Steam Punk

Our greatest blessings come by way of madness, indeed of a madness that is heaven-sent.
–‘Socrates’ on the Oracle of Delphi in Phaedo

A test of the first commercial cold fusion technology held on October 6 at the University of Bologna, Italy continues to draw debate on just how much excess heat was generated.

Excess heat is the condition of more heat energy created than equivalent energy put in a device and is the sought-after effect in cold fusion research for its potential to generate ultra-clean power to replace dirty fossil and dangerous radioactive fuels.

Energy Catalyzer 1 Megawatt
E-Cats link together to scale up for a 1 MW unit. Photo: Daniele Passerini
Andrea A. Rossi‘s Energy Catalyzer, or E-Cat as it is called, is essentially a hot-water boiler expected to be marketed as a thermal energy device. A small version of the reactor, which can be scaled to various levels, was the object of the test last Thursday that brought scientists from around the world to observe and measure its properties.

Preliminary data revealed that excess heat was produced; though just how much will remain unknown until reports from the various scientists in attendance are released.

An early tweet from Robert Zreick and subsequent report by NYTeknik science journalist Mats Lewan showed a lower limit of excess heat between 2-3 kilowatts. This value is a lower limit as a small amount of hot water and steam were removed from the system without measurement. Had that heated mass of water and steam been measured and the energy added to the system, the total excess heat measured would be higher.

In this particular demonstration, a heat exchanger cooled and condensed the steam emitted from the E-Cat transferring the heat to a secondary flow of water. The change in temperature of that secondary flow of water gives one measure of the energy provided by the E-Cat.

This video posted by ecatdotcom channel has an overview of the test.

Using the data provided by Mats Lewan, this graph generated by Eric Hustedt (see below; my addition includes the arrows and text.) Both the input energy curve and the output energy curves are plotted together. Input power is in the form of electrical power and used to start the reaction between the fuel of hydrogen and its nickel powder environment. Output power was measured by the difference in temperatures of the water in a secondary loop of heated water.

At first, it appears the input power is turned on and off a few times. The output power drops during this initial (loading?) period, then begins to rise rapidly, settling on a bumpy plateau. After about four hours, around mark 15:37, the output power appears to increase rapidly again, rising almost vertically to over 6 kilowatts. The input power is then turned off to zero.

October 6 E-Cat Data Graph
E-Cat input and output power October 6, 2011. Graph: Eric Hustedt

After the input power is turned off, notice the output power eventually reaches a maximum of 8 kilowatts. After a short decline, there are two more instances of increased output power, with a final decline after which the demonstration is ended.

The total area underneath the power output curve appears greater than the total area underneath the input power curve. Therefore, we conclude that excess heat was generated. However, the up-and-down nature of the power generated may show possible instability. Until reports from scientists who attended the demonstration are released, these musings are merely speculations.

One of the best features of cold fusion research is that there are many such systems that generate excess heat, not just nickel and hydrogen.

Excess heat graph
Excess heat graph for Pd-D system from JET Energy
Here you can see a graph of excess heat production from a palladium-deuterium system from Dr. Mitchel SwartzJet Energy, Inc. lab using his Phusor.

Notice the blue line of the output power is above the red graph of the input power. The difference in height of the two curves represents the excess heat energy generated; the Phusor cell is producing more energy than it is consuming.

The LENR-CANR Library contains thousands of papers from scientists worldwide investigating the properties of multiple types of similar energy-producing systems. Editor Jed Rothwell has a graph from Dr. Michael McKubre‘s lab at SRI International on the homepage.

Excess heat graph
Excess heat graph for Pd-D system from SRI presented at ICCF10
For this palladium-deuterium system, a steady increase in measured current (in red) is compared with no increase in electrical current using a hydrogen and palladium system (in blue) control cell.

Both Dr. Swartz and Dr. McKubre are just two cold fusion researchers who have repeatedly witnessed the creation of large amounts of energy in small, tabletop ‘cells’ that use a fuel of hydrogen and/or its isotopes, and various transition metals as host to the reaction. There are many other labs, and many other scientists on the verge of unlocking the power of these systems. The enigmatic theory behind the effect may elude researchers, but the results are empirical and undeniable despite mainstream science’s refusal to acknowledge this field.

Mr. Rossi is the first to bring this science into the realm of a usable technology. Yet, even among the cold fusion community, ostracized as it is from conventional scientific circles, Mr. Rossi is an outsider, criticized for lacking discipline and method. Tensions are elevated as the emotional investment over two decades, with a corresponding lack of financial support, has reached the limit of tolerability, and the need for this technology is so great.

27 kilowatt E-Cat module
27 kilowatt E-Cat module. Photo: video frame by Mats Lewan

You don’t like those ideas? I got others.
–Marshall McLuhan

The fact is there is no map outlining the process of rolling out a revolutionary breakthrough technology. The personal computer was dispersed into the population under the noses of Mainframe, Inc. by two young guys with their parents in the next room. The New Fire is emerging from a just-as-unconventional lone inventor who plays jazz drums and knows a good samba when he hears it.

Early steam engine diagram scanned from single sheet bought for $1.

