XENO

The experiments conducted by John Hutchison involved the use of various equipment, including a replica of Tesla's Disruptive discharge unit. This equipment was instrumental in mobile demonstrations of Tesla's experiments. Additionally, Ken Shoulders discovered that what came to be known as Exotic Vacuum Objects could be created using a self-healing cathode composed of a mercury-wetted tungsten tip. These electron clusters were launched into a xenon-filled chamber, utilizing mercury and xenon's high mass and numerous d and f shell orbital electrons. The resulting high-energy EUV and soft X-ray photons were emitted due to the formation of solitons from a high current short pulse guided through a truncated dielectric cone. For assistance with assignments in Coventry, consider seeking help from a reliable assignment writing coventry

Now that we have the E-Cat patents from Rossi, it seems like we were completely wrong about the nature of the device.
Maybe this is not the right place to discuss this, but I'm interested in hearing opinions regarding the nature of the E-Cat SKLep.
I believe we got misled by the Xenon HID ballast on Rossi's desk. It is possible that this was just used as a high-voltage source for the tube from the patent.
Nevertheless, I'm wondering where the light inside the SKLep was coming from. I don't see anything obvious in the patent which would produce such a bright light. Was this just a diversionary tactic to get people off track?

@Bob, replicating SKLep seems to be a lot easier now. Is someone in your circles considering a replication attempt? Do you have any idea what kind of tube Rossi is using or which available tube could be used for a replication attempt? Not sure if it needs to contain the material mentioned in the patent.

Sorry, has anyone done wire analysis? Ballast and DC / BOOST converter are not connected correctly !!! Other electronics also have doubts.
There are a lot of bad connections! I have a drawing but can't add it here.

I have seen this document before. It has a lot of useful information. At the same time it confirms that it is not trivial at all to drive a HID.
The proposed reference design would actually make it a lot easier to play with the HID as they use a programmable microcontroller and it seems like even the software for this is available.
Unfortunately it is beyond my capabilities building the reference board they provide in the PDF. I'm not sure if it is possible to purchase one of these boards. I sent them a request.

I'm wondering how far we can get driving the HID in abnormal ways when it is difficult to use it even in a regular way.

Besides that, it would really help if David could share how he did the measurements.

Unfortunately I did not manage to get a working MOSFET bridge circuit which would convert my DC 90V into an Arduino PWM controllable 90V AC source.
For now, I got this circuit linked below which does the same for 90V DC and seems to work quite well.

However, I still can’t get the HID to stay lit. It starts for a second or so, but then turns off. I tried with PWM frequencies between 200Hz and 2kHz. Only with a duty cycle of 100%, the HID starts. I was expecting to be able to go down with the duty cycle to a few percent in order to reduce the average current through the HID, but as soon as I reduce the duty at the moment the HID ignites, the HID immediately turns off. That happens even for duty cycles of 95% or so.

Currently I’m out of ideas on how to continue. Unless someone has an idea what’s wrong with this setup, I think I give up at this point.

If someone is interested, I can share a simulation file for Microcap (which was a commercial SPICE software and now is free) as well as the Arduino software which uses two potentiometers for controlling frequency and duty cycle and shows these values on a 16x2 LCD (like included in most Arduino starter kits).

Circuit: i.ibb.co/3hG1yDW/Circuit.png

Updated document: docs.google.com/.../...

Btw, is this project dead already? At the beginning there was a lot of back and forth, but is seems like nobody else is still actively working on XENO or nobody is sharing progress.

@Bob, I didn't record a video so far because using the bug zapper is quite trivial and besides the flashes in the bulb there is nothing really interesting to see.

The stan gun might be nice for the bulbs without an built-in ignition circuit. I think for my D1S HID it may destroy the internal electronics, not sure. The bug zapper produces only 450V which seems to be enough for the internal igniter circuit.

Currently I'm working on a circuit for running the HID in a controllable way. The circuit will be able to drive the HID with DC or AC and will be controlled with something like an Arduino or any other PWM source. I'm planing on driving the bulb in a regular way as a first step. Once this is working, I'll play with PWM pulses where I control voltage, frequency, pulse width and dead time, like Zack W suggested. I'll share schematics and the Arduino software once ready and in case someone is interested.

