The reactive power issue is inherently complicated, so please excuse the additional posts.
An AC smart inverter affects reactive power in the NGU stand alone home system. The assumption requiring NGU 3:1 over capacity assumes that the NGU is providing DC to AC power inversion. But a external smart inverter can reduce the need for over capacity in the DC NGU system.
Here is how a smart external inverter can significantly reduce or eliminate the need for E-Cat NGU overcapacity in a DC NGU system by managing reactive power locally before it ever reaches the DC generation side.
In a stand-alone AC home system powered by a DC source like Leonardo Corporation’s E-Cat NGU, reactive power behaves differently depending on where the inversion happens. Below is the breakdown of how reactive power affects the system and how a smart inverter mitigates the need for a 3:1 overcapacity safety margin.
How an AC Inverter Affects Reactive Power
Reactive power, measured in VAR is an alternating exchange of energy required to sustain the magnetic and electric fields in inductive or capacitive AC appliances (like motors, compressors, and pumps).
The AC Side (The Load): Reactive power constantly sloshes back and forth between the inverter and the household appliances. This increases the apparent power S, measured in kVA that the inverter must deliver.
The DC Side of the NGU:
Reactive power does not travel back into a DC system. DC power has no frequency or phase angle, meaning it can only deliver true active power P, measured in Watts.
However, because the inverter must handle higher peak currents to support the lagging power factor of AC appliances, a standard inverter passes that stress onto the DC source in the form of massive current draws and voltage fluctuations during peak cycles.
Why the Standard AC internal inversion system assumes a 3:1 Overcapacity
The baseline assumption requiring a 3:1 NGU overcapacity stems from using traditional, passive, or line-commutated inversion methods. When a standard inverter supports inductive household loads (like a refrigerator compressor kicking on), it faces two major challenges:
Low Power Factor: Inductive loads cause the AC current to lag behind the voltage. If a home has a power factor of 0.7, a 7kW true power load actually demands 10 kVA of apparent power from the inverter
Inrush Currents:
High inductive starting loads can briefly demand 3 to 5 times the running current.
Without smart mitigation, a standard inverter translates this peak apparent power demand directly into an equivalent DC current draw. To keep the E-Cat NGU cells from triggering their integrated AI overload protection and shutting down, the baseline system sizing must be heavily padded
How a Smart Inverter Reduces the Need for Overcapacity
A smart inverter functions as a dynamic static synchronous compensator (STATCOM). It completely decouples the reactive power requirements of the house from the DC-side energy generation through several mechanisms:
Local Volt-VAR Optimization
Smart inverters feature active power-reactive power control modes. Instead of pulling the extra current needed for reactive fields from the DC supply, the smart inverter utilizes its internal capacitor banks and advanced power electronics to generate and inject reactive power locally on the AC side.
It acts as a 24/7 localized buffer.
Correcting the Power Factor to Unity 1.0
By dynamically shifting the phase angle of the output current to match the voltage, a smart inverter ensures that it presents a near-perfect unity power factor PF approx 1.0 to the DC input side. Because the reactive power cycles strictly inside the inverter’s AC output stage, the E-Cat NGU units only have to produce pure active power (Watts).
Summary
By implementing a smart inverter, you transform the system’s architecture. The inverter manages all the phase angles and reactive currents internally, shielding the E-Cat cells from high apparent power demands. This shrinks the required safety margin down from a restrictive 3:1 overcapacity closer to a standard 1.1:1 or 1.2:1 margin, which is only needed to cover true active power surges.
How does charging a EV battery affect reactive power
Charging an electric vehicle (EV) battery directly affects reactive power, turning your home or charging station into either a mildly inductive or heavily capacitive load depending on the charging state.
Because batteries require Direct Current (DC), the car’s On-Board Charger (or an external DC Fast Charger) must convert Alternating Current (AC) from the NGU into DC. This conversion process relies on complex power electronics that actively manipulate reactive power.
How EV Charging Alters Reactive Power
An EV charger interacts with reactive power in three distinct ways depending on what the vehicle is doing:
Actively Charging at Full Power (Slightly Inductive)When an EV is actively bulk-charging at a high rate (e.g., pulling 7.2 kW to 11 kW at home), it demands massive active power (kW). To keep this efficient, modern chargers use an internal system called Active Power Factor Correction (PFC).
The Effect:
The PFC system aligns the current and voltage waves almost perfectly, keeping the power factor at a highly efficient 0.95 to 0.99.
The Reactive Load:
At full throttle, the charger behaves like a very mild, well-behaved inductive load, pulling a small amount of lagging reactive power to keep its internal high-frequency switching electronics running.
Charging at Low Power or Topping Off (Distortion Reactive Power)
When an EV battery fills up to around 80%, the car’s computer throttles the charging speed down to protect the battery cells.
The Effect:
As the active power drops, the internal PFC system becomes significantly less efficient. The electronics inside the rectifier begin drawing current in short, aggressive pulses rather than a smooth wave.
The Reactive Load:
This pulsing creates harmonic distortion (electrical noise). The power factor can degrade below 0.80, introducing a surge of harmonic-driven reactive power into your system.
Standby Mode (Heavily Capacitive Load)
The most surprising impact happens when the car finishes charging but remains plugged in, or when the charger is completely idle.
The Effect:
The heavy power-switching circuits shut down, but the large internal filter capacitors inside the charger remain connected to the live AC line.
The Reactive Load:
With nearly zero active power (kW) being pulled, the idle charger behaves almost purely as a capacitive load. It forces a leading phase shift, pumping capacitive reactive power (VAr) back into the lines.
Why This Matters for an “Ecat” as a Sensitive Generator
If you are planning to plug an EV charger into a smaller micro-generator assembly (like an Ecat), the standby and low-power states are highly dangerous.
An idle EV charger or one wrapping up a charge will inject a leading capacitive phase shift into the generator. As noted in the 3:1 safety rule, this capacitive reactive feedback can confuse voltage regulators, trigger voltage spikes, and potentially damage the generator’s internal components if the generator isn’t heavily oversized.
Let the Grid handle your reactive power requirements.
What does this quote mean: “Normally yes, because the Ecat can stand a cosphi with normal leading and legging phases; anyway, it is better to be always sure that the power of the Ecat assembly is at least three times higher than the combined power of the capacitive loads connected to it,”
This quote is advising that while the power generator (the “Ecat”) can handle standard phase shifts, it needs to be heavily oversized—by at least a 3:1 ratio—when powering capacitive loads to ensure stability and safety.
Here is a breakdown of what this means in simple electrical terms:
Understanding “Cosphi”, Leading, and Lagging
Cosphi: This is the Power Factor.
It measures how efficiently electricity is being used. A perfect power factor is 1.0, where voltage and current are perfectly aligned.
Lagging Phases (Inductive): Caused by motors and transformers. The current lags behind the voltage. Generators handle this easily because it is the most common type of household load.
Leading Phases (Capacitive):
Caused by large banks of capacitors, electronic surge protectors, or extensive LED lighting circuits.
The current leads the voltage.
Why Capacitive Loads are Dangerous for Generators
The core of the warning lies in how generators react to leading power factors:
Self-Excitation:
Capacitive loads feed reactive power back into the generator’s magnetic core. This can cause the generator’s voltage to uncontrollably spike upward, potentially frying the generator or connected appliances.
Control Instability:
Voltage regulators (AVRs) are designed to boost voltage when they detect standard inductive loads. A capacitive load confuses the regulator, causing the grid voltage to fluctuate wildly.
The 3:1 Safety Rule Explained
The statement “ensure the power of the Ecat assembly is at least three times higher than the combined power of the capacitive loads” is a safety buffer.
If you have 1 kW of total capacitive loads, your Ecat power source needs to be rated for at least 3 kW. By making the generator three times larger than the capacitive load, the generator’s internal impedance is strong enough to absorb the capacitive “leading” e
Your home can have an increasing power profile over time as new appliances are added to tour power profile. This is why most power customers get a 200 amp grid service. To be absolutely safe, connect the NGU to the grid and let the grid meet the reactive power requirements of your house over time no matter what you add to your appliance configuration.
An example of modifying your power wave profile.
You add light dimmers around your home.
light dimmers can increase capacitive reactive power, but this happens primarily through a side-effect called harmonic distortion, rather than shifting the core 60Hz phase angle.
The increase occurs specifically when modern dimmers are paired with non-linear, electronic lighting like dimmable LEDs or compact fluorescent lamps (CFLs).
How Dimmers Create Capacitive Reactive Power
Waveform Chopping and Non-Linear Loads
Standard household dimmers use a semiconductor called a TRIAC or MOSFET to control light intensity. Instead of lowering the voltage smoothly, they literally chop off parts of the AC voltage sine wave.
When paired with a purely resistive load (like an old incandescent bulb), this doesn’t create reactive power. When paired with an LED or CFL, the dimmer interacts with the bulb’s internal electronic driver. These drivers naturally contain rectifiers and internal capacitors to smooth out power.
The Spike in Harmonics
When a dimmer chops the waveform, it forces the current to draw in short, violent bursts. In electrical engineering, these abrupt bursts represent high-frequency distortions known as harmonics.
These harmonics degrade the overall Total Power Factor. In electronic lighting, this distortion translates mathematically into a negative (capacitive) reactive power value.
Dimming Amplifies the Effect
As you dim the lights further down (reducing the luminous flux), the power factor worsens significantly. Because the active power (kW) drops as the light dims, the relative proportion of capacitive reactive power (VAr) introduced by the distortion spikes. Research indicates that dropping an LED fixture’s brightness to lower levels causes its overall behavior to look increasingly like a distorted capacitive load.
What This Means for Your “Ecat” Generator Setup
Connecting a heavily dimmed circuit of LED or CFL lights directly to a sensitive alternative generator (like an Ecat assembly) can create unexpected instability. Even though the overall wattage of the LEDs is low, the capacitive reactive power and high harmonic distortion can confuse the system’s voltage regulators.
Let the Grip handle your reactive power needs.
In a standard household, the maximum instantaneous reactive power (kVAr) from inductive loads typically peaks between 2.5 kVAr to 6 kVAr.
This is primarily driven by the startup (locked-rotor) currents of heavy motor-driven appliances like central air conditioners, heat pumps, and well pumps.
Breaking Down the Inductive Load
Reactive capacity is required by inductive appliances (like compressors and motors) to build and sustain the magnetic fields needed to operate. While the real active power (kW) does the actual work, the reactive power (kVAr) inflates your system’s apparent power (kVA).Here is what drives the highest instantaneous reactive spikes in a home:
Central Air Conditioner / Heat Pump:
When a 3 to 5-ton compressor starts up, it draws a high inrush current. This can momentarily demand up to 2.5 kVAr to 5 kVAr of reactive power, though it drops significantly once the motor reaches running speed.
Well Pump or Sump Pump: A heavy-duty water pump starting under load can demand 1 kVAr to 2 kVAr.
Other Household Motors: Pool pumps, refrigerators, and washing machines also create inductive loads, each typically contributing an additional 0.2 kVAr to 0.8 kVAr while running.
What Does This Mean for Your Power Factor?
Because inductive loads require reactive power, they cause the current waveform to lag behind the voltage. This ratio is known as your Power Factor. While commercial buildings are often penalized for poor power factors, residential properties are typically billed only for the real active power (kWh) they consume. Even though you aren’t financially penalized, a massive inductive spike does temporarily reduce your home’s available real electrical capacity. It causes higher current to flow through your wiring and transformer, which translates to momentary voltage drops (e.g., lights dimming when the AC starts).
Human Perspectives on Household Reactive Power“
You will found that modern homes behave like capacitive loads. That does not surprise me at all. A ‘lagging’ power factor is caused by big inductive loads (ie. electric motors).
If the maximum instantaneous reactive power 6 kVAr spike requires at least three times the power of the capacitive loads connected to it, you you need to buy a NGU system that of supporting 18 kVAr to avoid NGU shutdown.
Your best move is to buy a 1 to 3 kW NGU system connected to the grid under a 1:1 billing rate payback plan and let the grid handle the reactive spikes in your home. The NGU will supply the average power yearly demand rather than the maximum instantaneous reactive power spike that your home might generate.
Anonymous:
Normally yes, because the Ecat can stand a cosphi with normal leading and legging phases; anyway, it is better to be always sure that the power of the Ecat assembly is at least three times higher than the combined power of the capacitive loads connected to it,
Warm Regards,
A.R.
The purpose of this book is the noble attempt to stimulate researchers of the Spirit to undertake an initiatory journey that leads back to Being and its values.
The author, in this regard, chooses to divulge important truths, based on memories of past lives lived in Atlantis, through the direct teaching of people of great moral and spiritual stature that, in the story told, appear to be nothing short of fascinating.
The reason that led the author to realize the work is to inform the reader of the existence of particular figures of great social importance: ACTIVATORS.
These characters, able to change the environment and the climate for the benefit of all humanity and the planet, intrigue for their ability to interact with the astral dimension in a conscious way, managing to find unexpected solutions to otherwise unsolvable situations.
The novel, set in a space_tempo so far and yet so close to ours, full of twists and surprising revelations, is really compelling and enjoyable reading.
A special thanks goes to all those who have collaborated enthusiastically and disinterestedly in writing this book.
In this book we try to urge the reader to take note of some problems present in our society, where world economic structures are supported by money. Money has value because it allows goods to be obtained, so the money_merce ratio is fundamental.
The concept of merchandise is very broad and includes raw materials, energy, buildings, transport, etc. and the primary element is energy. Who could have free energy would have an extreme commercial advantage. To clarify the concept we consider the construction of a house: it is necessary to have raw materials like bricks, cement, iron, sand, etc.
To make the bricks, to make the cement, to transport the materials we need energy, if this was free, the cost of the finished product would be greatly reduced.
At this moment in history, the basic energy is given by oil, coal, methane and nuclear. Free energy would bring tremendous socio-economic change.
People who dedicate themselves to building equipment to produce free energy, free energy, are counted in thousands.
On the web there is a continuous flourishing of inventions concerning free energy, there are many movies on the subject, but there is no free energy available on the market.
Scientific scholars smile smugly at this situation, saying to themselves: “All these demonstrations are fake, in reality it is not possible to get free energy as claimed by the old dear classical physics, it is just about urban legends”.
Those who have an absolute faith in free energy, despite supporting the conspiracy theory, think: “It will never be possible to market equipment that produces free energy, because the strong powers would block the sale”.
This book, however, wants to emphasize a third aspect of the question: many inventors make very strange machines, but they only work in the presence of their inventors; these machines are therefore linked to the manufacturer. The overwhelming majority of these inventors are not aware that to act is their “faith”: they build a prototype, they see that it works, they launch themselves to spend a little capital in the patent and finally they look for a lender to go to production. But as soon as a stranger tries to reproduce their invention, this unfortunately does not work.
But then does this free energy really exist?