Yes, this engineer of The New Fire demonstrates the energy of humanity’s future using a carburetor-sized heat exchanger, bathroom scales, and duc tape. A perfect scientific method performed on ideal spheres has encountered the spontaneity of jazz drums and electric tweets in a science fiction environment of artificial intelligence so pervasive it goes unnoticed. Science is being done in a world-wide lab where all times are happening at once.

Marrying high and low technologies from various ages has a name – Steampunk. The Steampunk artist rides the collision of centuries and translates that reality into objects that fuse hand-made efforts with factory-made design and modern electronics.

Steampunk Computer
Steampunk Computer Photo:
As our world is increasingly medievalized with parochial legislation and stiffened standards attempting to prop-up a declining civilization, Steampunk retrieves the early industrial efforts before fossil fuels, painting the Josephson junctions and digital chips with a veneer of human scale.

Steam Punk Andrea Rossi has brought world attention to a new energy technology that is in its first stages of actuality and which draws on the simple elements of hydrogen from water and a metal powder that combine to create a powerful energy that defies conventional theories of “modern” physics promising clean, abundant energy for the whole world.

Whether the device demonstrated on October 6 generated power of X kilowatts or Y kilowatts pales to the fact that we have a new energy technology – confirmed by science – that needs support for development, and promptly.

It is our best chance for a technological future on Earth.

Cold Fusion Now!

Related Links

What is Steampunk?

New test of the E-cat enhances proof of heat by Mats Lewan from NYTeknik

E-Cat October 6 Test: Questions on the Day After by Raymond Zreik from

22 Passi d’amore e dintorni Daniele Passerini from

Leonardo Corporation homepage

Jet Energy, Inc homepage

LENR-CANR Library homepage

“Secrets of E-Cat” Book Review and Q&A with author Mario Menichella

Book Review “Secrets of E-Cat
by Brad Arnold

Brad Arnold read Mario Menichella‘s Secrets of E-Cat almost immediately after the English version was released so we asked him for his impressions. Following his review is a Q&A with author Mario Menichella.–CFN

“The aim of this essay, therefore, is not to determine whether the E-Cat is an amazing product or the scam of the century – this verification and the scientific validation is only a secondary theme of the book, although it is treated in some depth – but to bring an understanding of how it works to all those who, like me, would like to try to replicate it.” –Mario Menichella Secrets of E-Cat [pg 6].

The 144 page e-book “Secrets of E-Cat” is a good read. It doesn’t dwell on the politics or gossip surrounding Rossi – in fact the author is friends with both Rossi and Focardi – but instead it analyzes the mechanics of the E-Cat, or Energy Catalyzer. Since Mr. Menichella is an inquisitive physicist, he was able to lend more light than heat to the subject.

What is the E-Cat, how much energy does it produce, how is an E-Cat made, what is the secret catalyst, and what are possible theories for why LENR Ni-H (Low-energy nuclear reactions Nickel-Hydrogen systems) work. These are the questions the book explores. Safe to say that Rossi’s secret Italian sauce is still secret, but never the less several interesting possibilities are raised. It really isn’t fair to the author that I steal his thunder by going into specifics, but it is curious that iron is found in some of the products of Rossi E-Cat reactions.

There is an analysis of Rossi’s treatment of the nickel before it goes into the reaction chamber – what size particles and if he selects for isotope. Rossi said he tried about 10,000 experiments – there are a lot of combinations. What the book made clear was that Rossi was the first to be able to get a large amount of energy from nuclear fusion reactions at relatively low temperatures.

If you want to build a LENR Ni-H device, the book could very well help you do that, even fingering a nickel powder distributor, but don’t expect 6 (to 200) over unity. It feels good to know the basic working principles behind the E-Cat, but I wish the author had been more specific about the energy density of nickel (this is an important subject, because the more energy dense nickel is, the more spectacular LENR technology is).

At one point, the book mentioned that Rossi’s 5kW E-Cat used one gram in 5 days of continuous use. Then later, it was theorized that a 10kW E-Cat would use the same. That would mean that (as the book says) nickel was 100,000 times as energy dense as diesel fuel. I’d like to contrast that with the claim Rossi made on his patent application, which was that a gram of nickel was equivalent to 517 tons kilograms of oil. That would mean nickel was over 5 hundred million thousand times as energy dense (according to my calculations).

Editor’s note: Yes, Mr. Arnold’s calculations were correct. However, there is an error in the patent application that has been addressed; the available energy is equivalent to 517 tons kilograms of oil per gram of nickel. [NYTeknik]

Thus, the calculations in the book are correct. “1 gram of oil can gives a chemical energy in the order of electron Volts, while 1 gram of nickel can give – in a typical nuclear reaction – an energy in the order of MeV, which is about 10^6 larger.”-Mario Menichella

By the way, all you need to do to figure out energy density is to calculate how many grams of (for instance) oil would be the same as a gram of nickel. Just go to this site and plug in 517 kilograms, and you get the answer 517,000, which means that 517,000 grams of oil equals a single gram of nickel in terms of producing the same amount of heat energy (the nickel in a LENR reaction, and the oil by burning it).

