CMNS investigators and the science community will be celebrating the 30th-anniversary of the announcement of cold fusion at the LANR/CF Colloquium at MIT on the campus of the Massachusetts Institute of Technology in Cambridge, MA on Saturday, March 23 and Sunday, March 24, 2019.
These colloquiua have been hosted for many years by Dr. Mitchell Swartz of JET Energy Incorporated, Dr. Peter Hagelstein of the Energy Production and Energy Conversion Group at MIT, and Gayle Verner, also of JET Energy.
The focus is the science and engineering of successful Lattice Assisted Nuclear Reaction [LANR] systems, including the important roles of the lattice and material science issues, as well as electrophysics.
Dr. Swartz believes engineering, along with the benefits of teaching its principles, is vital for success of attaining active LANR systems.
He has previously demonstrated the importance of this with his engineered systems including his metamaterial high impedance aqueous PHUSOR®-type technology that was shown on the MIT campus in 2003 as part of ICCF10, and, his dry preloaded NANOR®-type component technology demonstrated in 2012 at the Cold Fusion 101 IAP Course at MIT, which ran for 3 months thereafter.
“Where is there science without engineering?” he asks.
“When we first made ‘cat whiskers’ back in the 50s using galena (a mineral) and a perpendicular wire positioned on it to make a junction “diode” – that was considered high-tech. Now look how far we’ve come with the engineering in that technology.”
“Similarly,” says Dr. Swartz, “in this clean energy-production field, there is much data heralding that applied engineering has also improved results: including incremental power gain, total output power, and excess energy density which have all increased; supplemented by improving controls and many new diagnostics.”
“Research takes meticulous effort, taking the time to write it up, and if you’re lucky – submitting it and getting feedback. So that’s why we’re having a posters at the colloquium.”
AGENDA and Tentative Schedule LANR Science and Engineering: From Hydrogen to Clean Energy Production Systems
SATURDAY I. Experimental Confirmations of LANR/CF A, Energy Production: Excess Heat/Tardive Thermal Power (Heat after Death) Helium Production/Other Products Penetrating Emissions/Particles Distinguishing Optical/Radiofrequency/Acoustic Signatures Engineering Methods of Activation/Control Engineering of Applied Magnetic Field Intensities
B. Energy Conversion: Stirling LANR Engines/Propulsion Systems Thermoelectric Conversion/Direct LANR Electrical Generation Rotating Linked LANR Magnetic Systems Acoustic LANR Conversion Systems
II. Other Experimental Support for LANR/CF Supporting Confirmations (eg Fract. And Comb Phonon Expts)
III. Theories Supporting/Consistent with LANR/CF Lattice/Metallurgical/Material Science Nuclear Electromagnetic Other
IV. Engineering Applications from/of LANR/CF
V. Reconciliation of Success with Policy/Obstruction
But videos don’t translate into the real, physical world, yet.
LENR bad-boy Andrea Rossi, inventor of the EcatSK, draws ire from working scientists in the CMNS field for his theatrics and demonstrations that have yet to be confirmed by the community-at-large. He does not attend conferences or meetings, does not publish in JCMNS, and has little contact with active CMNS researchers. Documents from the very public trial with former partner Industrial Heat showed a decidedly uncooperative Leonardo Corporation working outside the bounds of normal business expectation.
Listen to the Cold Fusion Now! podcast episodes with Abd ul-Rahmann Lomax, who documented the trial, and Mats Lewan, who authored An Impossible Invention, a book that follows the development of Andrea Rossi’s Ecat.
But if LENR had a Human Resources center, they would be hard-pressed to find anything that resembled a mainstream scientific organization. The people who would tread into the pariah science of cold fusion, conduct advanced nuclear research in basement labs at their own expense, banned from publishing any corroborated results, and derided by their peers adorned with money and fame – are by self-selection uniquely fashioned individuals, and that quality intensifies at the fringes of the fringe.
Andrea Rossi escaped the US with $10 million and moved his enterprise to Sweden, where the QuarkX and new EcatSK have been developed. The EcatSK reactive material based on nickel and light-hydrogen has had a long history of making big heat.