@EVOngalist

Thanks for your concept document that I will copy across. Have you been able to take any video yet?

I like the use of the bug zapper - had a number of them in India! I was considering the use of a stun gun which one can buy here in Czech - they have the same HV units you can buy separately but are packaged with battery compartment, switch and electrodes.

www.amazon.com/.../7824770011

zbozi.cz/.../...

and these are pulsed I believe by default.

I will copy the suggestions across.

I have asked David to reach out.

@EVOngalsit

1. The boards are stacked on top of each other. Difficult to be sure what was involved, though CAN has done some good work on lead tracing. It could be misdirection of course.

2. One of the boards has a standard Relay covered in black, as does a voltage display on another board. This of course could be also misdirection, however, many engineers and companies cover key components during transport or demonstrations. In this video youtu.be/le4zdLSpgKA?t=193 I show this and it has the capability to switch 30A 250V AC. They can be switched by 5V to 48V depending on model. www.hadex.cz/spec/l597d.pdf. In the Live document, Dave found he could ignite the bulb @135V and minimum was 0.5A at 33V. Need to get schematic and more specifics on that.


3. It could be that the bulb is operated in pulsed mode. The relay has an on/odd minimum of 20ms. If one pulsed the bulb with a 1/16th duty cycle, one would still have an average power consumption of 1W. You would be making and breaking, but given that the EVO emits a lot of light on the way up and has a ‘cool down’ period where it emits light - there could be a smoothing of light output that might not be perceived by the eye or by camera in the same way that people often can’t see the flicker on LED or Fluoro lights. We know from Shoulders designs that it is expected for the EVO to start white and then proceed through grey to black - this is what you want - moreover, it is similar to Hutchison’s pulsed high pressure Projector HID and for the device to run cool you would need to have grey/black EVOs hitting the Anode alongside the stimulated emission of electrons from the 2keV photons from the condensing electrons in the cluster. Only with conversion of Whiter to Black will you get the cooling / cold electricity to drive the Resistor. 


4. I think there are 5 units, one on each side of the box and one the box below. 5 x 0.2W = 1W. The step up convertor can take the 5V to required >33V youtu.be/le4zdLSpgKA?t=276 which is then charged into a cap to be dumped at the minimum current of 0.5A in the HID. The input power of 1W from the 12V supply is just for initiation and maintanance. 

I never suggested that the Solar Panels are driving the resistor, they are just driving the control of the HID pulses, with the whole drive energy and pulse after initiation being isolated. Note the formation of the EVO and the electron condensation producing XUV to 2 keV will yield electrons and ions, some of which will be captured into the EVO, these will then condense producing more XUV to 2 keV which will yield more electrons, rinse repeat - it is a self-sustaining /feeding Townsend avalanche. As this cluster forms it will remain negative at least in part and so will move to the Anode. When it gets there, it will contain far more electrons than were supplied to it in its initiation. Some of the cluster will collapse producing nuclear reactions of the Xe, W and possibly Hg (depending on bulb type) which will add intense thermal energy that will re-constitute the electrons in the part of the cluster that dishevels there. The remainder of the cluster will travel in the wire and as it goes through the wire it will capture thermal energy from the environment to re-constitute the electrons and the 10^5 less ions with the de-cohering electrons becoming normal electrons. Any remaining clusters dishevel in the magnetic field of the reactive resister - which is a coil - becoming normal electrons with normal resistive action possibly leading to the normal thermal heating there claimed to be 100W.



EDIT: NOTE: Dave said "lamp would only ignite if [he] had minimum of 135VDC"

The video is very interesting, again he sees the Yellow observed by Dave.

@Jeff

Post a brief in the comments and the full description in the live document please

rexresearch.com/.../...

This is a link to a work by Frolov. I was surprised to find that chapter 17 deals directly with the apparatus I am building. Bob, I have some data and photos on my design. Should I post that in comments or append to live document?