Also according to the book, Rossi was sometimes getting 200 times the return energy. In public demonstrations, Rossi’s E-Cat was only getting a little over 6 from unity. The issue is safety. Right now the E-Cat is limited to lower temperatures and more electrical usage because the reaction (which, by the way, takes a few minutes to initiate) must be controlled, or it could spike and explode (any pressured container, even a small one, is a danger).

I suppose a lot of this will become clear as the mass media picks up on the story. We are all looking forward to Rossi’s 1 megawatt E-Cat being introduced to the public the last week of October. Until then, Mr. Menichella’s book “Secrets of E-Cat” is a good substitute and primer. — Brad Arnold

Author Mario Menichella
Author Mario Menichella
Q&A with Secrets of E-Cat
author Mario Menichella

CFN Mario, you are the first to write a book on the E-Cat. What are your impressions of the technology?

MM Your question would require a long answer. I think that the E-Cat produces excess energy, but in this moment we do not know, through an official test or certification, how much it is. However, the machine is able to function in a self-sustained mode, as declared in an interview by the Italian physicist Giuseppe Levi: he saw the machine operating for a long time without electric energy provided in input during a private test lasted 18 hours, at the beginning of 2011.

A few weeks ago, on September 8, I met Andrea Rossi in a meeting I organized in Bologna and he told me that his 1-MW prototype is guaranteed to have a 1:5 input/output power ratio: i.e. if, I have 5 thermal kWh in output for every electric kWh provided in input.

CFN This is very exciting news…

MM Yes, I do not want to bore your readers with calculations, but I am a physicist working also as energy consultant, so I have made an accurate estimate, for a customer, of the cost of 1 thermal kWh produced with a 10-kW E-Cat sold at a reasonable price of about 20,000 euro, corresponding to 2,000 euro/thermal kWh, as Rossi has always hypothesized.

The result I found is surprising, because such cost is less than the half that in the case of the alternative technologies in the heating field: heat pumps, solar panels, Diesel boilers, natural gas boilers, wood chip boilers, electric stoves. So, the E-Cat, with the current 1:5 input/output power ratio, has already the potential to revolutionize the heat market, especially in the temperature range 175-500 °F (80-250 °C). It can also be used, with savings, for medium or large cogeneration applications. The above power ratio, instead, is not enough for a pure electricity production.

CFN What prompted you to write this book on the E-Cat?

MM The obvious answer is because I am a writer on science and this is my job. However, I wrote my last book in 2006, and I did not plan to write a new book in my life. But a series of coincidences led me to change my decision. When, on February 2011, I read about the first public presentation of the E-Cat made on January 14 in Bologna (Italy), I immediately understood the potential of such a machine. So, I write to Rossi to compliment with him. But I was really involved in this adventure only when I was contacted by Claudio Puosi and his wife, Vessy Nikolova, to organize a popular conference on cold fusion and E-Cat in Viareggio, an event which held on July 23, 2011, with the contribute of Sergio Focardi (through a long recorded interview) and Andrea Rossi (interviewed in real-time by phone). Then I decided not to disperse the information I had on this argument, and I wrote an instant book, with a somewhat investigative approach.

CFN Who is the audience you wrote for?

MM I wrote for many years long articles on single scientific hobbies in Italian magazines and in dedicated web sites, describing interesting fields like: amateur seismology, model rocketry, search for meteorites with a metal detector, and so on. My model was the old famous book “The amateur scientist” by C. L. Stong. The E-Cat is one of the most intriguing topic for an amateur scientist, because it is an object with a huge potential and a fascinating mystery regarding its core, the “secret catalyst”. But my public is not composed only of amateurs. Due to the economic importance of such invention, I think that small, medium and big companies could be interested in trying to reproduce a similar device, not to say about many open-minded researchers in Universities and other scientific institutions, who are now changing their opinion on cold fusion (and LENR).

CFN Is it really possible for a competent amateur to replicate the E-Cat technology?

MM Theoretically, yes, because you can split the problem in two parts. The first is to replicate the old apparatus developed by Focardi-Pianteli in Siena, with its input/output power ratio of 1:2. It is well described in many scientific articles, so it is not an impossible task. The second part of the problem is to discover the “secret catalyst” used by Rossi, and this is more difficult: you need to be very lucky!

However, it is a fascinating enterprise, and you can also try, in your experiments on the Ni-H cell, non-standard routes to achieve an energy gain: world literature on low-energy nuclear reactions is full of different kinds of techniques for loading the gas in the metal and for providing some forms of excitation to the system, and they are the two typical key-factors to trigger a cold fusion nuclear reaction.

CFN Can you confirm that NASA is interested in Francesco Piantelli’s nickel-hydrogen system?

MM Yes, I can confirm, but not from news coming from Piantelli or collaborators: our sources of information are in USA. However, you are touching a very “hot” topic. Behind cold fusion there are big interests both in the civil and military field, but I am not authorized to reveal the entire information I have. Today, public information is only a little part of the “reality” on cold fusion: everything else is covered by some kind of secrecy. For example, some of the hypothesis on the secret catalyst used by Rossi – that you can find in my book – are supported by confidential information that I could not reveal explicitly. I can only say that, probably, Piantelli will be – directly or indirectly – involved in experiments/research funded by the USA through NASA.

CFN How does Mr. Piantelli’s work differ from Mr. Rossi’s?