Precedence for excess heat from nickel-hydrogen systems
In August of 1989, University of Siena Professor of Physics Francesco Piantelli discovered the anomalous heat effect in Nickel-Hydrogen systems, and made exceptionally large output power in the process. His collaborations with Professors Sergio Focardi and Robert Habel began in 1990.
Seventeen years later, Andrea Rossi asked Dr. Focardi to evaluate his then-Energy Catalyzer, and got a positive review. The relationship continued through Sergio Focardi’s death in 2013.
Dismissed as a con man taking advantage of an elderly scientist, we believe this early LENR pioneer deserves more credit. Cold Fusion Now! accepts that Andrea Rossi can make a reaction happen, but has problems controlling the reaction to make a technology, just like everybody else in this field.
Mats Lewan, author of An Impossible Invention, a book on the development of the Ecat, writes on his blog, that the new device “uses only minute amounts of abundant elements such as hydrogen, nickel, lithium and aluminium”.
Has this fuel changed from previous mixtures?
Nickel is a catalyst for the fuel
In Analysis of New Rossi PCT filing based on US Patent 9,115,913 issued 25Aug15 patent lawyer David French writes:
Among the embodiments are those in which the fuel mixture includes lithium and lithium aluminum hydride, those in which the catalyst includes a group 10 element, such as nickel in powdered form, or in any combination thereof.
In other embodiments, the catalyst in powdered form, has been treated to enhance its porosity. For example, the catalyst can be nickel powder that has been treated to enhance porosity thereof. [In those embodiments that include an electrical resistor, the].The apparatus can also include an electrical energy source, such as a voltage source and/or current source in electrical communication with the [resistor.] heat source.
Among the other embodiments are those in which the fuel wafer includes a multi-layer structure having a layer of the fuel mixture in thermal communication with a layer containing the electrical resistor. heat source.
In yet other embodiments, the fuel wafer includes a central heating insert and a pair of fuel inserts disposed on either side of the heating insert.
Read full articleAnalysis of New Rossi PCT filing based on US Patent 9,115,913 issued 25Aug15 by David French for more on brackets.
“The powder in the fuel mixture consists largely of spherical particles having diameters in the nanometer to micrometer range, for example between 1 nanometer and 100 micrometers. Variations in the ratio of reactants and catalyst tend to govern reaction rate and are not critical. However, it has been found that a suitable mixture would include a starting mixture of 50% nickel, 20% lithium, and 30% LAH. Within this mixture, nickel acts as a catalyst for the reaction, and is not itself a reagent. While nickel is particularly useful because of its relative abundance, its function can also be carried out by other elements in column 10 of the periodic table, such as platinum or palladium.”
Reproductions of the Rossi Ecat have been conducted world-wide, with mixed results. The successful fuel recipe with the combinations and concentrations of critical elements is still unknown.
“Any element that reacts with hydrogen appears to support LENR – titanium, nickel, zirconium have all been explored. The big challenge is to find out what it is about those hydrides that is unique and makes it possible to initiate a nuclear reaction.” says Dr. Edmund Storms, a nuclear chemist and LENR researcher. “Rossi found that nickel is important, but there’s a certain lack of understanding of what Rossi did.”
“Rossi identified nickel as being where the nuclear reaction was occurring. But that is actually not the material he was using initially; he was using a nickel catalyst. A nickel catalyst is not pure nickel. It’s nickel that has been applied to some inert substrate. That’s the way catalysts work.”
“There’s an acting metal that can break the hydrogen bond, and then, there’s an inert substrate on which the hydrogen atom can diffuse, causing what’s called spillover hydrogen. It’s that spillover hydrogen that is active for the reaction, not the hydrogen in the nickel. So there’s reason to think the nickel is not where the action is.”
Historical example of catalytic fusion
An example is found in the work of Les Case, a chemical engineer with four degrees from MIT who discovered what he called catalytic fusion using palladium and deuterium systems. Case found that a catalyst made by depositing palladium – in finely divided form – on charcoal, could be made nuclear active.
