>> must exit the primary winding through the reverse biased
>>> transistor or exit through the secondary winding. As we
>>> don't know the phasing of the windings the current of the
>>> secondary can go through one of the two output diodes (VD3,
>>> VD4) to either the LEDs or back to the voltage supply
>>> capacitors.
>>>
>