MM Piantelli described quite precisely the experimental apparatus in his patents, and anyone was able (or tried) to replicate it. The main differences from Rossi’s work are two. The first is that he does not use a catalyst, like in the old Focardi-Piantelli experiments. The second difference is that we know for sure he uses nanostructured nickel, created through a very expensive dedicated machine. He works mainly on the nickel geometry, even if in his experiments other 5-6 factors are important to trigger the nuclear reaction.

CFN What is it that makes Italian researchers so successful at LENR?

MM The mean level of Italian research in physics is very high: Italy is the main contributor, in terms of people involved at every level, in the experiments of nuclear physics performed at CERN (Geneve). Another factor is creativity, which is quite typical of the Italian researchers. Also luck, obviously, has a big role. We do not know how Rossi discovered his secret catalyst, so we are missing an important piece of information about his “route to success”. However, success requires also patience and many unsuccessfully attempts.

CFN Thanks for the good news, Mr. Menichella!

Related Links

Know the Secrets of E-Cat press release by Ruby Carat CFN September 23, 2011

Secrets of E-Cat by Mario Menichella from Consulente Energia

Viareggio Cold Fusion conference: science, politics, and an Italian competitor by Matt Ivy CFN July 23, 2011

CERN European Organization for Nuclear Research Geneve, Switzerland
English homepage

Convert Units from tons to grams at

Sterling Allan on Ca$h Flow: “It’s an act of revolution to support free energy”

Cold fusion is no longer a maybe-possibly-probably not-junk- science. It is now real and it is emerging into the marketplace and we will see the first 1 MW power plant coming in mid-October of this year which will be producing 300,000 units per year. And that’s just starting. And so this is a great opportunity for people to get involved in a technology that can completely revolutionize the planet energy wise and get us off our dependence on fossil fuels.” –Sterling Allan

James Martinez Live had a surprise guest on last Tuesday, April 26 on his Cash-Flow show, when Sterling Allan swooped in for a visit. He is the man behind Pure Energy Systems, the yellow pages of new energy researchers. Allan has also formed the New Energy Congress, whose purpose is “to provide quorum review of leading technology claims, to assess viability and prioritize; then facilitate advancement”. His PESWiki allows for contribution by members of the new energy community.

Pure Energy Systems has a “Top Five Exotic Free Energy Technologies” listing of breakthrough technologies that got the attention of Gerald Celente, and made it into the Trends Journal 2011. Andrea A. Rossi’s Cold Fusion Generator is number one.

In the effort to move minds into action, and instigate the public to demand cold fusion, James Martinez began by stating flatly “It’s really up to you, the public to…vote for your children’s future … and liberate yourself.” This is aligned with Sterling Allan’s plea to “hound your representatives and tell them there are solutions. Stop saying they are not [any]!” Their hour-long conversation exposed what solutions to our energy crisis look like.

Listen to the full hour and download .mp3 on our Audio page.

A few highlights are transcribed below. In one exchange, James asked Sterling about the nature of implementing new technology into the current paradigm, and he lamented the bureaucracy that gets in the way of both scientists and students who want to study cold fusion. Sterling responded:

It really is amazing to see how the role of politics in science can really stifle the development of science. Scientists, we would like to think, are really open-minded; something new comes along, they’re going to embrace it, they’re going to be excited about it, but in practice , the old Not-Invented-Here syndrome gets really really tight. If the scientist didn’t come up with it, if it wasn’t first published in some scientific journal, gone through the rigamaroll that they’d like it to go through, boy …. and that’s what we specialize in: when something makes the professor’s eyebrows raise, that’s when we start getting interested.

He also recited a proverb posted on his website:

He who is one-step ahead is a genius.
He who is two-steps ahead is a crackpot.

When Sterling presented that to an audience in Estonia, somebody in the audience quipped, “He who is one-step behind, is the government.”

Then he added academia to the that same equation with “academia is so bureaucratic now, they are as bad as the government in stifling innovation.”

Listeners to the archive will enjoy the strange protracted silence, right before James comes back and relates his experience with a high school student who wanted to be a cold fusion scientist and James was setting up a cold fusion scientist to go and visit him at school. However, the young man’s school thwarted the effort. James then reminded us, “Learning institutions are supposed to be open-forums for discussion.”

Two years ago, prompted by the Navy’s research which was “basically saying cold fusion was real”, Sterling started a collection of positive reports on cold fusion that were printed in mainstream news and scientific journals around the world, “all basically announcing that cold fusion should be taken seriously.” [See this bit of presentation here on Youtube.]

You think that would mark the turning point in the scientific world, that now we would start taking cold fusion seriously. But no, that wasn’t the case.

To this day, even with this Rossi cold fusion happening, if you go to academia and you say cold fusion with a straight face, you’ll be laughed at as a crackpot; it’s still junk science, because of politics, not science.

James responded with some practical advice for young people in these lean financial times. “Forget the schools. Learn it yourself.”

The conversation inevitably touched on the lack of funding in cold fusion research. Sterling Allan responded:

I learned a long time ago to not even glance at the government for any kind of leadership when it comes to this stuff. I go to the private sector. It’s the private sector that you get the receptive ears and you get the people that are excited. You get a phone call from somebody from NASA every once in a while that’s interested. You’ll get a cloaked email from somebody from some academic institution that’s kind of contacting you on the side, or on the sly so to speak.