Ten years ago, Case wrote, “I discovered that using certain standard commercial catalysts, one could get this fusion to occur under reproducible, mild conditions. This is the catalyst that I’ve set upon as being about the most effective that I currently have available. This is a standard palladium on activated carbon catalyst. One-half percent by weight of palladium loaded on this activated carbon— this is the key. You change this just a little bit and it doesn’t work— at all! But if you stay within the approved ranges, it works basically all the time.” -Infinite Energy Magazine July 1999
This was the experiment eventually reproduced by a team at SRI International led by Dr. Michael McKubre that also correlated the excess heat with the nuclear product Helium-4.
“Now, people said, ok the reaction is happening on the finely divided palladium,” continues Storms. “but that’s not necessarily true. The reaction could also be happening in the charcoal.”
“The charcoal cracks a lot. Look at it on a scanning electron microscope and you can see the cracks. All the charcoal has to do is allow the hydrogen atoms being generated at the palladium to diffuse across the surface to find a crack where the nuclear reaction occurs.”
This hypothesis is supported by the fact that when the source of charcoal, made from a particular coconut collected from a South Pacific island, was no longer available, Case could not get the reaction to work ever again; no other charcoal would work in his device.
“We have to be very careful in imagining where this nuclear reaction actually occurs. Even in palladium, in the electrolytic experiments, it only occurs very near the surface. And the surface of the cathode is not pure palladium, it’s a very complex alloy, and it’s also complex metalgraphically, so there’s a lot of stuff going on there, that has no relationship whatsoever to how people imagine palladium to look.”
According to Edmund Storms, there is no reason to believe that the nuclear reaction was occurring in the palladium itself, and likewise, the same situation would apply to the nickel-hydrogen reactions.
If Andrea Rossi has found the right mix of elements to catalyze and control the reaction, only time will tell as we wait for confirmation.
Robert Godes, the President and Chief Technical Officer of Brillouin Energy, is the guest on the Cold Fusion Now! podcast and discusses the latest changes to their signature LENR reactor now in development as a commercial product, the Brillouin Hydrogen Hot Tube.
Last June 2018 at ICCF-21, Dr. Francis Tanzella of SRI International reported on a year-long test of over thirty Brillouin HHT reactor cores with thermal power outputs of about 1.5x the initial electrical input, and producing under 10 Watts excess.
On-and-off control of the reaction has been routine for the Brillouin lab since its inception; they use a proprietary “Q-pulse” electrical stimulation to initiate and regulate the excess thermal power. But swapping out reactor cores and producing the same excess power results demonstrated that the year-long focus on quality materials manufacturing paid off.
All this may seem pre-mature; there are still engineering challenges ahead. However, with the LENR field advancing quickly, companies are accepting the risk and making the research investment now, fearing the higher costs after breakthrough.
The next phase of Hot Tube development is also open to a select public. One billion “Brillouin units” will available for purchase at a new company website http://bec.ltd/
There is an opportunity for up to 299 US investors and up to 1,700 non-US investors to participate in this fund. Access to the fund will be on a first come, first served basis, beginning soon.
The minimum investment in this fund is 24,750 EUR. Register here to get on the waitlist and receive advanced notice when the units in the fund become for sale.
With the fund’s proceeds, BEC Ltd. will purchase from Brillouin Energy Corp. a dedicated class of preferred stock established in its charter, with the following terms.
Brillouin Energy Corp. will distribute 20% of its net profit to BEC Ltd. until the total distributed profit reaches five times the initial fund value, after which
Brillouin Energy Corp. will distribute 10% of its net profit to BEC Ltd. until the total distributed profit reaches ten times the initial fund value, after which
Brillouin Energy Corp. will distribute 5% of its net profit to BEC Ltd. in perpetuity
BEC Ltd. will distribute all revenues received from Brillouin Energy Corp. to unit holders equally on a per unit basis.
“I’m determined to bring the Hot Tube to market,” says Robert Godes. “We’ve got original equipment manufacturers (OEMs) that can design our reactor into highly energy-efficient products and de-carbonize this planet.”
The amount of hydrogen in an average glass of water contains enough energy density, when applied to Brillouin Energy’s unique boiler systems, to power 30,000 homes for a year.
Listen to Brillouin Energy’s President and Chief Technical Officer Robert Godes discuss, science, technology, and LENR theory on the twentieth episode Cold Fusion Now! podcast with Ruby Carat on our podcast page, or, subscribe in iTunes.