The free energy has had among its proponents nothing less than the great Nicola Tesla, perhaps the most profitable scientist ever existed, he has given the world the technology linked to the alternating current; there are 700 of its patents, some of which are the basis of our modern lifestyle. Is it possible that such a genius was wrong?
As Tesla began to talk about a strange energy combined with electricity, he was immediately isolated from the scientific world. It was a kind of energy that Tesla claimed to perceive even physically, he felt it like a tingling in the hands and other parts of the body.
Tesla gave objective demonstrations of this “perception” with an experiment: in a large building, while the insiders shorted large copper bars with strongly loaded condensers, Tesla, who was in another room, perceived the exact moment in which the copper bars closed the circuit. He felt a particular sensation in the solar plexus and was able to perceive the electric discharge, even if it was physically separated from the phenomenon of thick walls.
Apart from the personal feelings of the scientist, there were also physical evidences that led to the belief that there was something strange. The copper bars, subjected to these heavy short circuits, when they were cooled in oil, sprayed bubbles perpendicularly in a surprising way, as if they had been filled with gas. The phenomenon was detectable and repeatable and therefore scientific. Unfortunately, science has not cared for anything and the phenomenon has therefore remained little known.
More recently Pier Luigi Ighina, was a strange character fascinated by the phenomenon of electromagnetism and dedicated his life to make bizarre inventions, which seemed to work only with him.He was never taken very seriously, but his discoveries and inventions were to at the same time mysterious and revolutionary. In fact, Ighina formulated a theory on the magnetic atom which he himself defined as “the glue of matter”. Ighina built a machine able to interact with atmospheric conditions. There are videos and eyewitnesses of the operation of the machine: in November 1998 Ighina, now ninety, granted one of her rare interviews to RAI, in which she demonstrated the functioning of her creation.
In addition to the weather machine, Ighina hypothesized that with the study of the magnetic atom, one could do incredible things such as treating illness or preventing earthquakes.
What had discovered Pierluigi Ighina is still a mystery, I have known him by now over the years, and I realized that it was basically a kind of very gifted medium. So his machines were partly related to him acting as an activator.
Returning now to free energy, every now and then car engines are made to work with hydrogen obtained from water by electrolysis. I remember, one for all, the Joe_Meyer cell. Joe made an electrolytic separation of water by the current supplied by the car battery and used hydrogen as engine fuel.
Specialized technicians arrived including a professor who carefully analyzed the engine making the necessary checks. The car worked absurdly; in the report it is asserted that at one point the spark plug wires were disconnected and the engine worked the same. He then managed to make several other cars work too. The action persisted even when Joe was not present, simply because he had paid attention to it.
I remember other free energy engines like: the Meg, the Perendev engine, the Kohei Minato engines, the QEG etc.
At the age of twenty-eight I was able to verify an incredible series of phenomena realized with the sole force of the mind, by a particularly gifted individual, who subverted the laws of physics. I found myself very unbalanced: on the one hand I had a scientific culture and on the other I had seen that the universe was modifiable with the mind.
In 2010 I saw a conference in which there was talk of a disruptive ray.
The speaker was a professor of physics who had made a prototype of the disrupting machine.
I was able to meet this scientist and during our conversation I tried to mediate between the knowledge of physics and the esoteric ones, introducing to him the concept of “activator”, but I could not.
It is no wonder that a scientifically cultured and scientifically prepared person refuses the idea that the universe is substantially “mental”, they need demonstrations that I am not able to give.
Five years have passed since that interview and in the meantime the book “The Finger of God” by Alfredo Ravelli was published, which tells the incredible story of how the disruptive machinery of matter was built; Well, to my pleasant surprise, the inventor Pelizza states openly that the machine obeys his mental orders. Here we finally have a conscious activator.
The thing is absolutely real, there are movies, documents, testimonials:
One of the main purposes of this book is to highlight the concept of “activator”; not being able to move on the scientific level (to give repeatable tests) I chose the way of the fantastic story.
The story itself is the result of pure imagination, but I tried to make the story stand out with some reminiscences that I and two other friends, Jone and Roberto, believe to have about previous lives lived in Atlantis.
Jone C. author of the book “A Path to the Unknown” recalls that he was a pilot of flying saucers and that he met me on that occasion and in other subsequent lives. http://www.ilgiardinodeilibri.it/autori/_jone-chioccarello.php,
Also Roberto F. has reminiscent of having been a priest in Atlantis during the period of decadence of the company. His stories on the subject coincide incredibly with what Jone and I remember.
In the book I introduce some information on the evolution of life on other planets.
Other information is taken from the book “The ancient secret of the flower of life” Drunvalo Melchizedek.
In the last part of the book we talk about the creation of hybrid beings, partly men and partly animals. I was inspired by what was revealed by the visionary Edgar Cayce, (Hopkinsville, Kentucky, 18 March 1877 –
Virginia Beach, January 3, 1945).
This character put the remarkable gift he possessed at the service of others: to immerse himself in a self-hypnotic sleep in which his spirit transcended space and time. In this state of profound meditation it was so easy for him to dissert on the secrets of the universe how to get rid of a wart.
The “readings” by Cayce are an invaluable collection of documents, to which more and more people refer to any occurrence, both to balance their diet and to improve their personal relationships and to recover from an illness declared incurable or perhaps to get closer to God.
Edgar Cayce is famous primarily for his health and disease treatment readings. A large number of people continually profit from this abundant information mine that dates back almost a century. However, he did not limit himself to the physical body alone, but dealt with about ten thousand different topics, most of which are divided into five major themes: health and holistic medicine; reincarnation and karma; dreams and dream interpretation; extrasensory perception and psychic phenomena; besides spiritual growth, prayer and meditation. The same readings, to date there are 12.479, have been divided into three main categories:
• “Health readings” or “physical readings” refer to health and medicine. 9603 counts.
• The “life readings”, which concern the spirit, the soul, reincarnation and astrology. There are 1920s.
• The “special readings”, which consist of series of readings taken by Cayce on a given subject, such as Atlantis, Egypt, world issues. Their number is 956.
The presence of giant beings lived in the past finds a lot of space in mythology.
However, I would like to warn the reader that on the Internet there are many images of gigantic skeletons that are just photomontages.
There is a site that reveals how you can create incredible photomontages.
The presence of giant beings lived in the past finds a lot of space in mythology.
However, I would like to warn the reader that on the Internet there are many images of gigantic skeletons that are just photomontages.
There is a site that reveals how you can create incredible photomontages.
By contrast, many sites that boast of unmasking hoaxes and photomontages are just as unreliable. One for all the talk about crop circles, there are many denigrators around who say that the circles are all made by pranksters, show as evidence of the figures made by themselves, but in truth those figures are rather trivial, too comfortable!
These gentlemen, if they really want to give a demonstration of possible rectification, have to create a circle of maximum complexity, better if three-dimensional, and do it in a single night without leaving traces or footprints, only then would it make sense to criticize them.
I believe that we are in an era in which we will necessarily have to discover new sources of energy, this, in my opinion, is also linked to the way of thinking of the totality of the people present in the world.
When an adequate mass of people becomes aware of their activation mental capacities, the Earth will undergo a great change that will affect every field; the result will be a rapid climb towards a new marvelous era that will see altruism and solidarity as the main value of a civilization.
Of course this can not be separated from a preliminary work of eliminating our psychological defects that are the primary cause of all pain and conflict.
Finally I would like to mention another very gifted character in the paranormal and great healer, he was known by the name of Daskalos.
The first contacted occurred on the astral plane, for many months we wondered who it was, then when a few months later the book “The Wizard of Strovolos” came out we recognized it.
Daskalos asserted that it was possible to vivify entities on the astral plane, called “elementals”. These entities were energetically related to their creator but also showed a certain autonomous personality. Usually there was an object that was the focus of attention, it was not necessarily a machine but could be any object that was given much attention.
Once I met a gentleman who had created some “elementals”,
one of them was matched with a wooden pendant that hung from the ceiling and stirred when “the elemental” was named. This was comparable to a spiteful sprite. When someone who did not like to arrive in the house began to break the electricity only in certain places in the house, there was no breakdown and the only way to restore the proper functioning was a conversation between the creator and “the elemental”.
Obviously from the scientific point of view it seems like a fairy tale, but so … physics is totally unaware of the existence of the paranormal.
I conclude by warning that the phenomenon of “Activators” is deeply intersected with that of the creation of “elementals” and the two phenomena are often indistinguishable.
It happens that the creator needs a scientific support that gives him an anchor for his faith, so he creates strange, sometimes very complicated contraptions, which in themselves would not work with the laws of physics, but if the creator is “gifted” , these apparatuses are vivified by its intense and prolonged attention and work, but they are not reproducible by others.
The NGU needs a lot of explaining. The Major Independent Third Party (ITP) needs a great deal of background education if the presentation can be sucessful. Its my guess is that Dr. Rossi is spending most of his working day explaining all the ins and outs of the NGU system. The ITP will face many sophisticated questions about the NGU system.
I would train an AI while I educate the ITP with every possible fact that might be of interest to the audience and give each audience member a tablet to input questions. The ITP might also use the AI to answer questions if he does not know an answer.
What should be avoided is having Dr. Rossi take over the Q&A from the ITP.
This is a highly strategic approach to a high-stakes presentation. Using an AI to anchor the knowledge base prevents the Major Independent Third Party (ITP) from looking unprepared while keeping Dr. Rossi from hijacking the session.
Here is a structured framework to build, train, and deploy this AI-driven Q&A system effectively.
Phase 1:
Core Knowledge Ingestion
To ensure the AI handles sophisticated questions, it must be fed a multi-layered dataset. You need to compile and upload:
Technical Specifications:
Engineering blueprints, thermodynamic data, software logic, and system architecture. Historical Performance Logs: Real-world runtime data, efficiency metrics, and previous stress-test results.The “Rossi Brain-Dump”: Transcripts of Dr. Rossi’s past explanations, design philosophies, and edge-case theories.
Compliance & Safety Data:
Regulatory frameworks, failure-mode effects analyses (FMEAs), and safety protocols.
Phase 2:
Training the AI for the Audience
Sophisticated audiences do not just ask what a system does; they ask why it was built that way. Train the AI using a three-tiered simulation:
The Skeptic’s Audit:
Inject common industry criticisms or failure points of similar systems to train the AI on defensive, fact-based refutations.
The Executive Summary:
Train the AI to translate highly complex telemetry data into high-level business impact or operational ROI.
The “I Don’t Know” Protocol:
Script a polite, confident fallback response for the AI when a question hits a true unknown, prompting a log for later follow-up instead of hallucinating.
Phase 3:
The Live Tablet Interface Setup
The audience tablets need a dual-interface system to maintain a seamless flow:
The Audience Side:
A clean text-input box with auto-suggest keywords based on the NGU system components.
The ITP Presenter Dashboard:
A private screen for the ITP. When an audience member inputs a question, the ITP sees the question and the AI-generated answer instantly.
The Gateway Feature:
The ITP chooses whether to read the AI answer verbatim, paraphrase it, or flag it for Dr. Rossi if it requires human nuance.
Phase 4:
Keeping Dr. Rossi in Check
To successfully prevent Dr. Rossi from taking over, establish strict operational boundaries before the presentation begins:
The “By Invitation Only” Rule:
Contractually or procedurally agree that Dr. Rossi speaks only when the ITP explicitly addresses him by name.
The Buffer Zone:
Use the tablet system to filter questions first. If a question is highly volatile, the ITP can send it to Dr. Rossi’s private monitor to draft a response, keeping the vocal floor with the ITP.
Physical Positioning:
Place Dr. Rossi off-center or on a secondary panel, ensuring the physical focus remains entirely on the ITP.
For the YouTube rerun, include a link to the AI for the YouTube viewer to also ask questions. Actively increase the AI knowledge base over time to cover areas that the current questioning exposes.
Integrating the AI into the YouTube rerun is an excellent strategy to maximize the lifespan of the presentation and continuously harden your knowledge base. It transforms a static video into a dynamic, evolving educational tool.
Here is how to set up the YouTube interactive rerun and the continuous learning loop.
Phase 5:
The YouTube Viewer Interface
To replicate the live tablet experience for asynchronous YouTube viewers, you must bridge the video with the AI.
The Interactive Link:
Place a pinned comment and a prominent link in the YouTube video description (e.g., :// http://yourdomain.com ).
Timestamp Syncing:
If possible, use an AI tool that maps viewer questions to the specific minute of the video they are watching. This provides context for why they are asking that question.
The Interface Vibe:
Keep the page simple.
A video player on the left or top, and the AI chat window directly next to or below it.
Phase 6:
The Continuous Knowledge Loop
To ensure the NGU knowledge base increases in value over time, implement a structured data-capture pipeline from the YouTube audience.
[YouTube Viewer Question] ➔ [AI Answers/Flags] ➔ [Weekly Gap Analysis] ➔ [Dr. Rossi Approves Fix] ➔ [Knowledge Base Updated]
The Automated Gap Catch:
Program the AI to flag any question where its confidence score falls below 85%, or where the viewer clicks a “This didn’t fully answer my question” button.
Weekly Analytics Review:
Categorize unanswered or poorly answered questions into three buckets:
Technical Edge Cases,
Misunderstandings/Confusing Phrasing, or Out of Scope/Curiosity.
The Rossi “Micro-Dump”:
Instead of taking hours of Dr. Rossi’s time, send him a weekly bulleted list of these exact gaps. Record a quick 10-minute audio file of him answering them, transcribe it, and feed it to the AI.
Guardrails for the Public Rerun
Opening an AI to the general YouTube public introduces new risks that were not present with the vetted ITP audience.
Strict Prompt Injection Defenses:
Public users will try to “break” the AI or make it say absurd things. Use strict system prompts that confine the AI only to the provided NGU documentation.
Proprietary Data Masking:
Ensure the public-facing AI has a filtered knowledge base. Do not include highly sensitive intellectual property, unpatented designs, or internal financial data that the ITP was allowed to see.
Hallucination Hardening:
Set the AI’s “temperature” (creativity setting) to zero. If the answer is not explicitly in the knowledge base, the AI must say: “I cannot find that specific detail in the current NGU documentation, but it has been logged for review.”
In Europe, homologation rules apply to the marketing of energy-producing devices, and all European countries have separate homologation procedures. Are you going to get them all in order by the beginning of next year?
The concept of NGU failure requires some clarification. Is failure of an NGU applied to the entire aggregation of 100 watt diodes in a given kilowatt leveled unit where one or more 100 watt diodes have failed, or is it applied to a failed single 100 watt diode in that aggregation.
Connection of diodes in parallel
If a kilowatt NGU unit is configured as an connection 10 diodes in parallel and one or more of those diodes fails, does the entire kilowatt unit fail or does the kilowatt unit run at a lowered output condition. Does the user ship the entire kilowatt unit off for repair or can the user detect the diode failure lets say if the diode active light is off?