But there are a lot of people that are supportive of these technologies and they are moving forward. The momentum is on our side.

We are moving into a state where we will lose our dependence on a central authority and we will gain our independence energy-wise, so that each house will have its own power device, each vehicle will have it’s own power generator so you won’t have to stop for fuel, it’s pulling energy from the inexhaustible sources all around us.

James remarked that this technology of the gentle green giant nuclear power from water will “liberate humanity from the dependency on these oil companies and BP spilling hundreds of millions of gallons and getting away with…it’s an end to that.”

Later, Sterling echoed the responsibility of the current energy corporations in the current lack of vision in our energy technology:

We need to shame the energy industry in the United States, and probably elsewhere in the world, not as bad in Europe as it is in the United States. The United States is almost the worst case scenario when it comes to energy. They are supporting the wrong horse and suppressing the right horses.

If you look at industry in general, the amount of money industry spends from their budget on research and development is 3.1%.

On the other hand, industries like communications, they spend 26% on research and development, software spends 15%, pharmaceuticals is like 14%.

He then turned the tables and asked James if he knew what percentage of their budget the energy industry spends on research and development. A tiny 0.3% was the answer!

The entire energy industry in the US spends 0.3% of their budget on research and development — a shockingly low number.

“An order of magnitude lower than the industry average! Energy is so important…..we have to start spending our research and development money on new ideas. There are plenty of places to put that money, I promise you that,” Sterling said.

At the start of the second half of the show, James announced he had spoken with Andrea Rossi earlier in the day about an interview, but Mr. Rossi declined at this time, and all the way through October. He’s too busy working on his Energy Catalyzer (E-Cat) with his company Defkalion Green Technologies.

“They will be building 300 smaller, officially-rated 2.5 Kw reactors”. The reactor chamber is 50 cubic centimeters — 3.2 cubic inches. Then he characterized Andrea Rossi’s discovery as finding the catalyst to the nickel-hydrogen reaction, or the additive to the nickel powder. (In subsequent correspondence, Sterling (via his associate Hank Mills) added that: Andrea Rossi replaced the nickel rods or wires used in other Ni-H Cold Fusion experiments with nano-nickel powder, which greatly enhanced the surface area of the nickel. More surface area resulted in more sites at which the hydrogen could react. By combining this nano-nickel powder with two undisclosed elements (which he calls the catalyst) the fusion reaction was further enhanced.)

Addressing the cost issue for the average home user, Sterling noted that “a 2.5 Kw solar system would cover both roofs”. And Rossi’s device might cost “somewhere in the low thousands.”

“But an easier number people can relate to is cents per kilowatt-hour. Where I live [in Utah, US] we probably have the cheapest at 4 cents a Kwh wholesale”, he said. “Rossi cold fusion will deliver for 1 cent per Kw, one-quarter of the price“. He did add that the first applications would be in creating heating systems, and a turbine added to make the electricity would initially add to the cost.

He reminded listeners that though cold fusion is a nuclear process, there is no radioactive materials used, and there is no radioactive waste to get rid of. Mr. Sterling continued the good news throughout the interview.

The coming year is going to be phenomenal in terms of the emergence of breakthrough energy technologies, clean energy technologies, affordable, portable…there’s a lot of stuff breaking out, this is one of them. This (cold fusion) is number one in our top five on our homepage of This is our top one, but it is not the only one that’s to emerge this year. Some are expected to emerge even before this one.

This technology, from what I understand, is really quite simple to implement. It is something that could be licensed by a large number of manufacturers around the world and deployed very rapidly to create jobs and infrastructure that goes along with those jobs and all the various iterations of this. There’s going to be a lot of research and development that will need to go into making this stable for transportation, for example.

When we talk about nuclear, we think of Fukushima and we think of disaster, and we think ‘Oh my gosh, I don’t want that in my yard, let alone my garage’, but this is very different even though this is a nuclear reaction, if this was suddenly … a catastrophe happened, let’s say you were hit by a meteorite in your garage, and it smashed right into your cold fusion reactor, nothing would happen.

You don’t have radioactive elements leaking into the environment, you don’t have some big explosion taking place, it doesn’t runaway, it just stops. That’s all…

…Alternative energy can be our savior economically if we get on this fast enough, and the sooner we get on this, the more of a remedy it will be … and Gerald Celente actually predicted in his 2011 Trends Journal in January that 2011 would see the emergence, and he specifically mentioned Rossi’s cold fusion technology, that there’s going to be a breakthrough energy technology to come along that will be as big as the invention of the wheel or the discovery of fire in terms of its transformation capability for the human race.

Think of it this way. When people are able to do what they’re good at and what they want to do, they are 7 times more productive than when they’re working for somebody else doing something they hate, especially if they are slaves to a system, and they’re on fluoride, and they’re not thinking straight. When they become independent and they think for themselves and they’re doing something they love, they are 7 times more productive.