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Nuclear chemist and former Los Alamos National Laboratory rocket scientist Dr. Edmund Storms has been researching cold fusion/LENR since 1989 and talks with Ruby Carat on the Cold Fusion Now! podcast about this new area of science founded by Drs. Martin Fleischmann and Stanley Pons.
Edmund Storms is widely considered one of the foremost researchers in the cold fusion field. In 1989, he and Carol Talcott detected tritium from Fleischmann-Pons cells at Los Alamos National Laboratory. In May 1993, he was invited to testify before a congressional committee about the cold fusion effect. In 1998, Wired magazine honored him, along with Michael McKubre, as one of the 25 people in the U.S. who is making a significant contribution to new ideas.
Edmund Storms has written over a hundred papers and several surveys of the condensed matter nuclear science field, including books The Science of Low Energy Nuclear Reaction, a survey of the experiments and theories of the field through 2007, and, The Explanation of Low Energy Nuclear Reaction, A Comprehensive Compilation of Evidence and Explanations about Cold Fusion, describing the top contenders for a LENR theory, as well as providing a new model of the reaction derived solely from the physical evidence.
Edmund Storms discusses some of the episodes of history, like the Les Case experiment, as well as the progress in LENR theory and the difference between Super Abundant Vacancies SAVs and Nano-spaces as a nuclear active environment.
Cold Fusion Now! brings the voices of breakthrough energy scientists to the public. We need your financial support in order to continue. Go to our website at coldfusionnow.org/sponsors/ to be a Cold Fusion Now! SuSteamer or sign-up on Patreon.
Patreon is a platform for financially supporting the creative . You can pledge as little as a dollar per episode and cap your monthly spending. When we deliver, you reward the work!
The Great Transition: Progress on New Sources of Energy
by Tom Whipple
Unless humanity replaces fossil fuels in the next couple of decades, it is almost certain that the latter part of the 21st century and beyond is going to be a very unpleasant era in which to live. For the past 200 years, much of the world has prospered greatly from fossil fuels. Most of us have become so accustomed to the benefits of fossil fuels that few are anxious to give up the lifestyles that this energy has provided despite the dire implications for future generations.
After three decades of grappling with climate change, it is becoming apparent that the only solution to slowing and reversing its effects is to develop new sources of energy that are so much cheaper than our fossil fuels and our current alternatives that a rapid transition to non-polluting energy will happen quickly and without too much economic damage. Although considerable progress has been made in improving and reducing the cost of our current, non-carbon emitting energy sources, for a variety of reasons not enough progress is being made in substituting these alternative energy sources to stop catastrophic changes in our climate.
At present, there seem to be only two radically new sources of energy under development that offer hope of replacing fossil fuels soon. As I have discussed several times before in this paper, there are two technologies — Low Energy Nuclear Reactions LENR and hydrogen/hydrino reaction — under development that appear to be nearing commercialization. Both of these technologies have been scientifically controversial for many years, but as their developers make progress, skepticism among those who have insight into the progress to these technologies is starting to wane.
The most prominent developer of the LENR technology, Andrea Rossi, said recently that he is installing a LENR heating system in a factory and that the first phase of this system has been in operation since mid-November. Rossi, however, releases information about his technology in such small bits and pieces that it is difficult to evaluate his technology or its prospects.
In contrast to the secretive Rossi, Randell Mills of Brilliant Light Power is an open book. For years, Mills has posted on his website periodic briefings outlining his progress and plans for the future. In recent years he has been issuing quarterly progress reports which are supplemented by the release of annotated video clips showing steadily improving prototypes of his devices being tested. In contrast to Rossi, some 95 percent of Mills’ technology and progress is available to anyone interested on the Brilliant Light Power website.
Mills has been working on his technology for over 25 years, and his laboratory is adequately financed by investors who believe he is developing a revolutionary technology. Mills produces energy by converting hydrogen atoms into a hitherto unknown form of hydrogen, which he calls hydrinos, which results in the release of unprecedented amounts of energy. His reaction has been working for several years and seems to be well verified by outside scientists. However, a reaction on a laboratory bench is not the same as a device that can replace all types of fossil fuels worldwide. There is still a lot of engineering to do before a plasma glowing on a laboratory bench is ready for mass production.