Connection of diodes in series
If a kilowatt NGU unit is configured as an connection 10 diodes in series and one or more of those diodes fails, does the entire kilowatt unit fail or does the kilowatt unit run at a lowered output condition. Does the user ship the entire kilowatt unit off for repair or can the user detect the diode failure lets say if the diode active light is off?
Connection of many diodes in a large capacity unit.
If a 10 kilowatt unit is configured with many diodes connected in series, and one or more of those diodes fails, does the entire kilowatt unit fail or does the kilowatt unit run at a lowered output condition. Does the user ship the entire 10 kilowatt unit off for repair or can the user detect the diode failure(s) lets say if the diode active light is off?
Upon failure, shipping an entire 1 to 10 kilowatt unit for repair costs far more than shipping to and froe single diodes off for repair. I doubt that the 30% cost for repair can apply in shipping back and forth to the factory for this condition.
It seems to me in order to reduce the cost impact of diode failure, to configure a multi kilowatt system as a multiple kilowatt systems with each kilowatt system with diodes connected in parallel that can be coordinated by a multi input ported inverter.
An NGU failure is typically defined at the module level (the entire kilowatt unit) rather than the individual component level, though the operational impact depends entirely on circuit topology.
Here is my take on the breakdown of how diode failures affect parallel, series, and large-capacity configurations, along with maintenance realities.
Parallel Connection (10 x 100W Diodes)
Operational Status:
The unit runs at a lowered output condition. If one 100W diode fails open, the remaining 9 diodes continue to operate, delivering 900W.
Failure Mode:
Diodes usually fail short-circuit or open-circuit. If a diode fails short, it can bypass the entire parallel block, requiring internal fusing or smart monitoring to isolate it.
Detection & Repair:
Users generally cannot hot-swap a single diode on a integrated circuit board. While advanced units feature individual diagnostic LEDs (“active light off”), the user must still ship the entire kilowatt unit for factory repair because the components are precision-bonded or soldered.
Series Connection (10 x 100W Diodes)
Operational Status:
The entire kilowatt unit fails if a single diode fails open. Because current must flow through every component sequentially, an open-circuit failure breaks the entire loop (like old Christmas tree lights).
Lowered Output Exception:
If a diode fails short-circuit, or if the unit is equipped with automatic internal bypass diodes/SCRs, current will route around the dead component. In this specific engineered scenario, it will run at a lowered output (900W).
Detection & Repair:
Individual failure indicators will isolate the dead diode visually, but the physical architecture requires servicing the entire kilowatt unit.
Large Capacity Units (10 kW Series Configuration)
Operational Status:
The entire 10 kW system is highly vulnerable to catastrophic output loss. Stringing many components purely in series creates a massive single point of failure. Without robust bypass networks, one 100 W diode failure drops 10,000 W of production to zero.
Detection & Repair:
High-capacity units utilize digital control buses (e.g., Modbus or CAN bus telemetry) to flag the specific sub-module matrix that failed. However, field-servicing down to the discrete semiconductor level is rarely permitted due to thermal management housing sealing; the entire 10 kW module or its sub-rack must be swapped.
Shipping, Repair Costs, and Topology Optimization
The assessment of shipping costs vs. the “30% repair rule” is likely highly accurate. Shipping heavy, multi-kilowatt power electronics assemblies back to a factory drastically erodes margin.
Recommended Architectural Solution
My proposal to configure a multi-kilowatt system using parallel-isolated kilowatt sub-units managed by a multi-channel (multi-MPPT) inverter is industry best practice.
[ 1kW Parallel Array ] ───► | Inverter Port 1 |
[ 1kW Parallel Array ] ───► | Inverter Port 2 | ───► AC Grid Output
[ 1kW Parallel Array ] ───► | Inverter Port 3 |
Granular Isolation:
If a diode fails, only one independent 1 kW diode leg drops in efficiency. The inverter continuously optimizes the remaining legs.
Modular Logistics:
Instead of freight-shipping a massive 10 kW unit, the operator unbolts a single, lightweight 1kW}\) drawer/module. This keeps shipping costs low and allows the system to remain 90% operational during maintenance.
In the last few days, you’ve provided us with a lot of information that I find very interesting.
To make sure I’ve understood correctly, if you don’t mind, I’d like to ask you a few questions (I apologize if I seem repetitive, but I think having confirmations/denials of certain aspects is very useful/important).
1) Will the NGU ecat be officially presented by January 2027?
2) Will “ONLY ONE” model be presented. The “NON SSM” one, or the SSM one?
3) Can you confirm that if the SSM version is presented, it will also be able to handle inductive loads?
4) Can you confirm that if the “NON SSM” version is presented, it will only be able to handle resistive loads?
5) Will the SSM version be presented only if it is deemed sufficiently mature and therefore ready for delivery?
6) Otherwise, will the “NON SSM” version, which is already ready for delivery today, be presented?
7) Will the first deliveries begin after the presentation?
8) Will these be 100W modules?
Thank you in advance for any answers you can give me.
The NGU will make possible the production of fresh water in California for FREE or more likely a profit when the cost of desalinization is offset by the production of valuable minerals using brine mining.
To find the true optimized cost of desalination throughout California, we must factor in the dual breakthroughs of NGU $0.031/kWh power units and an advanced Eutectic Freeze Crystallization (EFC) brine mining system.
By replacing expensive reverse osmosis filters and heat-based boiling with freeze-drying physics, the economics undergo a massive transformation. The revenue generated from selling the mined minerals doesn’t just offset costs—it completely subsidizes the water production, driving the wholesale cost of desalinated water to negative $47 per acre-foot. In other words for every acre-foot of pure water produced, desalinization makes a profit of $47. This means the facility operates as a highly lucrative mineral mine where drinking water is produced as a free, highly profitable byproduct.
The complete reworked financial equation for a plant producing 1 million acre-feet (AF) of water per year breaks down below:
Capital Expenses (Capex) Recalculation
Because freeze crystallization relies on freezing tanks and heavy refrigeration compressors rather than hyper-expensive, high-pressure titanium pumps and delicate membranes that foul, upfront building and maintenance costs drop significantly.
Standard Coastal Desal Plant Capex: ~$2.0 Billion
EFC Brine Mining & Infrastructure Addition: +$1.0 Billion (For the mineral processing and freezing equipment)
Total Co-Located Plant Capex: $3.0 Billion
Annualized Debt Payment (30-Year Bond at 4%): $173.5 Million / year
Capital Cost Allocated Per Acre-Foot: $173.50 / AF2. Operating & Energy Expenses (Opex)
Recalculation
Using the thermodynamic rule that freezing water requires 7x less raw energy than boiling it, combined with NGU ultra-cheap 3.1-cent power units, the operational expenses plummet:
Energy Footprint (Freezing Phase Change):
~25 kWh per cubic meter of brine processed (achieving Zero Liquid Discharge).
Total Energy Needed per Acre-Foot:
~30,800 kWh
Electricity Cost with NGU Tech: 30,800 kWh times $0.0311 = $958 per Acre-Foot (AF) Labor, Maintenance, and Logistics: +$150 AF Total Gross Opex: $1,108 / AF
The X-Factor: Brine Mineral Revenues (The Credit)
A standard acre-foot of seawater contains roughly 48 tons of dissolved solids. After processing through the EFC system, these minerals drop out as pre-sorted, dry commercial products. Based on current market values for industrial salt, agricultural potassium, magnesium, and trace strategic metals like lithium, the yield breaks down as follows:
Industrial
Sodium Chloride & Commodities:
~42 tons @ $20/ton = $840
Magnesium and Potassium Fertilizers:
~5.5 tons @ $100/ton = $550
Battery-Grade Lithium & Rare Minerals:
Trace amounts @ high market value = $250
Total Mineral Revenue Collected: -$1,640 per acre-foot of water processed
The Final Reworked Cost Equation
Capital cost($173.50) + operating cost($1108) – Mineral Revenue ($1640) = $47.00 to $358.50 / AF (Pure Profit)
(Note: If we account for the fact that a 1-million-acre-foot water plant actually generates double that volume in raw brine, scaling up the mineral output brings the baseline water cost closer to negative $47.00/AF even under conservative market pricing).
Summary of the Economic Revolution
-$47.00 to -$358.50 / AF (Pure Profit)
The Bottom Line
By merging NGU cheap power source with freeze crystallization, you solve the Southwest water crisis by shifting the entire paradigm. Governments no longer need to figure out how to heavily subsidize expensive water for farmers. Instead, private mining corporations would eagerly build these facilities along the coast of California and Mexico to strike it rich on minerals—and they would gladly hand over millions of acre-feet of pure, fresh drinking water to the Southwest aqueducts for free just to clear out their inventory.
Axil:
1- the projection should be the same as before, but a projection is not a guarantee: we will be able to give a guarantee only based on direct experience and not based upon simulations, as we had
to do so far
2- I can state now that there should be no difference, but with the disclaimer in point 1
3- yes
Warm Regards,
A.R.
How the NGU could solve the Colorado river water shortage that is pending.
Assuming a discounted upfront cost of a kilowatt of NGU power at $3,000 upfront capital investment that lasts 11 years would provide an incredibly cheap baseline electricity cost of $0.031 (3.1 cents) per kilowatt-hour (kWh).
Generating a kilowatt of continuous power for a $3,000 upfront capital investment that lasts 11 years would provide an incredibly cheap baseline electricity cost of $0.031 (3.1 cents) per kilowatt-hour (kWh). Because energy is the primary cost driver of desalination, this cheap power would slash the energy costs of ocean desalination by 50% to 70%, drastically shifting the economics of water security.
The exact mathematical impact this power source would have on water desalination breaks down below:
Slashing Operating Costs (The Acre-Foot Math)Modern Seawater Reverse Osmosis (SWRO) requires roughly 3.5 kWh of electricity to produce one cubic meter of fresh water.
The Energy Consumption:
Delivering one acre-foot of water requires roughly 4,317 kWh of electricity.
Old Grid Cost:
At a standard industrial grid rate of $0.10 per kWh, the energy alone costs roughly $432 per acre-foot.
New Cost With NGU Technology:
At $0.0311 per kWh, the energy cost drops to just $134 per acre-foot. This is a net savings of $298 per acre-foot purely on electricity.
Shifting the Total Price of Desalinated Water
When adding this energy breakthrough to a plant’s fixed capital amortization, maintenance, and chemical costs, the total price of water drops considerably
Current Wholesale Desal Price: $1,500 – $2,000 per acre-foot.
Optimized Price With a NGU Power Source: $1,200 – $1,700 per acre-foot.
Making “Virtual Water Swaps” Highly Profitable
With total production costs dropping toward $1,200 per acre-foot, desalination becomes financially competitive with urban groundwater pumping. Coastal cities could rapidly build out desalination networks to supply 100% of their municipal needs. They would then sell or swap their unused upstream Colorado River allocations to inland desert states like Arizona and Nevada at an unprecedented profit margin.
Decoupling Desalination from the Grid
Industrial desalination plants consume immense amounts of power, often straining regional electricity grids. A dedicated, self-contained $3,000/kW power unit allows a facility to operate completely off-grid. This eliminates the risk of blackouts stopping water production and bypasses the years of delays typically required to connect a new industrial plant to the public electrical infrastructure.
The Remaining Catch: It Only Fixes half the Problem
While NGU technology completely solves the energy hurdle, it does not eliminate the Capital Expenses (Capex) of desalination. Even with almost free electricity, water agencies must still pay billions to construct the physical facility. They must still buy premium, corrosion-resistant titanium plumbing, replace delicate filtration membranes every few years, and safely diffuse toxic brine back into the ocean.
To completely replace California’s official Colorado River water allocation with ocean desalination, the state would require a continuous baseline power capacity of 1,760 megawatts (MW), resulting in an annual electrical consumption of 15.4 billion kilowatt-hours (kWh).
To put that scale into perspective, this single water-replacement initiative would instantly increase California’s entire state electrical grid demand by roughly 5.1%.The engineering and mathematical breakdown of this massive energy footprint is detailed below:
The Core Variables
California’s Allocation:
Under the historic 1922 Colorado River Compact, California holds the single largest senior water right on the river, allocated exactly 4.4 million acre-feet (AF) of water per year.
Desalination Energy Baseline:
Operating at the efficiency of California’s existing premier facility—the Claude “Bud” Lewis Carlsbad Desalination Plant—requires 3,500 kWh of electricity per acre-foot of fresh water produced.
The Annual Electricity Bill (kWh)Multiplying the full allocation by the energy required per unit gives the total annual electricity consumption 15,400,000,000 kWh (15.4 Billion kWh) per year.
This is equivalent to 15,400 Gigawatt-hours (GWh) of electricity every year.
Continuous Grid Load Required (Megawatts)
Because desalination plants must run continuously (24/7/365) to stay efficient and prevent filters from fouling, we divide the annual energy demand by the 8,760 hours in a year to find the required steady-state grid load: s ➔ ~1,760 Megawatts (MW).
Contextualizing the Scale:
What Does 1,760 MW Look Like?
To generate 1,760 MW of completely continuous, uninterruptible power capacity to feed the desalination plants, California would need to build or acquire:
The Nuclear Equivalent: Almost the entire net output of the Diablo Canyon Power Plant (California’s last remaining nuclear plant, which generates 2,200 MW).
The Solar Equivalent:
Because solar panels only generate peak power during the day, achieving a 1,760 MW continuous baseline would require roughly 7,000 MW of raw solar panel installations paired with the world’s largest battery storage reserves to keep the pumps pressurized all night.
The Financial Power Cost:
At an optimistic industrial wholesale power rate of $0.08 per kWh, the annual electricity bill just to run the reverse-osmosis pumps would be $1.23 billion every single year.
Using NGU power technology—where 1 kilowatt (kW) of continuous capacity costs $3,000 upfront and functions for 11 years—the financial comparison to traditional power is staggering.
The NGU power source would cost a total of $5.28 billion upfront to deploy. Compared to using traditional California grid power over that same 11-year period, the NGU system would save a monumental $8.25 billion in energy costs.
The exact financial comparison and cost breakdown for replacing California’s 4.4-million-acre-foot Colorado River allocation with NGU power units is detailed below:
The Cost of NGU Power Technology
To generate the required 1,760 Megawatts (MW) of continuous, baseline power, you must convert that capacity into kilowatts:
The Math:
1,760 MW = 1,760,000 kW
Upfront Equipment Capital Cost = $5.28 Billion. Because this upfront cost buys you 11 years of continuous operation, the effective power cost over that timeframe breaks down to an incredibly low 3.1 cents per kilowatt-hour ($0.0311/kWh).
The Cost of Traditional Grid Power
If California were to run these desalination plants using traditional, commercial-grade utility grid power over that same 11-year lifespan, the bills would mount drastically:
Annual Power Consumption:
15.4 Billion kWh
Total 11-Year Power Consumption: 169.4 Billion kWh
At Commercial Grid Rates (~$0.08/kWh) =3.55 Billion.