So when people are given power, a device that can power their house in the garage, and they’re no longer dependent on a central authority, and they’re able to pursue their dreams, we’re going to see prosperity like never before. We will see an end to war. We will see an end to poverty. We will see an end to so many of the problems that plague this planet. And that’s why these bastards don’t want to see free energy emerge because it empowers the individual. It’s power to the people…

….It’s an act of revolution to support free energy, and today’s generation that does so will be the heroes of the coming generation.

Supporting Links:

Sterling Allan Pure Energy Systems

Top Five Exotic Energy Technologies

Free Energy News

Intentional community project:

No fear of radiation from cold fusion

This article organizes information about radiation in three sections.

1 Difference between radioactive materials and radiation.
2 Types of radiation emitted by nuclear processes.
3 No dangerous radiation in cold fusion.

1 Difference between radioactive materials and radiation.
Today’s nuclear fission reactors are more than a poor choice for a primary energy source because of the growing risk of contamination by radioactive materials, which can emit harmful radiation. Humans are not ready to take the responsibility for disaster that could last for geological time, when the amount, and type, of radioactive fuel used in these reactors has the potential to create dead zones for hundreds, if not tens-of-thousands of years.

Why go down this path when there exists an alternative ultra-clean nuclear power? Low-energy nuclear reactions LENR, or cold fusion, is nuclear power from hydrogen, the most common element in the universe, with oceans of it here on Earth. Cold fusion does not use radioactive fuel. Cold fusion does not create harmful radioactive waste. The nuclear reaction occurs inside a tiny piece of metal, like palladium or nickel, in a small device that sits on your tabletop.

Radiation is all around us, everyday, and some radiation of certain kinds can be good and healthy, while other radiation, or too much of the good kind, is bad. For instance, too much solar radiation can cause burns that lead to skin cancers later in life, while too little causes a vitamin D deficiency.

And all radiation is not alike. Of the sunlight reaching Earth’s surface, the ultra-violet portion can burn the skin while the radio-wave portion appears to have left life at the surface unaffected. Both sunlight and X-rays are forms of radiation that are created by nuclear and atomic reactions. But some materials spontaneously and naturally emit radiation, and they are called radioactive.  Here is a nice chart about the radiation around us and dosage.

Radioactive materials contain particles of atomic elements that are unstable, and decay, emitting electromagnetic radiation, or photons, as well as other particles, which may themselves also be radioactive.

Radiation describes the particles and photons emitted by a radioactive material.

Hydrogen and its Isotopes
Hydrogen and its Isotopes
An example of a radioactive material and the radiation emitted from it is given by the simplest element hydrogen. The element hydrogen H is composed of one proton and one electron. Hydrogen has two isotopes, deuterium $^{2}H$ and tritium $^{3}H$. Isotopes are atoms that have extra neutrons in their nucleus. Deuterium has have one extra neutron, making a total of two nucleons, while tritium has two extra neutrons, making a total of three nucleons.

While hydrogen $^{1}H$ and deuterium $^{2}H$ both are found naturally on Earth in abundance, tritium is not, for tritium is unstable, and decays with a half-life of about 12 years, meaning there is only half as much material left as there was 12 years earlier. This decay characterizes radioactivity.

Tritium is an example of a radioactive particle. During radioactive decay for tritium, the nucleus of the tritium atom, called a triton, which has one proton and two neutrons, turns into a Helium-3 atom $^{3}He$, an electron, and another tiny energetic particle called a neutrino, all releasing 18.6 keV of energy.[1]

A triton has one proton and two neutrons. The nucleus of the $^{3}He$ has two protons and one neutron. During radioactive decay of the tritium atom, one of the original neutrons in the triton turned into a proton, along with creating an electron and a neutrino in a process called Beta decay, written β−.

Beta decay
Beta decay
Beta decay describes when an electron, called a beta particle, and a neutrino fly out of a neutron, leaving a proton in its place. The radioactive material is the tritium, and the radiation is the electron and neutrino. Many elements that have an abundance of neutrons are radioactive this way, and sometimes decay splitting into two smaller atoms, naturally fissioning.

Electrons are usually thought of as carrying electrical current to power our appliances. But a large charge of current can be deadly. A beta particle (electron) will fly out with a varying kinetic energy averaging 5.7 keV. [1] This particle is incapable of penetrating the skin. External sources of beta decay from tritium will not harm the body.

But if a radioactive particle is inhaled or ingested, then beta-decay can cause damage to the cells of the body. The radioactive particle will eventually decay and emit a Beta particle that can then collide with internal tissue, perhaps ionizing the atoms in cells. If the Beta particle hits a DNA molecule, lasting genetic consequences can ensue.

Exit sign is powered by tritium.
Tritium and beta decay is used to light red Exit signs and glow-in-the-dark watch hands.
As long as you don’t breathe it in, or eat it, tritium decay poses little threat to humans and tritium is used in devices such as betalights, which use the electrons emitted by tritium just like electrons that provide electrical current, to provide power to stand-alone illuminated night signs, as well as provide illumination for watches.

There is little naturally occurring tritium here on Earth because most of it has decayed away. Tritium is manufactured for commercial use and for use in hot fusion reactors selling for \$30,000US a gram.[1]

Tritium is not used in cold fusion research. Cold fusion cells use hydrogen $^{1}H$ and deuterium $^{2}H$, both cheap, plentiful, and evenly distributed around the earth in sea-water. No radioactive fuel is used in the cold fusion process.