It has been two years since Mills last demonstrated his hydrogen-to-hydrino reaction and laid out a plan to build and market an energy producing device he calls a SunCell. During this period there have been important changes in Mills’ concept of how a commercial device that will reliably produce heat and electricity will work. Plans to release a device that would convert the energy being produced by a high-temperature plasma into electricity by using photoelectric cells has been put aside in favor of more promising techniques. Mills is now planning to develop two devices, one to produce heat and the other to produce electricity, using a highly efficient technique known as magnetohydrodynamics (MHD).
Before a commercial energy producing device can be built, Mills first has had to develop what he calls an “automated cell” or subsystem in which the energy-producing reaction can take place under computer control. In the early prototypes, Mills’ reaction was started and maintained manually, making it unsuitable for a commercial product. Judging from the videos showing various configurations of the SunCell that have been tested and the quarterly reports that have been released, he seems to be making progress. Successful development of several subsystems for the automated cell has been announced, and the videos show the reaction can now take place inside various types of enclosed spheres.
The two commercial products under development that will incorporate the automated cell are the “Thermal SunCell” which is to deliver 500kW for boilers, hot air or hot water thermal systems. As this device is far less complex than the “Electric SunCell,” it should reach the market first and demonstrate the potential of the technology. Brilliant Light Power plans to market this device initially to industrial firms which use heat in their processes. Although Mills says the SunCell theoretically can be scaled to produce anywhere from 10 kilowatts to 10 megawatts, the first device which incorporates an MHD subsystem is being designed to produce 150kW. By using MHD rather than photovoltaics to produce the electricity, Brilliant Light has lengthened the development time but, in the end, may have a better and far cheaper device.
With the changes taking place in plans for a commercial system, the path to non-polluting cheap energy from the SunCell technology has been lengthened, and BLP is no longer making forecasts of how long it will be before even a commercial-ready prototype can be developed. There was one clue in a recent BLP video of “Shakedown testing of our inverted-pedestal-electrode reactor before our planned demonstration for DOD scientists.” This could be a very significant development for if BLP can convince DOD scientists that they are looking at the energy source of the future, the technology could be in production a lot faster. It was scientists from DoD’s Advanced Research Projects Agency that was instrumental in developing the Internet — and look how that turned out! There may be some hope for the 22nd century yet if Rossi’s or Mills’ devices get into production in time.
Nuclear chemist and veteran LENR researcher Dr. Tadahiko Mizuno is now in the recovery phase after an earthquake damaged sensitive equipment in his laboratory in Hokkaido, and the CMNS community is assisting in the repair and replacement of lab apparatus that will allow him to continue his successful excess heat research.
“I have experienced earthquakes many times before. Each one was terrible, but this time it was a bit different,” said Dr. Mizuno of the shaking.
“The fact that the laboratory was hurt by the unexpected, the fact that the building was broken – and the biggest thing is that electricity and water stopped for a few days. Earthquakes up to that point did not have that kind of thing, rather it was very localized. This time, the lab would clearly be effected.”
Like many scientists in Japan, Dr. Mizuno had prepared for a disaster like this. He says,
“Naturally, this kind of situation was contemplated. A few years ago Sapporo produced a scenario of a devastating earthquake, with almost all the buildings collapsed. There was no electricity, no water, no food- it was a cold winter game-plan. It was so realistic, it was a revelation to seriously prepare for disaster prevention.”
“We fixed everything that we could install, such as fixing shelves, setting fire extinguishers, emergency food, water, power generation radio. Of course I persuaded others to proceed with preparation. I was warning everyone!”
“A few days before, a metallic ringing continued in my ears, and an earthquake came in the middle of the night when it stopped. No matter how much preparation it was, the damage was something I could not escape.”
The quake on 3/11/11 which caused the ensuing tsunami and Fukushima disaster was foremost in his mind.
“I also had the same experience on March 11, 2011. At that time I took a day off and was vegetating in front of the TV. A loud audible alarm sounded from the TV and mobile phone, and soon a big earthquake swing came. I think everyone is aware of the situation of the subsequent disasters.”