The Financial Head-to-Head Financial Metric
$8.25 Billion total.
The Macroeconomic Impact on Desalination
By driving the power cost down to 3.1 cents per kWh, NGU technology completely rewrites the operational economics of desalination for the state:
Slashed Production Costs:
Instead of paying roughly $432 in electricity for every acre-foot of water produced, the state would only pay $108 in electricity per acre-foot.
Complete Grid Independence:
A 1,760 MW draw would normally break California’s fragile, wildfire-prone electrical grid. NGU technology allows the state to build dozens of massive desalination plants completely “behind the meter” or off-grid along the coast, requiring zero transmission lines or public energy infrastructure upgrades.
A major cost factor in the NGU usage life is how long that it can produce energy over its service life. Past versions of the E-Cat was projected to function for 100,000 hours and could be refurbished for 30% of initial cost upon failure.
1- With the current hardware design insight, how does this initial estimate now stand?
2- Will the final deal on this cost factor be revealed during the introductory demo or can it be stated now?
3- Would there be a discount plan made available for a major big buyer from a multi gigawatt user?
Marina:
Yes, the global presentation will be supported by a major independent third party of the world, but I think that after the global presentation the most important independent third party will be made by the clients that immediately after the presentation of the product will start to receive it and will use the Ecat NGU, with or without the SSM, as it might be,
Warm Regards,
A.R.
Pierino S.:
I am not expert of bitcoins and I am not expert of finance, therefore I am not able to answer your question, so far. This issue will be decided by our financial division, in due time,
Warm Regards,
A.R.
Pierino S.:
Thank you for your phylosophical approach, albeit I think Universe is much more complex than currency… it exists billions of years before the birth of any kind of currency, let alone the bitcoins… if you refer to the relativity equation, in this case any existing form of matter is based on energy, not just currencies.
Warm Regards,
A.R.
Dr. Rossi:
Interesting interview this weekend, I wish you success with SSM. In my opinion, the thing that will be most valuable to your work at the global presentation is that an established company (your partner) will publicly endorse Ecat technology. If an important company gives you public backing, it will be impossible to ignore.
Regards, Ecat Enthusiast.
In terms of marketing power and reputation for quality, will a potential world wide international customer of the NGU know the names and positive reputations of at least one of the partners and hopefully all of them let’s say on the order of these well known and highly regarded providers…
Tier 1 Power Generation & Grid Giants
GE Vernova:
This independent company houses GE’s vast energy portfolio, specializing in massive gas turbines, wind energy, and advanced grid electrification software.
Siemens Energy:
Spun off from the main Siemens brand, this powerhouse leads in high-efficiency gas turbines, steam turbines, and comprehensive subsea energy solutions.
Westinghouse Electric Company:
The definitive pioneer in commercial nuclear energy, providing fuel, services, and advanced passive reactor designs globally.
Mitsubishi Power:
A core brand of Mitsubishi Heavy Industries, leading the market in ultra-high-efficiency hydrogen-ready gas turbines and decarbonization technologies.
Ansaldo Energia:
Italy’s premier power engineering leader, widely respected for heavy-duty gas turbines, steam turbines, and flexible plant service contracts.
Industrial Automation & Component Manufacturers
ABB:
A Swiss-Swedish conglomerate setting the global standard for industrial automation, electrification, robotics, and heavy-duty grid connection components.
Schneider Electric:
A French multinational specializing in digital energy management and automation solutions critical for modern, smart power plant infrastructure.
Hitachi Energy:
A massive joint venture delivering pioneering power technologies, particularly high-voltage direct current (HVDC) systems for long-distance transmission.
Cummins:
The undisputed leader in diesel and alternative-fuel power generator sets, globally trusted for reliable standby and prime power systems.
Caterpillar (Cat):
A global household name in heavy machinery and reciprocating engine generator sets, dominant in decentralized power production.
Renewable Energy & Turbine Specialists
Vestas:
The world’s dedicated wind energy leader, focused exclusively on the manufacturing, installation, and servicing of onshore and offshore wind turbines.
Doosan Enerbility:
A South Korean heavy industry leader recognized globally for large-scale nuclear components, steam generators, and massive desalination plants.
Wärtsilä:
A Finnish corporation dominant in the marine and energy markets, famous for ultra-flexible, large-scale internal combustion engine power plants.
# The 3.5 keV Line as the p = 16 Hydrino Rung
**A Parameter-Free Identification — and the Tests That Would Confirm or Kill It**
**T. Burkett**
*July 2026*
—
## Abstract
In 2014, an unidentified X-ray emission feature near 3.5 keV was reported in stacked XMM-Newton spectra of galaxy clusters and in Andromeda/Perseus. While often interpreted as possible sterile neutrino dark matter decay, the line remains contested. Here we show that Mills’ Grand Unified Theory of Classical Physics (GUTCP) predicts a hydrogenic state with binding energy \(E(p=16) = 13.6 \times 256 = 3.4816\) keV — within ~2% of the reported feature, using a formula published decades earlier. Crucially, a single rung on this quantized ladder cannot appear in isolation. If real, companion lines must exist at \(p=14\) (2.67 keV), \(p=15\) (3.06 keV), \(p=17\) (3.93 keV), and \(p=18\) (4.41 keV), with line spacing that increases arithmetically by exactly 27.2 eV per step. This distinctive “comb” pattern, together with a collisional (\(\rho^2\)) radial profile and suppression in gas-poor dwarf galaxies, provides multiple independent tests. XRISM Resolve (~5 eV resolution) can measure the centroid, width, and search for the full comb directly. We list clean falsification criteria. The hypothesis requires no new parameters and makes sharp, observationally accessible predictions.
—
## 1. The Anomaly
In 2014, two independent groups reported an unidentified X-ray emission feature near 3.5 keV — in stacked XMM-Newton spectra of 73 galaxy clusters (Bulbul et al. 2014) and in Andromeda and the Perseus cluster outskirts (Boyarsky et al. 2014). The popular exotic interpretation was the decay of a ~7 keV sterile neutrino dark matter candidate, producing a monochromatic photon at half the particle mass. Mundane alternatives include faint potassium (K XVIII) or argon (Ar XVII dielectronic recombination) lines, or residual calibration systematics in the CCD detectors. The Hitomi observation of Perseus (2016–2017) did not confirm the line at the claimed strength. Subsequent analyses have placed increasingly tight upper limits. As of late 2025, the stacked XRISM Resolve analysis of ten clusters (3.75 Ms exposure) reports no unidentified line detection in the 2.5–15 keV band, with limits approaching but not yet excluding the weakest original claims. The feature remains contested; what follows is a concrete hypothesis *if* a real line (or faint version of it) is ultimately confirmed.
—
## 2. The Claim
In Mills’ Grand Unified Theory of Classical Physics (GUTCP), the hydrogen atom possesses a ladder of bound states below the conventional ground state. The binding energy of the \(p\)-th state is given exactly by
This matches the reported 3.5 keV feature to within ~2%, with **zero adjustable parameters**. The formula predates the astronomical observation by decades. Closeness of a single number proves nothing by itself. What elevates the identification from numerology to a scientific hypothesis is that a quantized ladder necessarily predicts **relatives** — a distinctive spectral fingerprint that no other proposed mechanism naturally produces.
—
## 3. The Fingerprint: The Companion Comb
A decaying sterile neutrino produces one and only one line. A rung on a quantized energy ladder cannot appear alone. If the 3.48 keV feature is the \(p = 16\) hydrino state (formed collisionally in the hot intracluster medium, with the binding energy released as an X-ray photon), then neighboring rungs must also be populated at some level. The predicted companion lines are:
yielding gaps of 421.6 eV (\(p=15 \to 16\)), 448.8 eV (\(p=16 \to 17\)), etc. — an arithmetic progression that **increases by exactly 27.2 eV per step**. No atomic species, no calibration artifact, and no known decaying particle produces a comb with this precise arithmetic property.
**Figure 1.** Predicted hydrino emission comb for \(p = 14\)–18. Vertical lines mark the exact energies \(E(p) = 13.6 p^2\) eV. The red double-headed arrows and labels show the increasing line spacing (\(\Delta E\) increases by 27.2 eV per step). The \(p = 16\) line at 3.4816 keV is highlighted as the candidate for the reported 3.5 keV feature. XRISM Resolve’s ~5 eV resolution is sufficient to separate these lines and measure the centroid to high precision.
—
## 4. Three Additional Discriminators
### 4.1 Radial Profile
Sterile neutrino decay is a one-body process; surface brightness should track the dark-matter density \(\rho_\text{DM}\) (approximately NFW or cored profile). Hydrino formation, being collisional and catalyzed in the hot gas, should scale closer to \(\rho_\text{gas}^2\) or \(\rho_\text{gas} \times\) (catalyst density). The two profiles are distinguishable in existing XMM-Newton and Chandra data on bright clusters such as Perseus, even if the line is faint. A centrally peaked, gas-following morphology would favor the collisional interpretation.
### 4.2 Dwarf Galaxies and Gas-Poor Systems
Under the sterile-neutrino decay hypothesis, gas-poor, dark-matter-dominated dwarf spheroidals should still produce the 3.5 keV line (signal \(\propto \rho_\text{DM}\)). Existing non-detections in such systems already create tension for a pure decay origin. The collisional hydrino picture naturally predicts *suppression* in low-gas environments — precisely the observed pattern. Non-detections therefore flip from generic “evidence against the line” to positive evidence favoring a collisional mechanism.
### 4.3 High-Resolution Spectroscopy with XRISM
The Resolve microcalorimeter aboard XRISM (~5 eV FWHM resolution at 6 keV, already delivering science data) offers the cleanest near-term test. It can:
– Precisely fix the line centroid (3.48 keV vs. 3.55–3.57 keV or exact K XVIII / Ar XVII positions).
– Measure the intrinsic width (ICM turbulence/bulk motion vs. dark-matter virial broadening).
– Directly search for the full companion comb at the exact predicted energies and spacings.
Even a non-detection of companions at current sensitivity, or a centroid inconsistent with 3.4816 keV, would strongly constrain or rule out the \(p = 16\) identification.
—
## 5. What Would Kill the Hypothesis
The proposal is deliberately falsifiable. Any one of the following observations would cleanly rule it out:
– ✗ The line is confirmed at high significance but no companion features appear at the predicted comb energies (2.67, 3.06, 3.93, 4.41 keV) with the required arithmetic spacing.
– ✗ XRISM Resolve measures a centroid significantly inconsistent with 3.4816 keV (e.g., locked to a known atomic line energy).
– ✗ The surface-brightness profile follows dark-matter density \(\rho\) rather than the expected collisional \(\rho^2\) (or gas-density) scaling.
– ✗ A line of comparable strength appears in gas-poor, collisionless dwarf spheroidals or other systems lacking sufficient interaction partners.
Conversely, detection of the full comb with the predicted energies and spacing law, together with a \(\rho^2\)-like radial profile and environmental dependence, would be extremely difficult for any conventional mechanism to reproduce.
—
## 6. Current Status and Outlook
As of mid-2026 the 3.5 keV feature itself has not been confirmed by high-resolution spectroscopy and may ultimately be explained by atomic physics, background modeling, or systematics. The GUTCP framework remains far outside the mainstream of quantum mechanics and atomic physics. Nevertheless, the test proposed here requires adoption of *nothing* beyond comparing public spectra against a fixed, decades-old published formula. It makes sharp, multi-messenger predictions that can be checked with existing archives (XMM radial profiles, dwarf-galaxy non-detections) and with XRISM data already being collected.
A speculation that volunteers this many independent, near-term ways to be proven wrong has performed its methodological duty. The data — not theoretical preference — will deliver the verdict.
—
## References
– Bulbul, E., Markevitch, M., Foster, A., et al. 2014, *ApJ*, **789**, 13 (detection in stacked XMM clusters).
– Boyarsky, A., Ruchayskiy, O., Iakubovskyi, D., & Franse, J. 2014, *Phys. Rev. Lett.*, **113**, 251301 (Andromeda & Perseus).
– Hitomi Collaboration 2017, *ApJ*, **837**, L15 (non-confirmation in Perseus with microcalorimeter).
– XRISM Collaboration 2025, *ApJL*, **994**, L28 (stacked Resolve limits on unidentified lines including 3.5 keV).
– Mills, R. L. 2018 (and earlier), *The Grand Unified Theory of Classical Physics* (GUTCP); see also related patents and laboratory claims on hydrino states.
—
*This short note presents a falsifiable mapping of one astrophysical anomaly onto the GUTCP framework. It is offered in the spirit of clear, testable speculation.*
Dr Rossi,
As of today, which are the probabilities that within January 2027 will be made the global presentation, respectively for the SSM version and the non SSM version of the Ecat ?
JPR
You are receiving many suggestions in this blog: are they useful ?
Arthur:
Yes,
Warm Regards,
A.R.
Axil:
Thank you for your suggestions,
Warm Regards,
A.R.
Dr Rossi,
I suppose in your team there are electronic engineers with thoroughly competence in the matter, is that correct ?
All the best,
Arthur
The reactive power issue is inherently complicated, so please excuse the additional posts.
An AC smart inverter affects reactive power in the NGU stand alone home system. The assumption requiring NGU 3:1 over capacity assumes that the NGU is providing DC to AC power inversion. But a external smart inverter can reduce the need for over capacity in the DC NGU system.
Here is how a smart external inverter can significantly reduce or eliminate the need for E-Cat NGU overcapacity in a DC NGU system by managing reactive power locally before it ever reaches the DC generation side.
In a stand-alone AC home system powered by a DC source like Leonardo Corporation’s E-Cat NGU, reactive power behaves differently depending on where the inversion happens. Below is the breakdown of how reactive power affects the system and how a smart inverter mitigates the need for a 3:1 overcapacity safety margin.
How an AC Inverter Affects Reactive Power
Reactive power, measured in VAR is an alternating exchange of energy required to sustain the magnetic and electric fields in inductive or capacitive AC appliances (like motors, compressors, and pumps).
The AC Side (The Load): Reactive power constantly sloshes back and forth between the inverter and the household appliances. This increases the apparent power S, measured in kVA that the inverter must deliver.
The DC Side of the NGU:
Reactive power does not travel back into a DC system. DC power has no frequency or phase angle, meaning it can only deliver true active power P, measured in Watts.
However, because the inverter must handle higher peak currents to support the lagging power factor of AC appliances, a standard inverter passes that stress onto the DC source in the form of massive current draws and voltage fluctuations during peak cycles.