2 Types of radiation emitted by nuclear processes.
In the conventional nuclear reactions of fission and hot fusion, the main types of radiation seen are particles like alpha particles, beta particles, and electromagnetic radiation such as gamma rays or x-rays. The three main types of radiation are named in the order that they were discovered and after the first three letters of the Greek alphabet. Conventional nuclear fission which relies on a chain-reaction, also produces neutrons.

Alpha particles are helium nuclei. That is to say that alpha particles are the nucleus of helium atoms, consisting of two protons and two neutrons $^{4}He$. Alpha particles are emitted by the natural radioactivity of the heavier elements and their isotopes. Alpha particles are larger clusters of nucleons and generally have low energy that a piece of paper will shield against alpha particles.

Beta particles β−, are electrons that are emitted during beta decay. Beta-emitting isotopes can have a half-life as long as $10^{16}$ years or as short as milliseconds. Beta particles can also be positively- charged positrons denoted β+. Beta particles can be stopped by ”a few millimeters of aluminum”.[2]

Gamma radiation is made up of light, or high-energy photons, that have an extremely small wavelength. They are similar to x-rays, with gamma rays carrying more energy. ”X-rays result when electrons return to a lower energy by emitting electromagnetic radiation and gamma radiation result when particles in the nucleus return to a lower energy.” [1,153]

Electromagnetic spectrum is composed of radiation.
The light we see is radiation; radio waves are radiation; the whole electromagnetic spectrum is radiation -- of photons.

Both gamma radiation and x-rays will penetrate the body easily and they can be harmful to living tissue.  Only shielding made of lead will stop gamma radiation.

Some nuclear reactions can also create neutrons. Neutrons can be dangerous as they can penetrate the body, ionizing cells and creating genetic damage.

3 No dangerous radiation in cold fusion.
While no source of energy is 100% clean, cold fusion ranks cleaner over oil, gas, coal, today’s nuclear fission, hot fusion, solar and wind. Solar and wind are renewable sources, but the materials and manufacturing of solar panels and wind turbines given their energy density don’t compare to cold fusion.

First of all, LENR is a process of that does not involve today’s nuclear fission power designs, so there is no chain-reaction. A cold fusion cell will not ”runaway” like critical masses and fission bombs. Cold fusion energy devices will turn on and off when you want them to.

Edmund StormsEdmund Storms, a nuclear scientist who has researched cold fusion for over two decades wrote a survey of the field called The Science of Low Energy Nuclear Reaction. Published in 2007, it is a technical summary of results for a scientific reader. In it, there are clear statements about the lack of radiation from cold fusion cells.

This table from Storms’ Science provides the general experimental results regarding radiation from LENR experiments.

Table 14 Expected but missing behavior. [1,176]
1. Gamma emission is rare.
2. Neutron emission is rare.
3. Alpha emission rate is not consistent with accumulated helium.
4. X-rays expected when a significant alpha flux is absorbed are missing.
5. The second nuclear product resulting from transformation is frequently missing.

A listing of the reported studies showing radiation detected in LENR experiments can be found in Table 11 of Storms’ Science[1]. Each entry is listed with radiation type and strength, along with the kind of cell that produced it. He writes:

Fortunately none of this radiation is a health hazard nor is it easy to detect outside of the apparatus, which makes the process sate to study and safe as an eventual source of energy.” [1,105]

Quite simply, the type and quantity of radiation seen in today’s nuclear power does not show up LENR.

Cold fusion cells do not behave at all like conventional theories of nuclear reactions dictate. The fact that dangerous levels are missing from this reaction was in part responsible for many scientists dismissal of this as a nuclear effect. To quote Nobel laureate Julian Schwinger ”The circumstances of cold fusion are not those of hot fusion.”

Infinite Energy magazine published an FAQ containing this question: Why doesn’t cold fusion produce dangerous ionizing radiation and neutrons?

Nobody knows for certain why the primary signature of cold fusion is excess heat, not deadly radiation. Nevertheless, many LENR theorists have put forth very intriguing proposals for the mechanism of these reactions. There are, in fact, many dozens of competing theories smaller number of which are very well fleshed out. The exact nature of the LENR reactions is one of the many unsolved scientific mysteries surrounding them. Some scientists think that because the effect does not produce intense radiation, it cannot be a nuclear process. Others say the energy is produced, but then somehow absorbed by the metal lattice either as high frequency vibrations, or through coherent processes in which many delocalized vibrations are involved.” [7]

LENR devices do not have any appreciable radiation from alpha particles, beta particles, high- energy neutrons, and there is no danger of a runaway chain reaction. What about the x-rays and gamma radiation, those high-energy photons that could pose a risk to biological life? Storms writes:

”Most X-radiation will be absorbed by the apparatus, thereby making its detection unlikely.”[1,153]

Andrea Rossi’s LENR-powered hot-water boiler, the Energy Catalyzer ECat, is expected to be the first commercial application of this new energy science and uses micro-sized nickel particles infused with hydrogen gas to initiate power production. The ECat is currently being tested and evaluated at the University of Bologna in Bologna, Italy. This device will be commercially implemented in a factory in Athens, Greece, where it will undergo further tests on its safety in an industrial setting.[3]

Andrea Rossi's E-Cat
Andrea Rossi's E-Cat prototype. Photo: Daniele Passerini

For wide-spread use of cold fusion technology, these devices must be safe for the public. This was noted by Jed Rothwell in his Cold Fusion and the Future.