“At that time, I was preparing CF experiments to control the heat. It seems that it was telling me to hurry again this time. I feel such a presence of God.”
Glow discharge makes significant excess power
Dr. Mizuno has been investigating both LENR excess heat and transmutations since 1989. He has written and edited several books, among them, Nuclear Transmutation: The Reality of Cold Fusion published in 1998, detailing the massive excess heat he witnessed in his earliest experiments, and the slow realization over years that there were also transmutations occurring, too.
Working as Hydrogen Engineering Application & Development HEAD, Dr. Mizuno has been part of the extraordinary collaboration between industry and academia in Japan, recently working with Clean Planet, Inc and the Condensed Matter Nuclear Science CMNS division at the Research Center for Electron Photon Science ELPH at Tohoku University.
In that presentation, Yoshino described results from 73 tests of Mizuno’s gas discharge system where a treated nickel mesh cathode reacted with D2 gas at temperatures above 200 degrees C and pressures of 100-300 pascals using a palladium rod wrapped in palladium wire as an anode.
In one test run, a total input power of 80 Watts produced 78 Watts excess thermal power out. Continuing for 35 days before it was turned off, the total excess energy produced was 108 MegaJoules.
The only problem? Reactions would not start sometimes until one, two, even three years later! A new method of preparing the electrodes would have to be found in order to create a reaction more quickly, and explore the parameter space of the system.
Previously, the nickel mesh and palladium were carefully cleaned and then put to glow discharge, which Mizuno says creates the required nano-particles in the process. In 2017, understanding that the nickel mesh is where the reaction is located, he decided to try applying palladium directly to the nickel beforehand.
In the paper Observation of Excess Heat by Activated Metal and Deuterium Gas published in JCMNS V25 [.pdf], Mizuno writes,
“With unprocessed nickel, it is impossible to generate excess heat at all. However, if the surface is covered with particles and further Pd is present on the surface, excess heat is easily generated. The smaller the particles are, and the more Pd is uniformly present, the more the excess heat is generated.”
A new method treats the nickel by physically rubbing the palladium rod on the mesh before glow discharge begins. A second new method used electroless plating to plate palladium on the nickel mesh.
Mizuno excess power experiment is reproduced
At the 21st International Conference on Condensed Matter Nuclear Science ICCF-21 held June 2018, Jed Rothwell presented some of the results of experiments using the new methods of electrode preparation.
Jed Rothwell runs the LENR science paper archive http://lenr-canr.org/ and is the author of Cold Fusion and the Future [.pdf]. He has translated many of Dr. Mizuno’s papers and books from Japanese into English. Mizuno writes:
“Jed has been involved in our research of CF work for 25 years, from 1993 to 2018. He analyzed our testing methods, our adiabatic thermal measurement method, and our air cooling method test results. He found problems and contributed to many improvements of the test method. Jed himself wrote the manuscript paper and based on these many contributions, Jed is the co-author of that paper.”
“He has also struggled to collect research funds for us. Without this funding, our CF work may have been impossible.”
In the ICCF-21 presentation, Rothwell revealed that the new methods of electrode preparation have successfully decreased the time to reaction to about a week or two, but sadly, the change in materials preparation has reduced power output to only 5-20% of previous values, now measuring about 20-40 Watts excess thermal.
For 38 active tests, 19 using each of the two new methods, all tests but five produced about 5% excess power, with five of those 38 tests producing 15% or more excess thermal power.
There have been valid concerns with his data, and Dr. Mizuno has been responsive. For instance, he showed that the resistance heater is not part of the excess by performing glow discharge with an ordinary nickel mesh (without treatment) and producing only the amount of heat as resistance heating.
It seems addressing the objections has only strengthened the conclusions, as they should.
In fact, a team of scientists Takehiko Itoh, Yasuhiro Iwamura, Jirohta Kasagi from ELPH at Tohoku University and Hiroki Shishido from the Quantum Science and Energy Engineering Department also at Tohoku University, were able to successfully reproduce excess heat using a system almost identical to Mizuno’s, though with less heat output, only generating about 7 Watts thermal. [See Anomalous Excess Heat Generated by the Interaction between Nano-structured Pd/Ni Surface and D2 Gas in JCMNS V24 [.pdf].]