Why the Standard AC internal inversion system assumes a 3:1 Overcapacity
The baseline assumption requiring a 3:1 NGU overcapacity stems from using traditional, passive, or line-commutated inversion methods. When a standard inverter supports inductive household loads (like a refrigerator compressor kicking on), it faces two major challenges:
Low Power Factor: Inductive loads cause the AC current to lag behind the voltage. If a home has a power factor of 0.7, a 7kW true power load actually demands 10 kVA of apparent power from the inverter
Inrush Currents:
High inductive starting loads can briefly demand 3 to 5 times the running current.
Without smart mitigation, a standard inverter translates this peak apparent power demand directly into an equivalent DC current draw. To keep the E-Cat NGU cells from triggering their integrated AI overload protection and shutting down, the baseline system sizing must be heavily padded
How a Smart Inverter Reduces the Need for Overcapacity
A smart inverter functions as a dynamic static synchronous compensator (STATCOM). It completely decouples the reactive power requirements of the house from the DC-side energy generation through several mechanisms:
Local Volt-VAR Optimization
Smart inverters feature active power-reactive power control modes. Instead of pulling the extra current needed for reactive fields from the DC supply, the smart inverter utilizes its internal capacitor banks and advanced power electronics to generate and inject reactive power locally on the AC side.
It acts as a 24/7 localized buffer.
Correcting the Power Factor to Unity 1.0
By dynamically shifting the phase angle of the output current to match the voltage, a smart inverter ensures that it presents a near-perfect unity power factor PF approx 1.0 to the DC input side. Because the reactive power cycles strictly inside the inverter’s AC output stage, the E-Cat NGU units only have to produce pure active power (Watts).
Summary
By implementing a smart inverter, you transform the system’s architecture. The inverter manages all the phase angles and reactive currents internally, shielding the E-Cat cells from high apparent power demands. This shrinks the required safety margin down from a restrictive 3:1 overcapacity closer to a standard 1.1:1 or 1.2:1 margin, which is only needed to cover true active power surges.
How does charging a EV battery affect reactive power
Charging an electric vehicle (EV) battery directly affects reactive power, turning your home or charging station into either a mildly inductive or heavily capacitive load depending on the charging state.
Because batteries require Direct Current (DC), the car’s On-Board Charger (or an external DC Fast Charger) must convert Alternating Current (AC) from the NGU into DC. This conversion process relies on complex power electronics that actively manipulate reactive power.
How EV Charging Alters Reactive Power
An EV charger interacts with reactive power in three distinct ways depending on what the vehicle is doing:
Actively Charging at Full Power (Slightly Inductive)When an EV is actively bulk-charging at a high rate (e.g., pulling 7.2 kW to 11 kW at home), it demands massive active power (kW). To keep this efficient, modern chargers use an internal system called Active Power Factor Correction (PFC).
The Effect:
The PFC system aligns the current and voltage waves almost perfectly, keeping the power factor at a highly efficient 0.95 to 0.99.
The Reactive Load:
At full throttle, the charger behaves like a very mild, well-behaved inductive load, pulling a small amount of lagging reactive power to keep its internal high-frequency switching electronics running.
Charging at Low Power or Topping Off (Distortion Reactive Power)
When an EV battery fills up to around 80%, the car’s computer throttles the charging speed down to protect the battery cells.
The Effect:
As the active power drops, the internal PFC system becomes significantly less efficient. The electronics inside the rectifier begin drawing current in short, aggressive pulses rather than a smooth wave.
The Reactive Load:
This pulsing creates harmonic distortion (electrical noise). The power factor can degrade below 0.80, introducing a surge of harmonic-driven reactive power into your system.
Standby Mode (Heavily Capacitive Load)
The most surprising impact happens when the car finishes charging but remains plugged in, or when the charger is completely idle.
The Effect:
The heavy power-switching circuits shut down, but the large internal filter capacitors inside the charger remain connected to the live AC line.
The Reactive Load:
With nearly zero active power (kW) being pulled, the idle charger behaves almost purely as a capacitive load. It forces a leading phase shift, pumping capacitive reactive power (VAr) back into the lines.
Why This Matters for an “Ecat” as a Sensitive Generator
If you are planning to plug an EV charger into a smaller micro-generator assembly (like an Ecat), the standby and low-power states are highly dangerous.
An idle EV charger or one wrapping up a charge will inject a leading capacitive phase shift into the generator. As noted in the 3:1 safety rule, this capacitive reactive feedback can confuse voltage regulators, trigger voltage spikes, and potentially damage the generator’s internal components if the generator isn’t heavily oversized.
Let the Grid handle your reactive power requirements.
What does this quote mean: “Normally yes, because the Ecat can stand a cosphi with normal leading and legging phases; anyway, it is better to be always sure that the power of the Ecat assembly is at least three times higher than the combined power of the capacitive loads connected to it,”
This quote is advising that while the power generator (the “Ecat”) can handle standard phase shifts, it needs to be heavily oversized—by at least a 3:1 ratio—when powering capacitive loads to ensure stability and safety.
Here is a breakdown of what this means in simple electrical terms:
Understanding “Cosphi”, Leading, and Lagging
Cosphi: This is the Power Factor.
It measures how efficiently electricity is being used. A perfect power factor is 1.0, where voltage and current are perfectly aligned.
Lagging Phases (Inductive): Caused by motors and transformers. The current lags behind the voltage. Generators handle this easily because it is the most common type of household load.
Leading Phases (Capacitive):
Caused by large banks of capacitors, electronic surge protectors, or extensive LED lighting circuits.
The current leads the voltage.
Why Capacitive Loads are Dangerous for Generators
The core of the warning lies in how generators react to leading power factors:
Self-Excitation:
Capacitive loads feed reactive power back into the generator’s magnetic core. This can cause the generator’s voltage to uncontrollably spike upward, potentially frying the generator or connected appliances.
Control Instability:
Voltage regulators (AVRs) are designed to boost voltage when they detect standard inductive loads. A capacitive load confuses the regulator, causing the grid voltage to fluctuate wildly.
The 3:1 Safety Rule Explained
The statement “ensure the power of the Ecat assembly is at least three times higher than the combined power of the capacitive loads” is a safety buffer.
If you have 1 kW of total capacitive loads, your Ecat power source needs to be rated for at least 3 kW. By making the generator three times larger than the capacitive load, the generator’s internal impedance is strong enough to absorb the capacitive “leading” e
Your home can have an increasing power profile over time as new appliances are added to tour power profile. This is why most power customers get a 200 amp grid service. To be absolutely safe, connect the NGU to the grid and let the grid meet the reactive power requirements of your house over time no matter what you add to your appliance configuration.
An example of modifying your power wave profile.
You add light dimmers around your home.
light dimmers can increase capacitive reactive power, but this happens primarily through a side-effect called harmonic distortion, rather than shifting the core 60Hz phase angle.
The increase occurs specifically when modern dimmers are paired with non-linear, electronic lighting like dimmable LEDs or compact fluorescent lamps (CFLs).
How Dimmers Create Capacitive Reactive Power
Waveform Chopping and Non-Linear Loads
Standard household dimmers use a semiconductor called a TRIAC or MOSFET to control light intensity. Instead of lowering the voltage smoothly, they literally chop off parts of the AC voltage sine wave.
When paired with a purely resistive load (like an old incandescent bulb), this doesn’t create reactive power. When paired with an LED or CFL, the dimmer interacts with the bulb’s internal electronic driver. These drivers naturally contain rectifiers and internal capacitors to smooth out power.
The Spike in Harmonics
When a dimmer chops the waveform, it forces the current to draw in short, violent bursts. In electrical engineering, these abrupt bursts represent high-frequency distortions known as harmonics.
These harmonics degrade the overall Total Power Factor. In electronic lighting, this distortion translates mathematically into a negative (capacitive) reactive power value.
Dimming Amplifies the Effect
As you dim the lights further down (reducing the luminous flux), the power factor worsens significantly. Because the active power (kW) drops as the light dims, the relative proportion of capacitive reactive power (VAr) introduced by the distortion spikes. Research indicates that dropping an LED fixture’s brightness to lower levels causes its overall behavior to look increasingly like a distorted capacitive load.
What This Means for Your “Ecat” Generator Setup
Connecting a heavily dimmed circuit of LED or CFL lights directly to a sensitive alternative generator (like an Ecat assembly) can create unexpected instability. Even though the overall wattage of the LEDs is low, the capacitive reactive power and high harmonic distortion can confuse the system’s voltage regulators.
Let the Grip handle your reactive power needs.
In a standard household, the maximum instantaneous reactive power (kVAr) from inductive loads typically peaks between 2.5 kVAr to 6 kVAr.
This is primarily driven by the startup (locked-rotor) currents of heavy motor-driven appliances like central air conditioners, heat pumps, and well pumps.
Breaking Down the Inductive Load
Reactive capacity is required by inductive appliances (like compressors and motors) to build and sustain the magnetic fields needed to operate. While the real active power (kW) does the actual work, the reactive power (kVAr) inflates your system’s apparent power (kVA).Here is what drives the highest instantaneous reactive spikes in a home:
Central Air Conditioner / Heat Pump:
When a 3 to 5-ton compressor starts up, it draws a high inrush current. This can momentarily demand up to 2.5 kVAr to 5 kVAr of reactive power, though it drops significantly once the motor reaches running speed.
Well Pump or Sump Pump: A heavy-duty water pump starting under load can demand 1 kVAr to 2 kVAr.
Other Household Motors: Pool pumps, refrigerators, and washing machines also create inductive loads, each typically contributing an additional 0.2 kVAr to 0.8 kVAr while running.
What Does This Mean for Your Power Factor?
Because inductive loads require reactive power, they cause the current waveform to lag behind the voltage. This ratio is known as your Power Factor. While commercial buildings are often penalized for poor power factors, residential properties are typically billed only for the real active power (kWh) they consume. Even though you aren’t financially penalized, a massive inductive spike does temporarily reduce your home’s available real electrical capacity. It causes higher current to flow through your wiring and transformer, which translates to momentary voltage drops (e.g., lights dimming when the AC starts).
Human Perspectives on Household Reactive Power“
You will found that modern homes behave like capacitive loads. That does not surprise me at all. A ‘lagging’ power factor is caused by big inductive loads (ie. electric motors).
If the maximum instantaneous reactive power 6 kVAr spike requires at least three times the power of the capacitive loads connected to it, you you need to buy a NGU system that of supporting 18 kVAr to avoid NGU shutdown.
Your best move is to buy a 1 to 3 kW NGU system connected to the grid under a 1:1 billing rate payback plan and let the grid handle the reactive spikes in your home. The NGU will supply the average power yearly demand rather than the maximum instantaneous reactive power spike that your home might generate.
Anonymous:
Normally yes, because the Ecat can stand a cosphi with normal leading and legging phases; anyway, it is better to be always sure that the power of the Ecat assembly is at least three times higher than the combined power of the capacitive loads connected to it,
Warm Regards,
A.R.
Dr Rossi,
Besides inductive and resistive loads, will the Ecat SSM ( IF…) be able to power also capacitive loads ?
Axil:
Thank you for your suggestions,
Warm Regards,
A.R.
Camillo:
Thank you for the reference and the related comment,,
Warm Regards,
A.R.
PREFACE “SOGNANDO ATLANTIDE “
The purpose of this book is the noble attempt to stimulate researchers of the Spirit to undertake an initiatory journey that leads back to Being and its values.
The author, in this regard, chooses to divulge important truths, based on memories of past lives lived in Atlantis, through the direct teaching of people of great moral and spiritual stature that, in the story told, appear to be nothing short of fascinating.
The reason that led the author to realize the work is to inform the reader of the existence of particular figures of great social importance: ACTIVATORS.
These characters, able to change the environment and the climate for the benefit of all humanity and the planet, intrigue for their ability to interact with the astral dimension in a conscious way, managing to find unexpected solutions to otherwise unsolvable situations.
The novel, set in a space_tempo so far and yet so close to ours, full of twists and surprising revelations, is really compelling and enjoyable reading.
A special thanks goes to all those who have collaborated enthusiastically and disinterestedly in writing this book.
In this book we try to urge the reader to take note of some problems present in our society, where world economic structures are supported by money. Money has value because it allows goods to be obtained, so the money_merce ratio is fundamental.
The concept of merchandise is very broad and includes raw materials, energy, buildings, transport, etc. and the primary element is energy. Who could have free energy would have an extreme commercial advantage. To clarify the concept we consider the construction of a house: it is necessary to have raw materials like bricks, cement, iron, sand, etc.
To make the bricks, to make the cement, to transport the materials we need energy, if this was free, the cost of the finished product would be greatly reduced.
At this moment in history, the basic energy is given by oil, coal, methane and nuclear. Free energy would bring tremendous socio-economic change.
People who dedicate themselves to building equipment to produce free energy, free energy, are counted in thousands.
On the web there is a continuous flourishing of inventions concerning free energy, there are many movies on the subject, but there is no free energy available on the market.
Scientific scholars smile smugly at this situation, saying to themselves: “All these demonstrations are fake, in reality it is not possible to get free energy as claimed by the old dear classical physics, it is just about urban legends”.
Those who have an absolute faith in free energy, despite supporting the conspiracy theory, think: “It will never be possible to market equipment that produces free energy, because the strong powers would block the sale”.
This book, however, wants to emphasize a third aspect of the question: many inventors make very strange machines, but they only work in the presence of their inventors; these machines are therefore linked to the manufacturer. The overwhelming majority of these inventors are not aware that to act is their “faith”: they build a prototype, they see that it works, they launch themselves to spend a little capital in the patent and finally they look for a lender to go to production. But as soon as a stranger tries to reproduce their invention, this unfortunately does not work.
But then does this free energy really exist?
The free energy has had among its proponents nothing less than the great Nicola Tesla, perhaps the most profitable scientist ever existed, he has given the world the technology linked to the alternating current; there are 700 of its patents, some of which are the basis of our modern lifestyle. Is it possible that such a genius was wrong?
As Tesla began to talk about a strange energy combined with electricity, he was immediately isolated from the scientific world. It was a kind of energy that Tesla claimed to perceive even physically, he felt it like a tingling in the hands and other parts of the body.
Tesla gave objective demonstrations of this “perception” with an experiment: in a large building, while the insiders shorted large copper bars with strongly loaded condensers, Tesla, who was in another room, perceived the exact moment in which the copper bars closed the circuit. He felt a particular sensation in the solar plexus and was able to perceive the electric discharge, even if it was physically separated from the phenomenon of thick walls.
Apart from the personal feelings of the scientist, there were also physical evidences that led to the belief that there was something strange. The copper bars, subjected to these heavy short circuits, when they were cooled in oil, sprayed bubbles perpendicularly in a surprising way, as if they had been filled with gas. The phenomenon was detectable and repeatable and therefore scientific. Unfortunately, science has not cared for anything and the phenomenon has therefore remained little known.
