See links in the video description! The C3M 1700V SiC mosfets do not exist (yet?), but there is a C2M 1700V MOSFET. it only needs a higher gate voltage (+20 - 5 volts). So to use it you will also need a different isolated dc dc converter.

Super interresting as always! Keep up the good work! I follow alot of people that are into tesla's works. You are by far the most interresting, true and clear person to listen to on youtube. You seem to be on the very same path that tesla has been through... There is no other paths anyways i think, but you are maybe thinking the same way he did! Thankyou for sharing!

Thank very much for sharing your interesting experiments - you are amazing

Very good, você tem feito um ótimo trabalho

I thought I watched all your videos so far but it seems I have not managed to yet. I find myself repeatedly watching your videos so that I can better remember them. I started copying some of the diagrams down by hand awhile ago in one of my note books. now that I'm free I'll be able to continue doing it. I have this idea I want to test using asymmetrical capacitors and bifilar coils involving constructive and destructive frequency by sending aetherial perturbations beamformed at each other to a conductor in between.

Thank you so much for the update, so exciting! Keep them coming!!!

Thank you Mr Evo, yet another insightful video, much appreciated.

Thank you Master Ivo for share with us... (Tu inglés es muy claro y fácil de entender, y tus aportes personales son GENIALES!!!)

Thanks men! Amazing job!

Hi Master Ivo I'm Glad to See You again. Thank You for Posting this Research. ;)!

excellent work as always. thanks

Thank you in advance!

Hi Master Ivo. The reason I mentioned using mechanical switching by Tesla before is twofold. First is the parameter of mosfets called "ON time" which means how much time the mosfet takes to open its switch. If it was instant, suppose, you would get the full power "cold electricity" we seek. Unfortunately when we read a mosfet's or any transistor's spec sheet and see the value or graph of the on time, we see that it is far from instant and the resistance when it turns on takes time to dissipate, which does not allow the full power of the tesla energy to pass through. Secondly, the gains we want in the output power or watts can only be increased to the efficiency we desire with increased voltage pulses if VxA=W because more than a few milliamps are not only hazardous but also take their toll on hardware. So dear brother, these are the two reasons and I could not explain them in my previous message. The voltage has to be incredibly high. It is precisely why Tesla's gigantic pancake coil we see in photos have the windings so far apart, so the current can not simply jump across the coil. Since you have the time and motivation and the grasp over the subject I am always eagerly following your works, sharing my thoughts and wish you continuing success.

Great stuff. Thanks.

Awesome I've been studying series and paralllel mosfet banks. Too bad there's no details on the series mosfet. I could see you had the gatedriver output side grounded to the source of the mosfets which is necessary. I'm supposing though you had to float a power supply but where is the isolation transformers? Usually there's a dc-dc converter that does this like rd001 or rd002. But maybe thyristors are cheaper for a large bank. The mosfets are supposed to be faster switching and have less losses.

Have you considered a bootstrap ic for the gatedrive? A driver like ir2110 can be used(they can be found with higher voltage specs). Because you can switch both the lowside and highside at the same time. Advantage of this is that the outputs are matched in delay. Though i like your design too! It could be that the diodes get warm because of the material differences between them as no component is truely the same. Matching their performance could help eliminate the heat :)

thanks for this & BOM! gonna start bugging ya about plans for capacitor switchboard soon, since my 'radiant half bridge' pcb should be populated later this week :) 2021 wo0t ~coldelectric

some times by pulsing batteries long enough they begin to ring back at the base threw the trigger coil causing self oscilation, a magnet seems required to achieve this. As in the Bedini mono pole

So Master Ivo what you mean by the diagram in fig.1 that Tesla was causing a pulsed resonance self-excitation on a first Ac circuit by generating a high voltage on a solenoid becoming self-excited and then he rectifies this AC voltage which then becomes a pulsed DC by inserting a capacitor in series in front of the second primary so it's not a standard self-excitation that is caused by an AC circuit but a pulsed DC that resonates in the second primary and secondary circuit...It's because of the capacitor that it's different, did I understand correctly? Thank you for your extraordinary work IVO, you have a powerful consciousness !! 😉

Wow, do you plan to update PCB?

i dont understand the purpose of the two primary coils. Are they equivalent to the coils labled R and E in the tesla diagram that you showed?

So are you going to increase the voltage of series resonance capacitors or just use more in series? 🥸

The issue with series mosfet is... the gate voltage has to be relative to the local 'ground' level... when you have a series ... you can have 1500V difference between the grounds

Can't you put a piece of aluminum or copper in between l1 & l2

Great Work M.I. (Keep going) Regards .... DC

Can a permanent magnet be used nearby to harvest higher energy ⚡ 🤔As there is resonant movement in the coils 👉 the permanent magnetic field will be captured? I hope this is useful for your research 😎👍God bless 🙏👏👏👏

the coil rings after the power is removed. Scalar wave Ring

series ? do they need to matched?

people had posted that effect with a VW 6Volt relay on yt about 15 years ago. Not going anywhere fast are we. What I like about your research is you use modern electronics to get to the same point. What do you think they probably use for military stuff in their DUMB's

I wonder what the life span on the relay would be. mechanical life cycle. If a relay has(example) 1million cycle life at ~650Hz/sec figure ~1500sec before mechanical failure .. that is under an hour. But am guessing in real life it should last much longer. Would be a neat experiment to do. cool video. thanks.

Who is the loser that gave a thumbs down on this?

Привет, мистер ИВО.