advancing the Solid state Tesla hairpin circuit

evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #250, on December 15th, 2019, 03:47 AM »Last edited on December 15th, 2019, 04:05 AM
the L2's are tuned by 45nF but it's way to much. the resonant voltage sine is very low. I removed 10nF from both L2's and the voltage went up a bit, but not much.
If I remove much more caps, I end up with a higher frequency, and lower impulse voltage, and thus less DC offset.

I am very temped to make the magnetic fields repel. as shown in my impulse video, this increases the impulse voltage. as shown in my yesterday released video about impulse generation:


Longitudinal electrci impulse generation factors

I wonder if it matters if I use the south or north pole. If I am correct but there is no way to know, the magnetic fields differ in flow direction, centrifugal and centripetal. this means, from extaerna into L1 center hole flowing towards L3 and leaving between L2 and L3 outer rims.

OR
flowing in from the L2 and L3 outer rims, into L1 center hole, outwards.

In the end it probbably doesn't matter much, as the Aether flow is directed over L3's winding surface.

HEJ!!! that is just like Nikola Tesla's Turbine/generator! I always knew there was a connection. 
turbine patent link

fluid propulsion patent link

evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #251, on December 15th, 2019, 07:16 AM »
I need to turn one of the circuits, to get it magnetic repulsing.

L1 and L2 keep their position in the (5coil) stack, but L1 and L2 each need to be physically reversed, so they are counter wound relative to the other circuits L1 and L2 set.

this also means rewiring these 2 coils.
I just made all the wire connections soldered, to reduce resistance.
I used silver solder, but actually it increased resistance, and now I need to rewire them...
lots of work, but part of the job.

next Time I'll use longer wire leads, but then I probably know how to wire it...

Eclipse

Re: advancing the Solid state Tesla hairpin circuit
« Reply #252, on December 15th, 2019, 03:13 PM »
hey - been following your work for years. :clap: Well done. Great to see you stick with it and make some progress with learning how to tune the coils.

Do you have any latest parts updates to share? I was interested in replicating your setup (well not the chair.. I don't think I want to sit on that... are you still sitting on it daily?) I am more interested in learning about the impulses and dieletric fields.

Is this still the HSM you're using:
https://www.mouser.es/ProductDetail/Infineon-Technologies/1EDI60I12AFXUMA1?qs=%2Fha2pyFadujLjpI5ifkbvUq0b5V5%252B0d%2F%2FikcMzz8zVcHPwjZIWk%252BgB7HHTquge4j&utm_source=octopart&utm_medium=aggregator&utm_campaign=726-1EDI60I12AFXUMA1&utm_content=Infineon

And the mosfet:
https://www.littelfuse.com/~/media/electronics/datasheets/discrete_igbts/littelfuse_discrete_igbts_xpt_ixyl60n450_datasheet.pdf.pdf

Are you just connecting it to a generic CPU heat sync +  fan?

Is the buck boost you're using a pre made one - or did you make your own as part of the high side switch module? I am also in Europe so if you have a recommendation on it please let me know.

Thanks!!

Eclipse

Re: advancing the Solid state Tesla hairpin circuit
« Reply #253, on December 15th, 2019, 03:17 PM »
For tuning the coil to get it "repulsing" did you consider to use + voltage impulse instead of - ?

Is that what you're thinking for tuning it?

evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #254, on December 22nd, 2019, 05:59 AM »

evostars

inducing electricity, from fusing the dielectric and magnetic fields.
« Reply #255, on December 24th, 2019, 03:54 PM »
Electricity is created from the fusion of the dielectric and the magnetic field.

How do we create this fusion of the magnetic and dielectric field? We need to induce electricity, by using both methods of induction at the same time. We need Magnetic induction, and we need dielectric induction.

Magnetic induction is fairly well know. For example it is used in a AC transformer. A changing magnetic field induces a voltage.

Dielectric induction is less known. A changing dielectric field induces a current. An example is a discharging capacitor. A large voltage change over a small period of time, will induce a large current, (relative to the capacity). The radiant power video of april 2019 clearly shows dielectric induction at the end of the video, when the 28W lightbulb is powered by a series resonant impulsed coil. 