Mizuno believes that extrapolating data relating temperature and excess power (here showing the earlier high-output data) to 700 degrees C could produce 1 kiloWatt of excess thermal power, a number Jed Rothwell notes is “much better energy density and Carnot efficiency than a fission reactor core.”
Community generosity is rewarded with test reactor
When the 6.7 earthquake hit Hokkaido on September 6, 2018, damage to the sensitive lab equipment was enough to spell an end to research. At 73 years young, it’s not easy to start over again. Describing the damage to the lab, Dr. Mizuno was optimistic about repairs saying,
“Although the shelf did not collapse, inside the lab was knocked-about. The SEM, the fluorescent X-ray equipment, and the experimental equipment which had just been installed, moved around as much as 10 cm, and the connections and vacuum were destroyed.”
“Fortunately, there is a lot of experience around able to repair the equipment, and we can fix some too, if we can make the time.
The CMNS community came together to help. Physicist and LENR scientist Dr. Dennis Cravens started a gofundme fundraiser to help with costs:
“Do unto others. If Tadahiko is correct, it is a promising path that he should continue to follow. He had been working alone without encouragement for years – and there were many years early on with no results. I know how that must feel- being alone and unappreciated. I have had many years like that.”
“We raised about $8,500 dollars. The amount sent was lightly adjusted by Go Fund Me fees and currency exchange costs getting it here to there. I should also say a few people wired money directly.”
That generosity will stretch a long way to fix the equipment, and spirits. Upon hearing of the campaign, Mizuno was overcome:
“I am very thankful to everyone for helping me. I thought for a long time that I was studying CF work all alone. I thought it was checkmate due to the earthquake damage on 6th September. I was pessimistic that I could not repair the equipment, and all was over. However, that was not so. Many friends have stepped up and supported my CF research. I was so happy, tears came to my eyes. This was the first time I have felt this way during the more than 70 years I have been alive. I am very happy that people were so kind, and am happy thinking about it. I am very grateful to everyone. I will never forget the efforts of my friends.”
Dr. Mizuno wanted to do something special and so he offered up one of his reactors to a researcher in the community to test.
“The money you raised will be used to repair my equipment, especially the scanning electron microscope, and, part of the money will be used for the production cost of a small reactor that I am sending to another lab that has agreed to test it. I think it will produce excess heat. And I think that other researchers in the world will confirm and announce excess heat generation by these methods. Thank you again.”
Sindre Zeiner-Gundersen is Director of Operations of Norrønt AS, a company providing engineering project management and patent development. He is also a PhD candidate in Physics who has been researching ultra-dense hydrogen and Rydberg matter with PhD supervisor Svein Olafsson in Iceland and Norway’s Professor Svein Holmlid.
Zeiner-Gundersen, based in the Oslo-area of Norway, has just received the reactor from Mizuno.
“I’m guessing I was one of the first to contact Mizuno after his lab went down in the earthquake, to continue and verify his important work, and I’m also working in a well equipped lab as well. Opening the shipping box was like Christmas. All the excitement in the world.”
“I believe its not the glow discharge reactor but filled with ZrPd powder that will activate when the temperature reaches a critical point after being loaded with deuterium. I think this is the same design that yielded 12% excess heat that Jed presented at ICCF21.”
“I’m still waiting for further operating instructions before testing and I’m setting up flow calorimetry, and programming Labview data acquisition to measure everything from: voltage, current, 8 temp sensors, pressure, charged particles, alfa, beta, gamma and neutrons.”
The CMNS community, long isolated from mainstream support, knows that working together is the path to success. Sindre Zeiner-Gundersen maintains
“… the most valuable work we as researchers can do is to collaborate, share data, replicate and verify the work preformed by the best researchers in this field.”
After 30-years of breakthrough research, Tadahiko Mizuno is just getting started. He’s organizing the lab again for a new round of experiments and consulting on a reproduction half-way around the world. When asked if he will be able to build upon such spectacular results he says:
“It is all about making an excess-heat generation CF device. There is no reason not to be able to do it. This is my job.”