Some people fear there may be a hidden, long term threat to the health of people who work in close proximity to cold fusion reactors. So far, nobody has detected dangerous levels of x-rays or other emissions from a cold fusion cell. The autoradiographs prove that cold fusion does produce low levels of radioactivity, but the levels are so low that scientists have difficulty detecting them with sensitive instruments. Compared to the radiation from televisions and the natural background of radiation from space, radon and other sources, cold fusion radiation seems likely to remain so low as to be nearly undetectable. Still, cold fusion might conceivably produce some unknown form of radiation or some other deleterious effect. We will have to make sure this is not the case, by exposing rats and other laboratory animals to unshielded cold fusion reactors, and by carefully monitoring the health of the first group of people who work with the reactors every day.“[4]

On Rossi’s device, ”about 50 kilograms of lead shielding, about 2 centimeters thick, protects against any gamma radiation.”[6] During an open Q&A after the NyTeknik interview, the question of gamma radiation from the ECat was posed to inventor Rossi by a member of the public, Goran Ericsson. ”If no gammas are observed, what is the reason to believe nuclear reactions are involved?”

Andrea Rossi: We observed gammas under the 300 keV range. We did not find, so far, the couple at 180 degrees at 511 keV, and the research we are continuing with the University of Bologna is aimed also to better probe the specter of the gamma produced. It will take some month of research, after which we will able to better understand the theory at the root of the thermal effect.

We have to calculate also the recoil energy, integrated with the kinetic energy we produce. We want to correlate the thermal effect with the gamma specter we will define. We also are continuing to analyze the atomic and isotopical transmutation, to correlate it to the gamma and to the thermal effect. I want to know if Cu-59, 60, 61, 62 decay by electron capture, instead of beta plus emission; if so a very interesting consideration can be derived.

This a very difficult research we are investing on (my money). And, at last, if we will not find high energy gamma and 511 keV couples, well, we will have to think about a new rule. It would not be the first time: they have digged a big hole, there in Geneva, to understand things, and they are finding things by the classic physics could not happen, particle that by the classic physics could not exist. But those things, evidently, are not good Physics students, so they insist to exist. Just read the ”Nuclear Models” of Greiner Maruhn to get a taste of this.“[5]

Speculating on what could happen if Rossi’s device broke, Hank Mills of Pure Energy Systems news wrote:

There could potentially be a very brief spike of radioactivity for a moment if the vessel cracked or failed, but the venting of the hydrogen gas would immediately end the nuclear reactions taking place and any production of radioactivity.” [4]

An additional batch of questions from Ny Teknik’s readers was answered by Mr. Rossi, some of which addressed the question of radiation from beta decay and radioactivity.

Peter Ekstrm: In the fusion of a proton with Ni-58 a substantial activity of Cu-59 is formed. Cu-59 decays with a half-life of 82 seconds by beta+ decay. In the Focardi and Rossi article it is stated that: ”No radioactivity has been found also in the Nickel residual from the process”. Considering the very high activity of Cu-59 that is produced, it is surprising that no activity is detected. Even ten half-lives after the end of a run the activity should be of the order of 1013 Bq, which is not only easily measurable (with a detector far away from the source) but also deadly for everybody present in the room! (Could you explain?)

Rossi: No radioactivity has been found in the residual metals, it is true, but the day after the stop of the operation. In any case you are right, if 59-Cu is formed from 58-Ni we should have the couples of 511 keV at 180 and we never found them, while we found keV in the range of 100-300 keV. I think no 59Cu is produced, I suppose only stable Cu is produced from the transmutation of the isotopes 62Ni and 64Ni. I desume this from what we find after the operations. Your observation is correct.

Cold fusion technology is just beginning to emerge from a science into a technology. Much is still unknown about the science, and further testing will be taken over the next several years to ensure the safety of this technology. To date, cold fusion devices have not produced any appreciable dangerous radiation like that of today’s nuclear fission reactors. Scientists who have worked in this field for the past two decades are healthy and safe.

More importantly, LENR reactions produce energy that is cleaner than any source of power used today. Whether it’s hydrocarbons like oil, gas, or coal, or renewable technologies such a solar and wind, the power of cold fusion lies in its incredible energy density, a nuclear power from hydrogen and greener than today’s nuclear fission power plants.


1 The Science of Low Energy Nuclear Reaction by Edmund Storms World Scientific 2007



4 Jed Rothwell: Cold Fusion and the Future Part 1 – Revolutionary Technology http://www.

5 Welcome Worry-Free Nuclear Power: Rossi’s Energy Catalyzer by Hank Mills Pure Energy Systems news

6  36 more ques- tions asked by the readers of NyTeknik

7  Why doesn’t cold fusion produce dangerous ionizing radiation and neutrons? Infinite- energy FAQ html#Q21

8 UC Davis Training in Radiation,13,1137,1139