So we need both a changing magnetic field, and a changing dielectric field, at the same time and space to create the fusion of both changing fields, into electricity.


evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #257, on December 29th, 2019, 05:38 AM »
I want to switch to IGBT's  to get much higher voltages.
To drive them, It seems a gate driver is needed the same as with a mosfet.
OR are there differences that I need to look after.

I found this IGBT, capable of 3000V but, it seems limited by current.
Maybe the SiC mosfets are really the best option now for high voltages. ... still need to explore all options.

Meanwhile I made another video, showing the concept I now work on:


https://youtu.be/IvQck6Y-_rE


evostars

To Do
« Reply #258, on December 29th, 2019, 06:52 AM »
I still need to make an extensive analysis of the Coupled L1 and L2 coils (without L3) and the magnetic fields they have.

they should have the same
currents/magnetic fields, as they are coupled. Are they?

When does the impulse appear? Normally L2 voltage is max and L2 current is zero,
But where does the impulse energy come from? the current cant be zero.

Are voltage and current in phase? (indicating a rimg vortex around L1 and L2, as explanation why the current draw is so low, and the impulse voltage still so high)


evostars

impulse speed
« Reply #260, on January 5th, 2020, 01:17 PM »
I ordered 12 meters of 0.6mm diameter 14kt gold plated copper wire.

I will dip it several times in Latex (good dielectric) to protect the gold, and use several strands together fornyhe impulse path between the L1 anf L2 coil on the circuits.

I also decided to only use 2.5mm2 ofc speaker wire to keep resistance down.

I intend to make a ne circuit design with minimal distance between L1 and L2 connections.

All with the goal of keeping resistance down to speed up the impulses.

IGBT's are not an option anymore due to slow turn off relative to SiC mosfet speeds.

the 1700V fast SiC mosfets are pretty expensive. 85 dollars a pop
the 1200V I now use is 7.50

the voltage is doubled because I use 2 plates...  +1200 and - 1200V is 2400V between the L2. coils.

with 1700 it's a 3400V dc with a lot more energy in its field... (energy relative to square of the voltage).

First do these tests... and see what voltages I get. Less L3 capacitance, higher frequency higher voltage. But the half period  needs to be matched wiyh the impulse duration. First see how fast I can get it.

and... maybe try and see of L1 L2 coupling works, if L1 is a repulsing bifilar coil (dont expect low current draw as before, but could pump up the impulse voltage and lower duration if needed.


evostars

Imploding a High voltage dielectric field
« Reply #261, on February 15th, 2021, 02:10 PM »
after developing the radiant half bridge circuit, and series mosfet switching,

I came to the conclusion I needed to test with High voltage DC again, and tune for implosion of the dielectric field.

This will be done with the same radiant power circuit I published in April 2019.

This time I will use series mosfets, and series diodes, to get high voltage negative impulses, and high voltage positive dc offset.

L1 is a large coil 1.5mm2 and is flipped over.
L2 and L3 are equal coils, 2.5mm2 and are loose coupled.

L3 is close coupled to L1.
L3 is parallel resonant
L2 is series resonant.

L2 and L3 are LMD tuned, creating 180 degrees out if phase resonance.
Together with the DC offset, this creates a high voltage difference between L2 and L3.
This strong dielectric field is then (partly) collapsed by the voltage impulses (inductive spikes) of L1, that are injected into L2 at its voltage maximum.

Implosion is the Idea, creating a vacuum ti be filled by the ambient Aether.

This should set up a current amplification in L2 from the inrushing volume of Aether.

With L3's current vortex this Aether volume is set into a ring toroid motion.

at least... that is the idea.

I made the setup with scrap from previous prototypes, and the basic setup is now working. everything needs to be tuned properly and tested.

It is good to have a goal again.
To see if The current of L2 can be amplified more.

