FOR IMMEDIATE RELEASE
Brillouin Energy Corp. presented its groundbreaking thermal energy technology on Capitol Hill last week. Attendees included Members of Congress, congressional aides, federal government officials, industry representatives, and citizens’ groups concerned with the federal government’s progress on developing clean energy solutions.
“It was great to see that much interest in DC for a true safe green nuclear power technology,” commented Brillouin’s President and Chief Technology Officer, Robert Godes.
Attendees were able to learn about Brillouin’s prototype LENR reactors and hear from a number of speakers, including Dr. Michael McKubre of Stanford Research International (SRI). Brillouin and SRI have entered into a technology research agreement under which SRI is engaged in calibration testing and independent analysis of the Brillouin technology.
As Dr. McKubre noted in a report distributed at the event, “it is very clear that something on the order of four times (4x) and potentially more gain in power (and therefore ultimately energy) was achieved at an impressive and industrially significant operating temperature of around 640°C. To my knowledge this had not been achieved before in the LENR field. The fact that the Q pulse input is capable of triggering the excess power on and off is also highly significant.”
In addition, Dr. Banning Garrett, former Strategic Foresight Senior Fellow at the Atlantic Council, was also present and issued a report detailing the current status of the LENR field and credibility of Brillouin’s claims. As Dr. Garrett noted, “LENR power generation, if realized, has the potential to become one of the technologies for transformation of the global energy system.”
Brillouin’s breakthrough technology is now garnering national and international attention and the company looks forward to working with government and industry leaders to bring this technology to market.
Background on Brillouin
Brillouin Energy Corporation is a clean-technology company based in Berkeley, CA, which is developing, in collaboration with the Stanford Research Institute (SRI), an ultra-clean, low-cost, renewable energy technology that is capable of producing commercially useful amounts of thermal energy.
The Brillouin technology is based on low energy nuclear reactions (LENR). The result is ultra-clean, low-cost, and sustainable renewable energy that doesn’t rely on any type of fossil fuel, chemical, or nuclear fuel. This process produces zero emissions and no solid wastes which pollute the environment.
Brillouin’s technology is a proprietary method of electrical stimulation of nickel metal conductors using a proprietary control system. The process pulses the system to generate excess heat. The excess heat produced is a product of reactions in hydrogen (from water or gas) in the nickel metal lattice. The process is neither fission nor fusion—rather, electrons change protons to nearly-stationary neutrons in the nickel metal lattice, generating heat.
The reactor converts hydrogen into helium, which has slightly less mass—that mass difference creates a large amount of thermal energy without burning any hydrocarbon energy sources. The reactor is very small relative to the amount of thermal energy output, making the technology very clean and efficient with a virtually inexhaustible fuel supply. Brillouin is currently working to scale the heat production up to commercial output levels.
Brillouin has developed TWO systems:
1) The WET™ Boiler, which is being designed to generate heat from 212º to 302º Fahrenheit, and is intended for home heating and hot water use.
2) The HHT™ Boiler, which is being designed to generate heat at 932º to 1,112º Fahrenheit, and is intended for commercial electricity generation.
For more information:
POC: Robert George
It’s been just 3 weeks since ICCF-19 concluded in Padua and one week since my return. I’ve been asked many times what I learned at this event and what was important.
Of course, that question is unfair: many important things occurred in the course of the week. I may not have actually appreciated the main significance of a good number of them. But for me, a highlight was seeing Dr. Alexander Parkhomov in person and watching his courageous response to the barrage of questions he received as he stood at his poster, his granddaughter by his side acting as interpreter.
Dr. Parkhomov delivered a Christmas gift to the world on December 25, 2014 when he published the video of his boiling-water demonstration of a Cold Fusion effect. Far too many words have been devoted on the Internet, such as on CMNS Google group chat site to the uncertain interpretation of the temperature measurements that he reported as being associated with this experiment. He reported, in fact, boiling water away to produce steam at a rate that maximized out at 2.74 to 1 over the amount of electrical energy that he was supplying to his unit. He did this with his ceramic stick version a ceramic “dog bone” reactor (using Rossi nomenclature) which glowed yellow hot at 1100° in his video (at 149:30 minutes into the first video). Notwithstanding the diversion on CMNS over his temperature measurements (the temperature profile that he reported over the time of his experiment), I’m still convinced that his 2+ to 1 measurement of energy as based on replacing boiling water, even if he did it with the kitchen measuring cup, is the most important event to have occurred in the past year.
Dr. Parkhomov was endeavoring to replicate the experiments done under the guidance of Andrea Rossi at Lugano, Switzerland in March, 2014, reported in October, 2014 by observers from Sweden. But Rossi never disclosed what his “magical ingredients” were. Dr. Parkhomov was quite open: powdered nickel and lithium aluminum hydride – LAlH4.