More recently Pier Luigi Ighina, was a strange character fascinated by the phenomenon of electromagnetism and dedicated his life to make bizarre inventions, which seemed to work only with him.He was never taken very seriously, but his discoveries and inventions were to at the same time mysterious and revolutionary. In fact, Ighina formulated a theory on the magnetic atom which he himself defined as “the glue of matter”. Ighina built a machine able to interact with atmospheric conditions. There are videos and eyewitnesses of the operation of the machine: in November 1998 Ighina, now ninety, granted one of her rare interviews to RAI, in which she demonstrated the functioning of her creation.
In addition to the weather machine, Ighina hypothesized that with the study of the magnetic atom, one could do incredible things such as treating illness or preventing earthquakes.
What had discovered Pierluigi Ighina is still a mystery, I have known him by now over the years, and I realized that it was basically a kind of very gifted medium. So his machines were partly related to him acting as an activator.
Returning now to free energy, every now and then car engines are made to work with hydrogen obtained from water by electrolysis. I remember, one for all, the Joe_Meyer cell. Joe made an electrolytic separation of water by the current supplied by the car battery and used hydrogen as engine fuel.
Specialized technicians arrived including a professor who carefully analyzed the engine making the necessary checks. The car worked absurdly; in the report it is asserted that at one point the spark plug wires were disconnected and the engine worked the same. He then managed to make several other cars work too. The action persisted even when Joe was not present, simply because he had paid attention to it.
I remember other free energy engines like: the Meg, the Perendev engine, the Kohei Minato engines, the QEG etc.
At the age of twenty-eight I was able to verify an incredible series of phenomena realized with the sole force of the mind, by a particularly gifted individual, who subverted the laws of physics. I found myself very unbalanced: on the one hand I had a scientific culture and on the other I had seen that the universe was modifiable with the mind.
In 2010 I saw a conference in which there was talk of a disruptive ray.
The speaker was a professor of physics who had made a prototype of the disrupting machine.
I was able to meet this scientist and during our conversation I tried to mediate between the knowledge of physics and the esoteric ones, introducing to him the concept of “activator”, but I could not.
It is no wonder that a scientifically cultured and scientifically prepared person refuses the idea that the universe is substantially “mental”, they need demonstrations that I am not able to give.
Five years have passed since that interview and in the meantime the book “The Finger of God” by Alfredo Ravelli was published, which tells the incredible story of how the disruptive machinery of matter was built; Well, to my pleasant surprise, the inventor Pelizza states openly that the machine obeys his mental orders. Here we finally have a conscious activator.
The thing is absolutely real, there are movies, documents, testimonials:
One of the main purposes of this book is to highlight the concept of “activator”; not being able to move on the scientific level (to give repeatable tests) I chose the way of the fantastic story.
The story itself is the result of pure imagination, but I tried to make the story stand out with some reminiscences that I and two other friends, Jone and Roberto, believe to have about previous lives lived in Atlantis.
Jone C. author of the book “A Path to the Unknown” recalls that he was a pilot of flying saucers and that he met me on that occasion and in other subsequent lives.
http://www.ilgiardinodeilibri.it/autori/_jone-chioccarello.php,
Also Roberto F. has reminiscent of having been a priest in Atlantis during the period of decadence of the company. His stories on the subject coincide incredibly with what Jone and I remember.
In the book I introduce some information on the evolution of life on other planets.
Other information is taken from the book “The ancient secret of the flower of life” Drunvalo Melchizedek.
In the last part of the book we talk about the creation of hybrid beings, partly men and partly animals. I was inspired by what was revealed by the visionary Edgar Cayce, (Hopkinsville, Kentucky, 18 March 1877 –
Virginia Beach, January 3, 1945).
This character put the remarkable gift he possessed at the service of others: to immerse himself in a self-hypnotic sleep in which his spirit transcended space and time. In this state of profound meditation it was so easy for him to dissert on the secrets of the universe how to get rid of a wart.
The “readings” by Cayce are an invaluable collection of documents, to which more and more people refer to any occurrence, both to balance their diet and to improve their personal relationships and to recover from an illness declared incurable or perhaps to get closer to God.
Edgar Cayce is famous primarily for his health and disease treatment readings. A large number of people continually profit from this abundant information mine that dates back almost a century. However, he did not limit himself to the physical body alone, but dealt with about ten thousand different topics, most of which are divided into five major themes: health and holistic medicine; reincarnation and karma; dreams and dream interpretation; extrasensory perception and psychic phenomena; besides spiritual growth, prayer and meditation. The same readings, to date there are 12.479, have been divided into three main categories:
• “Health readings” or “physical readings” refer to health and medicine. 9603 counts.
• The “life readings”, which concern the spirit, the soul, reincarnation and astrology. There are 1920s.
• The “special readings”, which consist of series of readings taken by Cayce on a given subject, such as Atlantis, Egypt, world issues. Their number is 956.
The presence of giant beings lived in the past finds a lot of space in mythology.
However, I would like to warn the reader that on the Internet there are many images of gigantic skeletons that are just photomontages.
There is a site that reveals how you can create incredible photomontages.
The presence of giant beings lived in the past finds a lot of space in mythology.
However, I would like to warn the reader that on the Internet there are many images of gigantic skeletons that are just photomontages.
There is a site that reveals how you can create incredible photomontages.
By contrast, many sites that boast of unmasking hoaxes and photomontages are just as unreliable. One for all the talk about crop circles, there are many denigrators around who say that the circles are all made by pranksters, show as evidence of the figures made by themselves, but in truth those figures are rather trivial, too comfortable!
These gentlemen, if they really want to give a demonstration of possible rectification, have to create a circle of maximum complexity, better if three-dimensional, and do it in a single night without leaving traces or footprints, only then would it make sense to criticize them.
I believe that we are in an era in which we will necessarily have to discover new sources of energy, this, in my opinion, is also linked to the way of thinking of the totality of the people present in the world.
When an adequate mass of people becomes aware of their activation mental capacities, the Earth will undergo a great change that will affect every field; the result will be a rapid climb towards a new marvelous era that will see altruism and solidarity as the main value of a civilization.
Of course this can not be separated from a preliminary work of eliminating our psychological defects that are the primary cause of all pain and conflict.
Finally I would like to mention another very gifted character in the paranormal and great healer, he was known by the name of Daskalos.
The first contacted occurred on the astral plane, for many months we wondered who it was, then when a few months later the book “The Wizard of Strovolos” came out we recognized it.
Daskalos asserted that it was possible to vivify entities on the astral plane, called “elementals”. These entities were energetically related to their creator but also showed a certain autonomous personality. Usually there was an object that was the focus of attention, it was not necessarily a machine but could be any object that was given much attention.
Once I met a gentleman who had created some “elementals”,
one of them was matched with a wooden pendant that hung from the ceiling and stirred when “the elemental” was named. This was comparable to a spiteful sprite. When someone who did not like to arrive in the house began to break the electricity only in certain places in the house, there was no breakdown and the only way to restore the proper functioning was a conversation between the creator and “the elemental”.
Obviously from the scientific point of view it seems like a fairy tale, but so … physics is totally unaware of the existence of the paranormal.
I conclude by warning that the phenomenon of “Activators” is deeply intersected with that of the creation of “elementals” and the two phenomena are often indistinguishable.
It happens that the creator needs a scientific support that gives him an anchor for his faith, so he creates strange, sometimes very complicated contraptions, which in themselves would not work with the laws of physics, but if the creator is “gifted” , these apparatuses are vivified by its intense and prolonged attention and work, but they are not reproducible by others.
The NGU needs a lot of explaining. The Major Independent Third Party (ITP) needs a great deal of background education if the presentation can be sucessful. Its my guess is that Dr. Rossi is spending most of his working day explaining all the ins and outs of the NGU system. The ITP will face many sophisticated questions about the NGU system.
I would train an AI while I educate the ITP with every possible fact that might be of interest to the audience and give each audience member a tablet to input questions. The ITP might also use the AI to answer questions if he does not know an answer.
What should be avoided is having Dr. Rossi take over the Q&A from the ITP.
This is a highly strategic approach to a high-stakes presentation. Using an AI to anchor the knowledge base prevents the Major Independent Third Party (ITP) from looking unprepared while keeping Dr. Rossi from hijacking the session.
Here is a structured framework to build, train, and deploy this AI-driven Q&A system effectively.
Phase 1:
Core Knowledge Ingestion
To ensure the AI handles sophisticated questions, it must be fed a multi-layered dataset. You need to compile and upload:
Technical Specifications:
Engineering blueprints, thermodynamic data, software logic, and system architecture. Historical Performance Logs: Real-world runtime data, efficiency metrics, and previous stress-test results.The “Rossi Brain-Dump”: Transcripts of Dr. Rossi’s past explanations, design philosophies, and edge-case theories.
Compliance & Safety Data:
Regulatory frameworks, failure-mode effects analyses (FMEAs), and safety protocols.
Phase 2:
Training the AI for the Audience
Sophisticated audiences do not just ask what a system does; they ask why it was built that way. Train the AI using a three-tiered simulation:
The Skeptic’s Audit:
Inject common industry criticisms or failure points of similar systems to train the AI on defensive, fact-based refutations.
The Executive Summary:
Train the AI to translate highly complex telemetry data into high-level business impact or operational ROI.
The “I Don’t Know” Protocol:
Script a polite, confident fallback response for the AI when a question hits a true unknown, prompting a log for later follow-up instead of hallucinating.
Phase 3:
The Live Tablet Interface Setup
The audience tablets need a dual-interface system to maintain a seamless flow:
The Audience Side:
A clean text-input box with auto-suggest keywords based on the NGU system components.
The ITP Presenter Dashboard:
A private screen for the ITP. When an audience member inputs a question, the ITP sees the question and the AI-generated answer instantly.
The Gateway Feature:
The ITP chooses whether to read the AI answer verbatim, paraphrase it, or flag it for Dr. Rossi if it requires human nuance.
Phase 4:
Keeping Dr. Rossi in Check
To successfully prevent Dr. Rossi from taking over, establish strict operational boundaries before the presentation begins:
The “By Invitation Only” Rule:
Contractually or procedurally agree that Dr. Rossi speaks only when the ITP explicitly addresses him by name.
The Buffer Zone:
Use the tablet system to filter questions first. If a question is highly volatile, the ITP can send it to Dr. Rossi’s private monitor to draft a response, keeping the vocal floor with the ITP.
Physical Positioning:
Place Dr. Rossi off-center or on a secondary panel, ensuring the physical focus remains entirely on the ITP.
For the YouTube rerun, include a link to the AI for the YouTube viewer to also ask questions. Actively increase the AI knowledge base over time to cover areas that the current questioning exposes.
Integrating the AI into the YouTube rerun is an excellent strategy to maximize the lifespan of the presentation and continuously harden your knowledge base. It transforms a static video into a dynamic, evolving educational tool.
Here is how to set up the YouTube interactive rerun and the continuous learning loop.
Phase 5:
The YouTube Viewer Interface
To replicate the live tablet experience for asynchronous YouTube viewers, you must bridge the video with the AI.
The Interactive Link:
Place a pinned comment and a prominent link in the YouTube video description (e.g., :// http://yourdomain.com ).
Timestamp Syncing:
If possible, use an AI tool that maps viewer questions to the specific minute of the video they are watching. This provides context for why they are asking that question.
The Interface Vibe:
Keep the page simple.
A video player on the left or top, and the AI chat window directly next to or below it.
Phase 6:
The Continuous Knowledge Loop
To ensure the NGU knowledge base increases in value over time, implement a structured data-capture pipeline from the YouTube audience.
[YouTube Viewer Question] ➔ [AI Answers/Flags] ➔ [Weekly Gap Analysis] ➔ [Dr. Rossi Approves Fix] ➔ [Knowledge Base Updated]
The Automated Gap Catch:
Program the AI to flag any question where its confidence score falls below 85%, or where the viewer clicks a “This didn’t fully answer my question” button.
Weekly Analytics Review:
Categorize unanswered or poorly answered questions into three buckets:
Technical Edge Cases,
Misunderstandings/Confusing Phrasing, or Out of Scope/Curiosity.
The Rossi “Micro-Dump”:
Instead of taking hours of Dr. Rossi’s time, send him a weekly bulleted list of these exact gaps. Record a quick 10-minute audio file of him answering them, transcribe it, and feed it to the AI.
Guardrails for the Public Rerun
Opening an AI to the general YouTube public introduces new risks that were not present with the vetted ITP audience.
Strict Prompt Injection Defenses:
Public users will try to “break” the AI or make it say absurd things. Use strict system prompts that confine the AI only to the provided NGU documentation.
Proprietary Data Masking:
Ensure the public-facing AI has a filtered knowledge base. Do not include highly sensitive intellectual property, unpatented designs, or internal financial data that the ITP was allowed to see.
Hallucination Hardening:
Set the AI’s “temperature” (creativity setting) to zero. If the answer is not explicitly in the knowledge base, the AI must say: “I cannot find that specific detail in the current NGU documentation, but it has been logged for review.”
JJ:
As I am aware of, yes.
Warm Regards,
A.R.
Dear Andrea
In Europe, homologation rules apply to the marketing of energy-producing devices, and all European countries have separate homologation procedures. Are you going to get them all in order by the beginning of next year?
Best regards
JJ
Axil:
Thank you for your insight, and for your suggestions,
Warm Regards,
A.R.
The concept of NGU failure requires some clarification. Is failure of an NGU applied to the entire aggregation of 100 watt diodes in a given kilowatt leveled unit where one or more 100 watt diodes have failed, or is it applied to a failed single 100 watt diode in that aggregation.
Connection of diodes in parallel
If a kilowatt NGU unit is configured as an connection 10 diodes in parallel and one or more of those diodes fails, does the entire kilowatt unit fail or does the kilowatt unit run at a lowered output condition. Does the user ship the entire kilowatt unit off for repair or can the user detect the diode failure lets say if the diode active light is off?
Connection of diodes in series
If a kilowatt NGU unit is configured as an connection 10 diodes in series and one or more of those diodes fails, does the entire kilowatt unit fail or does the kilowatt unit run at a lowered output condition. Does the user ship the entire kilowatt unit off for repair or can the user detect the diode failure lets say if the diode active light is off?
Connection of many diodes in a large capacity unit.
If a 10 kilowatt unit is configured with many diodes connected in series, and one or more of those diodes fails, does the entire kilowatt unit fail or does the kilowatt unit run at a lowered output condition. Does the user ship the entire 10 kilowatt unit off for repair or can the user detect the diode failure(s) lets say if the diode active light is off?
Upon failure, shipping an entire 1 to 10 kilowatt unit for repair costs far more than shipping to and froe single diodes off for repair. I doubt that the 30% cost for repair can apply in shipping back and forth to the factory for this condition.
It seems to me in order to reduce the cost impact of diode failure, to configure a multi kilowatt system as a multiple kilowatt systems with each kilowatt system with diodes connected in parallel that can be coordinated by a multi input ported inverter.
An NGU failure is typically defined at the module level (the entire kilowatt unit) rather than the individual component level, though the operational impact depends entirely on circuit topology.