If everything is done, a 4th coil will be close coupled to L2, and resistive loaded (after rectifying to dc)

in two weeks time I'll hope to get all the parts for a proper high voltage setup. For now this will need to do.

evostars

characteristic impedance
« Reply #262, on February 16th, 2021, 10:24 AM »
I need to understand this concept of characteristic impedance.

It is related to the current amplification I get from the impulses in the series resonant primary.

It seems the speed of the transverse magnetic aether vortex field needs to match the speed of the longitudinal aether stream that is induced by the impulse.

for this we need the right frequency, so the impulse energy can be tranformed into maximum current amplification.

frequency is the rate/speed of transformation, and is set by the series capacitor size.

This sets the right balance of resonant voltage and current. the right strength of dielectric and magnetic aether fields.

we need just enough capacitance, to the collapse of the dielectric field (in implosion) sucks in the longitudinal aether flow, that assists the build up of the transverse magnetic vortex.

But is it even a transverse magnetic vortex when we tune into LMD resonance.
this type of resonance can be seen as electro static in nature, except its dynamic.

How does this work, and how does the magnetic field of L3 fit into  this.

better keep it simple and first find the prober frequency for L2's current amplification.

evostars

radiation 42 uS/h
« Reply #263, on February 16th, 2021, 12:18 PM »Last edited on February 16th, 2021, 12:24 PM
I did a radiation test.
it was very specific, I really need to fine tune it.
it also only happened when tuned into the lower TEM resonance.
61nf on L2 and 62nF on L3
power input 0.9A and 11.3Vx2

L2 flipped over, 3cm removed from L3 which was close coupled to L1

it peaked at 42 uS/h
I guess it must be beta radiation ("electron" or dielectric field acceleration)

I could not get radiation from LMD resonance

yellow= L2 voltage
green = L2 current
orange= L3 voltage
blue is mosfet on off
This was the very precise setting it generated the radiation

 20210216_211233.jpg - 1468.94 kB, 2560x1440, viewed 35 times.

 radiation.PNG - 38.56 kB, 1280x824, viewed 32 times.


evostars

Beta radiation test
« Reply #264, on February 16th, 2021, 02:49 PM »
ok based on the radiation setting being TEM, resonant I will flip over the L2 coil back, so all 3 coils are equal in rotation.

then I'll tune the Tem resonance to find the beat current amplification while using the radiation output as a guide.

I do not worry about the beta radiation as it doesn't reach far, and it doesn't "stick"

just don't put my hands on it while it's on



evostars

Radiation weirdness
« Reply #267, on February 17th, 2021, 08:44 AM »
maybe part of the radiation weirdness is from the Geiger Muller tube voltage.
it has an internal offset of 350 or 400V
maybe if the voltages go to high, it drives the tube out of the detection region where it stops counting. but the radiation is still there.

if the impulses are set so the current is maximum or nearly, the radiation kicks in.

the impulses are then around 600V
if I drive them higher to 1200V than the radiation meter stops counting.

evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #268, on February 18th, 2021, 02:20 AM »
after a long wait due to the chinese newyear...
isolated gate driver conversion pcb's that I designed and ordered (higher isolation value) are on its way, should arrive next week. Then I can test the series mosfet up to high voltages.

evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #269, on February 18th, 2021, 03:41 PM »
next week all the parts will arrive. great.
It was not a fun day today. My scope has an aux out that wont send trigger signals.

also one of my current probes needs calibration. it's way off

sunday mercury will go straight again. Usually things start working normally after that. Fingers crossed,
as I will soon be working with high voltage DC.

found a nice 3kV transformer, not sure if I will buy it.

evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #270, on February 19th, 2021, 12:39 AM »Last edited on February 19th, 2021, 01:54 AM
I ordered this:

Neon Light Sign Electronic Neon Transformer Power Supply with Wire Cable HB-C02TE 3KV 30mA 5-25W High Quality
https://a.aliexpress.com/_vXasUT

I could also put hvdc on L3 instead of L2.
Then I could use small isolation caps, as it is parallel resonant

if L3 is negative dc offset then a positive impulse of L2 should implode the field between them.