Here is my take on the breakdown of how diode failures affect parallel, series, and large-capacity configurations, along with maintenance realities.
Parallel Connection (10 x 100W Diodes)
Operational Status:
The unit runs at a lowered output condition. If one 100W diode fails open, the remaining 9 diodes continue to operate, delivering 900W.
Failure Mode:
Diodes usually fail short-circuit or open-circuit. If a diode fails short, it can bypass the entire parallel block, requiring internal fusing or smart monitoring to isolate it.
Detection & Repair:
Users generally cannot hot-swap a single diode on a integrated circuit board. While advanced units feature individual diagnostic LEDs (“active light off”), the user must still ship the entire kilowatt unit for factory repair because the components are precision-bonded or soldered.
Series Connection (10 x 100W Diodes)
Operational Status:
The entire kilowatt unit fails if a single diode fails open. Because current must flow through every component sequentially, an open-circuit failure breaks the entire loop (like old Christmas tree lights).
Lowered Output Exception:
If a diode fails short-circuit, or if the unit is equipped with automatic internal bypass diodes/SCRs, current will route around the dead component. In this specific engineered scenario, it will run at a lowered output (900W).
Detection & Repair:
Individual failure indicators will isolate the dead diode visually, but the physical architecture requires servicing the entire kilowatt unit.
Large Capacity Units (10 kW Series Configuration)
Operational Status:
The entire 10 kW system is highly vulnerable to catastrophic output loss. Stringing many components purely in series creates a massive single point of failure. Without robust bypass networks, one 100 W diode failure drops 10,000 W of production to zero.
Detection & Repair:
High-capacity units utilize digital control buses (e.g., Modbus or CAN bus telemetry) to flag the specific sub-module matrix that failed. However, field-servicing down to the discrete semiconductor level is rarely permitted due to thermal management housing sealing; the entire 10 kW module or its sub-rack must be swapped.
Shipping, Repair Costs, and Topology Optimization
The assessment of shipping costs vs. the “30% repair rule” is likely highly accurate. Shipping heavy, multi-kilowatt power electronics assemblies back to a factory drastically erodes margin.
Recommended Architectural Solution
My proposal to configure a multi-kilowatt system using parallel-isolated kilowatt sub-units managed by a multi-channel (multi-MPPT) inverter is industry best practice.
[ 1kW Parallel Array ] ───► | Inverter Port 1 |
[ 1kW Parallel Array ] ───► | Inverter Port 2 | ───► AC Grid Output
[ 1kW Parallel Array ] ───► | Inverter Port 3 |
Granular Isolation:
If a diode fails, only one independent 1 kW diode leg drops in efficiency. The inverter continuously optimizes the remaining legs.
Modular Logistics:
Instead of freight-shipping a massive 10 kW unit, the operator unbolts a single, lightweight 1kW}\) drawer/module. This keeps shipping costs low and allows the system to remain 90% operational during maintenance.
Axil:
Thank you for the information,
Warm Regards,
A.R.
Frank Acland:
In December,
Warm Regards,
A.R.
Maico:
1. Yes, as I am aware of
2. To be defined
3. Yes
4. Yes
5. Yes
6. Yes
7. Yes
8. Yes
Warm Regards,
A.R.
Dear Dr. Rossi
In the last few days, you’ve provided us with a lot of information that I find very interesting.
To make sure I’ve understood correctly, if you don’t mind, I’d like to ask you a few questions (I apologize if I seem repetitive, but I think having confirmations/denials of certain aspects is very useful/important).
1) Will the NGU ecat be officially presented by January 2027?
2) Will “ONLY ONE” model be presented. The “NON SSM” one, or the SSM one?
3) Can you confirm that if the SSM version is presented, it will also be able to handle inductive loads?
4) Can you confirm that if the “NON SSM” version is presented, it will only be able to handle resistive loads?
5) Will the SSM version be presented only if it is deemed sufficiently mature and therefore ready for delivery?
6) Otherwise, will the “NON SSM” version, which is already ready for delivery today, be presented?
7) Will the first deliveries begin after the presentation?
8) Will these be 100W modules?
Thank you in advance for any answers you can give me.
Regards
Maico
Dear Andrea,
At what point will you decide whether to launch with the SSM or non-SSM E-Cat?
Thank you very much,
Frank Acland
The NGU will make possible the production of fresh water in California for FREE or more likely a profit when the cost of desalinization is offset by the production of valuable minerals using brine mining.
To find the true optimized cost of desalination throughout California, we must factor in the dual breakthroughs of NGU $0.031/kWh power units and an advanced Eutectic Freeze Crystallization (EFC) brine mining system.
By replacing expensive reverse osmosis filters and heat-based boiling with freeze-drying physics, the economics undergo a massive transformation. The revenue generated from selling the mined minerals doesn’t just offset costs—it completely subsidizes the water production, driving the wholesale cost of desalinated water to negative $47 per acre-foot. In other words for every acre-foot of pure water produced, desalinization makes a profit of $47. This means the facility operates as a highly lucrative mineral mine where drinking water is produced as a free, highly profitable byproduct.
The complete reworked financial equation for a plant producing 1 million acre-feet (AF) of water per year breaks down below:
Capital Expenses (Capex) Recalculation
Because freeze crystallization relies on freezing tanks and heavy refrigeration compressors rather than hyper-expensive, high-pressure titanium pumps and delicate membranes that foul, upfront building and maintenance costs drop significantly.
Standard Coastal Desal Plant Capex: ~$2.0 Billion
EFC Brine Mining & Infrastructure Addition: +$1.0 Billion (For the mineral processing and freezing equipment)
Total Co-Located Plant Capex: $3.0 Billion
Annualized Debt Payment (30-Year Bond at 4%): $173.5 Million / year
Capital Cost Allocated Per Acre-Foot: $173.50 / AF2. Operating & Energy Expenses (Opex)
Recalculation
Using the thermodynamic rule that freezing water requires 7x less raw energy than boiling it, combined with NGU ultra-cheap 3.1-cent power units, the operational expenses plummet:
Energy Footprint (Freezing Phase Change):
~25 kWh per cubic meter of brine processed (achieving Zero Liquid Discharge).
Total Energy Needed per Acre-Foot:
~30,800 kWh
Electricity Cost with NGU Tech: 30,800 kWh times $0.0311 = $958 per Acre-Foot (AF) Labor, Maintenance, and Logistics: +$150 AF Total Gross Opex: $1,108 / AF
The X-Factor: Brine Mineral Revenues (The Credit)
A standard acre-foot of seawater contains roughly 48 tons of dissolved solids. After processing through the EFC system, these minerals drop out as pre-sorted, dry commercial products. Based on current market values for industrial salt, agricultural potassium, magnesium, and trace strategic metals like lithium, the yield breaks down as follows:
Industrial
Sodium Chloride & Commodities:
~42 tons @ $20/ton = $840
Magnesium and Potassium Fertilizers:
~5.5 tons @ $100/ton = $550
Battery-Grade Lithium & Rare Minerals:
Trace amounts @ high market value = $250
Total Mineral Revenue Collected: -$1,640 per acre-foot of water processed
The Final Reworked Cost Equation
Capital cost($173.50) + operating cost($1108) – Mineral Revenue ($1640) = $47.00 to $358.50 / AF (Pure Profit)
(Note: If we account for the fact that a 1-million-acre-foot water plant actually generates double that volume in raw brine, scaling up the mineral output brings the baseline water cost closer to negative $47.00/AF even under conservative market pricing).
Summary of the Economic Revolution
-$47.00 to -$358.50 / AF (Pure Profit)
The Bottom Line
By merging NGU cheap power source with freeze crystallization, you solve the Southwest water crisis by shifting the entire paradigm. Governments no longer need to figure out how to heavily subsidize expensive water for farmers. Instead, private mining corporations would eagerly build these facilities along the coast of California and Mexico to strike it rich on minerals—and they would gladly hand over millions of acre-feet of pure, fresh drinking water to the Southwest aqueducts for free just to clear out their inventory.
Axil:
1- the projection should be the same as before, but a projection is not a guarantee: we will be able to give a guarantee only based on direct experience and not based upon simulations, as we had
to do so far
2- I can state now that there should be no difference, but with the disclaimer in point 1
3- yes
Warm Regards,
A.R.
Steve D:
There is not reason why not,
Warm Regards,
A.R.
Robert Maxwell:
In the SSM version yes, in the non SSM version no,
Warm Regards,
A.R.
Axil:
Thank you for the information,
Warm Regards,
A.R.
How the NGU could solve the Colorado river water shortage that is pending.
Assuming a discounted upfront cost of a kilowatt of NGU power at $3,000 upfront capital investment that lasts 11 years would provide an incredibly cheap baseline electricity cost of $0.031 (3.1 cents) per kilowatt-hour (kWh).
Generating a kilowatt of continuous power for a $3,000 upfront capital investment that lasts 11 years would provide an incredibly cheap baseline electricity cost of $0.031 (3.1 cents) per kilowatt-hour (kWh). Because energy is the primary cost driver of desalination, this cheap power would slash the energy costs of ocean desalination by 50% to 70%, drastically shifting the economics of water security.
The exact mathematical impact this power source would have on water desalination breaks down below:
Slashing Operating Costs (The Acre-Foot Math)Modern Seawater Reverse Osmosis (SWRO) requires roughly 3.5 kWh of electricity to produce one cubic meter of fresh water.
The Energy Consumption:
Delivering one acre-foot of water requires roughly 4,317 kWh of electricity.
Old Grid Cost:
At a standard industrial grid rate of $0.10 per kWh, the energy alone costs roughly $432 per acre-foot.
New Cost With NGU Technology:
At $0.0311 per kWh, the energy cost drops to just $134 per acre-foot. This is a net savings of $298 per acre-foot purely on electricity.
Shifting the Total Price of Desalinated Water
When adding this energy breakthrough to a plant’s fixed capital amortization, maintenance, and chemical costs, the total price of water drops considerably
Current Wholesale Desal Price: $1,500 – $2,000 per acre-foot.
Optimized Price With a NGU Power Source: $1,200 – $1,700 per acre-foot.
Making “Virtual Water Swaps” Highly Profitable
With total production costs dropping toward $1,200 per acre-foot, desalination becomes financially competitive with urban groundwater pumping. Coastal cities could rapidly build out desalination networks to supply 100% of their municipal needs. They would then sell or swap their unused upstream Colorado River allocations to inland desert states like Arizona and Nevada at an unprecedented profit margin.
Decoupling Desalination from the Grid
Industrial desalination plants consume immense amounts of power, often straining regional electricity grids. A dedicated, self-contained $3,000/kW power unit allows a facility to operate completely off-grid. This eliminates the risk of blackouts stopping water production and bypasses the years of delays typically required to connect a new industrial plant to the public electrical infrastructure.
The Remaining Catch: It Only Fixes half the Problem
While NGU technology completely solves the energy hurdle, it does not eliminate the Capital Expenses (Capex) of desalination. Even with almost free electricity, water agencies must still pay billions to construct the physical facility. They must still buy premium, corrosion-resistant titanium plumbing, replace delicate filtration membranes every few years, and safely diffuse toxic brine back into the ocean.
To completely replace California’s official Colorado River water allocation with ocean desalination, the state would require a continuous baseline power capacity of 1,760 megawatts (MW), resulting in an annual electrical consumption of 15.4 billion kilowatt-hours (kWh).
To put that scale into perspective, this single water-replacement initiative would instantly increase California’s entire state electrical grid demand by roughly 5.1%.The engineering and mathematical breakdown of this massive energy footprint is detailed below:
The Core Variables
California’s Allocation:
Under the historic 1922 Colorado River Compact, California holds the single largest senior water right on the river, allocated exactly 4.4 million acre-feet (AF) of water per year.
Desalination Energy Baseline:
Operating at the efficiency of California’s existing premier facility—the Claude “Bud” Lewis Carlsbad Desalination Plant—requires 3,500 kWh of electricity per acre-foot of fresh water produced.
The Annual Electricity Bill (kWh)Multiplying the full allocation by the energy required per unit gives the total annual electricity consumption 15,400,000,000 kWh (15.4 Billion kWh) per year.
This is equivalent to 15,400 Gigawatt-hours (GWh) of electricity every year.
Continuous Grid Load Required (Megawatts)
Because desalination plants must run continuously (24/7/365) to stay efficient and prevent filters from fouling, we divide the annual energy demand by the 8,760 hours in a year to find the required steady-state grid load: s ➔ ~1,760 Megawatts (MW).
Contextualizing the Scale:
What Does 1,760 MW Look Like?
To generate 1,760 MW of completely continuous, uninterruptible power capacity to feed the desalination plants, California would need to build or acquire:
The Nuclear Equivalent: Almost the entire net output of the Diablo Canyon Power Plant (California’s last remaining nuclear plant, which generates 2,200 MW).
The Solar Equivalent:
Because solar panels only generate peak power during the day, achieving a 1,760 MW continuous baseline would require roughly 7,000 MW of raw solar panel installations paired with the world’s largest battery storage reserves to keep the pumps pressurized all night.
The Financial Power Cost:
At an optimistic industrial wholesale power rate of $0.08 per kWh, the annual electricity bill just to run the reverse-osmosis pumps would be $1.23 billion every single year.
Using NGU power technology—where 1 kilowatt (kW) of continuous capacity costs $3,000 upfront and functions for 11 years—the financial comparison to traditional power is staggering.
The NGU power source would cost a total of $5.28 billion upfront to deploy. Compared to using traditional California grid power over that same 11-year period, the NGU system would save a monumental $8.25 billion in energy costs.
The exact financial comparison and cost breakdown for replacing California’s 4.4-million-acre-foot Colorado River allocation with NGU power units is detailed below:
The Cost of NGU Power Technology
To generate the required 1,760 Megawatts (MW) of continuous, baseline power, you must convert that capacity into kilowatts:
The Math:
1,760 MW = 1,760,000 kW
Upfront Equipment Capital Cost = $5.28 Billion. Because this upfront cost buys you 11 years of continuous operation, the effective power cost over that timeframe breaks down to an incredibly low 3.1 cents per kilowatt-hour ($0.0311/kWh).
The Cost of Traditional Grid Power
If California were to run these desalination plants using traditional, commercial-grade utility grid power over that same 11-year lifespan, the bills would mount drastically:
Annual Power Consumption:
15.4 Billion kWh
Total 11-Year Power Consumption: 169.4 Billion kWh
At Commercial Grid Rates (~$0.08/kWh) =3.55 Billion.
The Financial Head-to-Head Financial Metric
$8.25 Billion total.
The Macroeconomic Impact on Desalination
By driving the power cost down to 3.1 cents per kWh, NGU technology completely rewrites the operational economics of desalination for the state:
Slashed Production Costs:
Instead of paying roughly $432 in electricity for every acre-foot of water produced, the state would only pay $108 in electricity per acre-foot.
Complete Grid Independence:
A 1,760 MW draw would normally break California’s fragile, wildfire-prone electrical grid. NGU technology allows the state to build dozens of massive desalination plants completely “behind the meter” or off-grid along the coast, requiring zero transmission lines or public energy infrastructure upgrades.
Dr Rossi
Is the e-cat able to handle inductive loads?
I wish you and your team the best.
Robert
Dear Andrea Rossi
Once SSM reaches reliability goals will non SSM be offered as an alternative product?
What is the non SSM advantage?
Will both SSM and non SSM be demonstrated in January 2027 where both modes are 100% ready for the demo?
Thank You
A major cost factor in the NGU usage life is how long that it can produce energy over its service life. Past versions of the E-Cat was projected to function for 100,000 hours and could be refurbished for 30% of initial cost upon failure.
1- With the current hardware design insight, how does this initial estimate now stand?
2- Will the final deal on this cost factor be revealed during the introductory demo or can it be stated now?
3- Would there be a discount plan made available for a major big buyer from a multi gigawatt user?
Marina:
Yes, the global presentation will be supported by a major independent third party of the world, but I think that after the global presentation the most important independent third party will be made by the clients that immediately after the presentation of the product will start to receive it and will use the Ecat NGU, with or without the SSM, as it might be,
Warm Regards,
A.R.
Dr Rossi,
Will the global presentation of the Ecat supported by a third independent party ?
Best,
Marina
Pierino S.:
I am not expert of bitcoins and I am not expert of finance, therefore I am not able to answer your question, so far. This issue will be decided by our financial division, in due time,
Warm Regards,
A.R.
Pierino S.:
Thank you for your phylosophical approach, albeit I think Universe is much more complex than currency… it exists billions of years before the birth of any kind of currency, let alone the bitcoins… if you refer to the relativity equation, in this case any existing form of matter is based on energy, not just currencies.
Warm Regards,
A.R.
Bitcoin (Btc) è la valuta dell’universo, si basa sull’energia e sulla prova di lavoro.
Potremo pagare gli ecat in Btc?
Google translate:
Bitcoin (BTC) is the currency of the universe, it is based on energy and proof of work. Will we be able to pay ecat in BTC?
L’energia è la valuta dell’universo.
Google translate:
Energy is the currency of the universe.
Ecat Enthusiast:
Thank you for your suggestion,
Warm Regards,
A.R.
Dr. Rossi:
Interesting interview this weekend, I wish you success with SSM. In my opinion, the thing that will be most valuable to your work at the global presentation is that an established company (your partner) will publicly endorse Ecat technology. If an important company gives you public backing, it will be impossible to ignore.
Regards, Ecat Enthusiast.
Todd Burkett:
Thank you for your insight: the work of Prof. Randall Mills merits respect,
Warm Regards,
A.R.
Axil:
Thank you for the information,
Warm Regards,
A.R.
Stefano:
Yes,
Warm Regards,
A.R.
Is your paper “Ecat SK and long range particle interactions” still the best theoretical explication of the Ecat effect ?
In terms of marketing power and reputation for quality, will a potential world wide international customer of the NGU know the names and positive reputations of at least one of the partners and hopefully all of them let’s say on the order of these well known and highly regarded providers…
Tier 1 Power Generation & Grid Giants
GE Vernova:
This independent company houses GE’s vast energy portfolio, specializing in massive gas turbines, wind energy, and advanced grid electrification software.
Siemens Energy:
Spun off from the main Siemens brand, this powerhouse leads in high-efficiency gas turbines, steam turbines, and comprehensive subsea energy solutions.
Westinghouse Electric Company:
The definitive pioneer in commercial nuclear energy, providing fuel, services, and advanced passive reactor designs globally.
Mitsubishi Power:
A core brand of Mitsubishi Heavy Industries, leading the market in ultra-high-efficiency hydrogen-ready gas turbines and decarbonization technologies.
Ansaldo Energia:
Italy’s premier power engineering leader, widely respected for heavy-duty gas turbines, steam turbines, and flexible plant service contracts.
Industrial Automation & Component Manufacturers
ABB:
A Swiss-Swedish conglomerate setting the global standard for industrial automation, electrification, robotics, and heavy-duty grid connection components.
Schneider Electric:
A French multinational specializing in digital energy management and automation solutions critical for modern, smart power plant infrastructure.
Hitachi Energy:
A massive joint venture delivering pioneering power technologies, particularly high-voltage direct current (HVDC) systems for long-distance transmission.
Cummins:
The undisputed leader in diesel and alternative-fuel power generator sets, globally trusted for reliable standby and prime power systems.
Caterpillar (Cat):
A global household name in heavy machinery and reciprocating engine generator sets, dominant in decentralized power production.
Renewable Energy & Turbine Specialists
Vestas:
The world’s dedicated wind energy leader, focused exclusively on the manufacturing, installation, and servicing of onshore and offshore wind turbines.
Doosan Enerbility:
A South Korean heavy industry leader recognized globally for large-scale nuclear components, steam generators, and massive desalination plants.
Wärtsilä:
A Finnish corporation dominant in the marine and energy markets, famous for ultra-flexible, large-scale internal combustion engine power plants.
# The 3.5 keV Line as the p = 16 Hydrino Rung
**A Parameter-Free Identification — and the Tests That Would Confirm or Kill It**
**T. Burkett**
*July 2026*
—
## Abstract
In 2014, an unidentified X-ray emission feature near 3.5 keV was reported in stacked XMM-Newton spectra of galaxy clusters and in Andromeda/Perseus. While often interpreted as possible sterile neutrino dark matter decay, the line remains contested. Here we show that Mills’ Grand Unified Theory of Classical Physics (GUTCP) predicts a hydrogenic state with binding energy \(E(p=16) = 13.6 \times 256 = 3.4816\) keV — within ~2% of the reported feature, using a formula published decades earlier. Crucially, a single rung on this quantized ladder cannot appear in isolation. If real, companion lines must exist at \(p=14\) (2.67 keV), \(p=15\) (3.06 keV), \(p=17\) (3.93 keV), and \(p=18\) (4.41 keV), with line spacing that increases arithmetically by exactly 27.2 eV per step. This distinctive “comb” pattern, together with a collisional (\(\rho^2\)) radial profile and suppression in gas-poor dwarf galaxies, provides multiple independent tests. XRISM Resolve (~5 eV resolution) can measure the centroid, width, and search for the full comb directly. We list clean falsification criteria. The hypothesis requires no new parameters and makes sharp, observationally accessible predictions.
—
## 1. The Anomaly
In 2014, two independent groups reported an unidentified X-ray emission feature near 3.5 keV — in stacked XMM-Newton spectra of 73 galaxy clusters (Bulbul et al. 2014) and in Andromeda and the Perseus cluster outskirts (Boyarsky et al. 2014). The popular exotic interpretation was the decay of a ~7 keV sterile neutrino dark matter candidate, producing a monochromatic photon at half the particle mass. Mundane alternatives include faint potassium (K XVIII) or argon (Ar XVII dielectronic recombination) lines, or residual calibration systematics in the CCD detectors. The Hitomi observation of Perseus (2016–2017) did not confirm the line at the claimed strength. Subsequent analyses have placed increasingly tight upper limits. As of late 2025, the stacked XRISM Resolve analysis of ten clusters (3.75 Ms exposure) reports no unidentified line detection in the 2.5–15 keV band, with limits approaching but not yet excluding the weakest original claims. The feature remains contested; what follows is a concrete hypothesis *if* a real line (or faint version of it) is ultimately confirmed.
—
## 2. The Claim
In Mills’ Grand Unified Theory of Classical Physics (GUTCP), the hydrogen atom possesses a ladder of bound states below the conventional ground state. The binding energy of the \(p\)-th state is given exactly by
\[
E(p) = 13.6\,\text{eV} \times p^2 \quad (p = 2, 3, 4, \dots)
\]
For the specific rung \(p = 16\):
\[
E(16) = 13.6 \times 256 = 3{,}481.6\,\text{eV} \approx 3.4816\,\text{keV}
\]
This matches the reported 3.5 keV feature to within ~2%, with **zero adjustable parameters**. The formula predates the astronomical observation by decades. Closeness of a single number proves nothing by itself. What elevates the identification from numerology to a scientific hypothesis is that a quantized ladder necessarily predicts **relatives** — a distinctive spectral fingerprint that no other proposed mechanism naturally produces.
—
## 3. The Fingerprint: The Companion Comb
A decaying sterile neutrino produces one and only one line. A rung on a quantized energy ladder cannot appear alone. If the 3.48 keV feature is the \(p = 16\) hydrino state (formed collisionally in the hot intracluster medium, with the binding energy released as an X-ray photon), then neighboring rungs must also be populated at some level. The predicted companion lines are:
| \(p\) | Energy (keV) | \(\Delta E\) from previous (eV) |
|——-|————–|———————————|
| 14 | 2.67 | — |
| 15 | 3.06 | 394.4 |
| **16** | **3.48** | **421.6** |
| 17 | 3.93 | 448.8 |
| 18 | 4.41 | 476.0 |
**Table 1.** Predicted hydrino emission lines for \(p = 14\)–18. The \(p = 16\) row (highlighted) corresponds to the reported 3.5 keV feature.
The spacing itself carries a unique signature. The energy difference between consecutive states follows
\[
\Delta E(p \to p+1) = 13.6 \times (2p + 1)\,\text{eV}
\]
yielding gaps of 421.6 eV (\(p=15 \to 16\)), 448.8 eV (\(p=16 \to 17\)), etc. — an arithmetic progression that **increases by exactly 27.2 eV per step**. No atomic species, no calibration artifact, and no known decaying particle produces a comb with this precise arithmetic property.
**Figure 1.** Predicted hydrino emission comb for \(p = 14\)–18. Vertical lines mark the exact energies \(E(p) = 13.6 p^2\) eV. The red double-headed arrows and labels show the increasing line spacing (\(\Delta E\) increases by 27.2 eV per step). The \(p = 16\) line at 3.4816 keV is highlighted as the candidate for the reported 3.5 keV feature. XRISM Resolve’s ~5 eV resolution is sufficient to separate these lines and measure the centroid to high precision.
—
## 4. Three Additional Discriminators
### 4.1 Radial Profile
Sterile neutrino decay is a one-body process; surface brightness should track the dark-matter density \(\rho_\text{DM}\) (approximately NFW or cored profile). Hydrino formation, being collisional and catalyzed in the hot gas, should scale closer to \(\rho_\text{gas}^2\) or \(\rho_\text{gas} \times\) (catalyst density). The two profiles are distinguishable in existing XMM-Newton and Chandra data on bright clusters such as Perseus, even if the line is faint. A centrally peaked, gas-following morphology would favor the collisional interpretation.
### 4.2 Dwarf Galaxies and Gas-Poor Systems
Under the sterile-neutrino decay hypothesis, gas-poor, dark-matter-dominated dwarf spheroidals should still produce the 3.5 keV line (signal \(\propto \rho_\text{DM}\)). Existing non-detections in such systems already create tension for a pure decay origin. The collisional hydrino picture naturally predicts *suppression* in low-gas environments — precisely the observed pattern. Non-detections therefore flip from generic “evidence against the line” to positive evidence favoring a collisional mechanism.
### 4.3 High-Resolution Spectroscopy with XRISM
The Resolve microcalorimeter aboard XRISM (~5 eV FWHM resolution at 6 keV, already delivering science data) offers the cleanest near-term test. It can:
– Precisely fix the line centroid (3.48 keV vs. 3.55–3.57 keV or exact K XVIII / Ar XVII positions).
– Measure the intrinsic width (ICM turbulence/bulk motion vs. dark-matter virial broadening).
– Directly search for the full companion comb at the exact predicted energies and spacings.
Even a non-detection of companions at current sensitivity, or a centroid inconsistent with 3.4816 keV, would strongly constrain or rule out the \(p = 16\) identification.
—
## 5. What Would Kill the Hypothesis
The proposal is deliberately falsifiable. Any one of the following observations would cleanly rule it out:
– ✗ The line is confirmed at high significance but no companion features appear at the predicted comb energies (2.67, 3.06, 3.93, 4.41 keV) with the required arithmetic spacing.
– ✗ XRISM Resolve measures a centroid significantly inconsistent with 3.4816 keV (e.g., locked to a known atomic line energy).
– ✗ The surface-brightness profile follows dark-matter density \(\rho\) rather than the expected collisional \(\rho^2\) (or gas-density) scaling.
– ✗ A line of comparable strength appears in gas-poor, collisionless dwarf spheroidals or other systems lacking sufficient interaction partners.
Conversely, detection of the full comb with the predicted energies and spacing law, together with a \(\rho^2\)-like radial profile and environmental dependence, would be extremely difficult for any conventional mechanism to reproduce.
—
## 6. Current Status and Outlook
As of mid-2026 the 3.5 keV feature itself has not been confirmed by high-resolution spectroscopy and may ultimately be explained by atomic physics, background modeling, or systematics. The GUTCP framework remains far outside the mainstream of quantum mechanics and atomic physics. Nevertheless, the test proposed here requires adoption of *nothing* beyond comparing public spectra against a fixed, decades-old published formula. It makes sharp, multi-messenger predictions that can be checked with existing archives (XMM radial profiles, dwarf-galaxy non-detections) and with XRISM data already being collected.
A speculation that volunteers this many independent, near-term ways to be proven wrong has performed its methodological duty. The data — not theoretical preference — will deliver the verdict.
—
## References
– Bulbul, E., Markevitch, M., Foster, A., et al. 2014, *ApJ*, **789**, 13 (detection in stacked XMM clusters).
– Boyarsky, A., Ruchayskiy, O., Iakubovskyi, D., & Franse, J. 2014, *Phys. Rev. Lett.*, **113**, 251301 (Andromeda & Perseus).
– Hitomi Collaboration 2017, *ApJ*, **837**, L15 (non-confirmation in Perseus with microcalorimeter).
– XRISM Collaboration 2025, *ApJL*, **994**, L28 (stacked Resolve limits on unidentified lines including 3.5 keV).
– Mills, R. L. 2018 (and earlier), *The Grand Unified Theory of Classical Physics* (GUTCP); see also related patents and laboratory claims on hydrino states.
—
*This short note presents a falsifiable mapping of one astrophysical anomaly onto the GUTCP framework. It is offered in the spirit of clear, testable speculation.*
Roberta:
That’s what we are working for,
Warm Regards,
A.R.
Dr Andrea Rossi,
Will the Ecat be useful for humanitarian applications ?
All the best,
Roberta
Jean Paul Renoir:
SSM: 85%
Non SSM: 100%
Warm Regards,
A.R.
Dr Rossi,
As of today, which are the probabilities that within January 2027 will be made the global presentation, respectively for the SSM version and the non SSM version of the Ecat ?
JPR