I have microwave diodes to rectify the 3kV ac into ac.

evostars

video shows aether inertia
« Reply #271, on February 19th, 2021, 03:22 PM »
great experiment in this video.
it shows the implosion of the high voltage dielectric field, changes weight.

I feel this is due to a volume of aether that has inertia, is being shifted.


https://youtu.be/J-IST3EKtkM

evostars

electrostatic induction
« Reply #272, on February 22nd, 2021, 01:58 AM »
The collapse (implosion) of a high voltage  dielectric static field creates a longitudinal wave, is what Tesla states in his document referencing to roentgen rays

The LMD resonance can be seen as a electrostatic form of resonance.

The dielectric lines move axial/longitudinal in strength.

When LMD resonance is combined with the implosion of the dielectric field, the longitudinal waves can amplify the current components.

this is because large volumes of Aether are set in longitudinal motion by the vacuum created by the implosion.

Aether in motion is current.

To do this, we need a high voltage electro static field to begin with.
this field is setup between 2 capacitor plates.

the plates are formed by 2 pancake coils.

these pancake bifilar coils, are resonant.

With LMD resonance they are out of phase, so we flip one coil over, so the voltages are in phase, this makes the voltage difference between the plates equal, only the voltages are shifted (sine wave) in reference to earth.
(not sure if it is really needed to flip one over, but it makes it possible to create a feedback loop with the impulse coil)

One of the plate coils is series resonant and is impulsed by a third coil (L1 impulse coil).

This impulse on one of the capacitor plate (coil) collapses the high voltage dielectric static field. this creates a implosion, which is a vacuum that is filled by the ambient medium (aether).

The aether is set in motion, the aether represents inertia and momentum when it is moving, force is generated.

the inflowing Aether volume sets amplifies the magnetic field of the resonant coil-plates.

To tune this the amount of capacitance and inductance should be balanced. this is called the characteristic impedance.
the right amount of capacity and the right amount of inductance will be able to smoothly tranform the energy into each other.

This balance sets the speed of transformation (frequency). At the right frequency (speed) the inflowing volume of Aether is picked up in the Magnetic aether vortex.


evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #273, on February 22nd, 2021, 03:23 PM »
I wonder if I use 2 coils as capacitor plates,

and one of the coils creates the implosion by the impulse,
then the same coil tranformes into a magnetic field again and deflects the aether current.

While the other plate coil also tranformes into a magnetic field at the same time.

Would it make sense to have both coils have an equal strength magnetic field (current)?

if they together have the same magnetic field strength, would make the field balanced around both plate coils.

do we want that?

what if one is much more amplified then the other?

the characteristic impedance, or in other words the balance of the field strength of the dielectric and magnetic field, should be perfect,

but that is mostly for the impulsed coil.

what of the balance of the other coil is much more magnetic (current) and less dielectric field strength (voltage).

this question rises as I want to feedback L3 into L1, and L3 will need to have an higher current than L1.

what does this do to the fields?

usually L3 is already amplified having larger amplitude than L2 with equal tuning capacity.

But L2 is series resonant (low impedance)
and L3 is parallel resonant (high impedance)

does that mean L2 is current amplified, but it is L3 that deflects the aether current?

It would make sense to have two ring vortices. one around each capacitor plate, thats why we need to distance them.

but do these 2 rings need to be equal size? wouldn't that mean status quo, we want a greater inflow in one side so we can tap into the other side? and that will balance it? by having a load?

nature wants to balance out all polarities so, if we want to let nature work, we would need an unbalanced field system right?

So one ring vortex is big and the other is small. while still having the same speed (frequency)
this demands an unequal amount of current. vs dielectric strength.
this makes one big, while having the same speed.




evostars

Re: advancing the Solid state Tesla hairpin circuit
« Reply #274, on February 22nd, 2021, 03:24 PM »
Parts came in! already made 2 new gate drivers on the conversion pcb. isolation is now 3.5mm could ve made 4 mm
still not much but much more then before.