I largely accepted and believed the video that was posted on the Internet and the associated information provided by Dr. Parkhomov both at the time that it was released and subsequently. In contrast, others persisted in casting doubts on this entire demonstration because of the temperature data that had been provided. However, for me seeing this humble 70-year-old retired physicist from Lomonosov Moscow State University, Russia answering questions, answering the barrage of questions at ICCF-19 through the assistance of his very talented granddaughter validated in my mind that there was no fraud or mistake here. This was a genuine scientist who’d made a great step forward. For me this was the most important event that occurred at ICCF-19. I’m glad that Dr Parkhomov was honored by having, at his request, attendees assemble around his poster to pose questions to him.
Here’s my agenda: I think that the field needs to pursue new, focused and creative experiments that will lift the veil on this ColdFusion/LENR Mystery. Numerous experiments have been done in the past 26 years and there’s still no theory to explain the “magical” excess heat effect. Yes, there is a need for theoretical review, and the secret that everyone is seeking might be hidden in the 26 years of research reports that have issued. But, in my view, there needs to be a focus on new experiments that will lift the veil. The Martin Fleischmann Memorial Project is pursuing this objective.
Recently I tried to describe to a Cold Fusion enthusiast and friend how I would take the Parkhomov arrangement and introduce variants that would help elucidate what is going on. Here’s what I propose:
1) turn the apparatus so that it’s oriented vertically, particularly the pressure chamber containing the powdered nickel and the metal hydride
2) surround and contain the pressure vessel with a highly insulative environment. If necessary, employ a Dewar vacuum flask or other arrangement appropriately modified to tolerate containing an internal temperature of 1400°C.
3) Stack the materials in the pressure containment vessel so that they are vertically separated. For example, the powdered nickel could be on a higher platform and the lithium aluminum hydride could be on a lower platform.
4) This entire structure is going to be raised to a temperature of 1100° – 1300°C. This can be achieved, optionally as was done by Dr Parkhomov, by enclosing the pressure vessel in a ceramic cylinder and wrapping heater wire around the cylinder. Alternately, the heater wire could be wrapped on a cage of support material, e.g. glass rods, or even multiple narrow panels of Mica. Another heat loss control arrangement, along with a wide-mouthed Dewar flask, could include multiple sheet metal cylinders surrounding the red hot core. If the pressure vessel were in the form of a cylinder with a cylindrical pipe in the core, heat could be provided from this inner core. Howsoever done, external heating must be provided. But heat should be free to escape only at the top.
5) Measuring the heat emitted could be obtained by a variety of calorimetry methods, but I like the boiling water variant.
6) The 1st experiment would be to see whether separating the metal hydride from the nickel powder affects the excess heat that we expect to be generated.
7) As an alternative other solid-state sources of hydrogen could be placed on the lower shelf to serve as a source of hydrogen. If excess heat still arises we could conclude that lithium is not essential for this effect to occur. Other sources of hydrogen could include magnesium hydride – MgH2; calcium hydride – CaH2; sodium borohydride -NaBH4 as examples. This will establish whether the lithium or aluminum is an important part of the reaction.
8) Some of these metals, e.g. lithium may have a significant vapor pressure sufficient to expose lithium vapor to the powdered nickel. Placing a Palladium hydrogen filter disk between the higher and lower platforms would allow only hydrogen to access the nickel.
9) Once it’s established that an excess heat effect is occurring, many parameters could be varied to learn the response of the excess heat effect to:
a) the temperature of the pressure vessel, including the temperature of onset for the formation of excess heat and the effect of the rate of increase in temperature;
b) the amount/pressure of hydrogen gas in the pressure vessel, once released from the metal hydride;
c) the role, if any, of collateral metals , including not only metal components of the hydrogen emitting hydride, but also additional metals that can be mixed with the powdered nickel or be allowed to contact the nickel as a vapor;
d) the role, if any, of the use of an electrical heater that may emit magnetic fields and may be operated in either AC or DC mode; alternate heating, e.g. natural gas may be employed, fed through a central tube lined with a catalyst;
e) the substitution of other powdered or finely divided metals for the nickel powder (Palladium is an obvious 1st example, followed by titanium);
f) the substitution of deuterium gas for the initial hydrogen used to establish an excess heat effect; and
g) other variants as a fertile imagination may suggest.
Some people may be objecting: “Where’s the calorimetry?” Or more typically: “Where are the highly accurate measurements?” The point is that the boiling water method of heat measurement is totally satisfactory to validate whether an excess heat event is occurring. Once the coefficients of performance – COP – are well above 1:1 it is not necessarily to quibble about accuracy. Purists may wish to circulate water at a constant temperature in a chamber mounted above the heat source and weigh the amount of water associated with a stabilized temperature elevation. If the side walls and bottom of the reactor are extremely well insulated, this should provide the accuracy that so many insist must be achieved.
Some may say that the Parkhomov’s demonstration is just a reflection of the earlier work of Andrea Rossi. But that is not the best observation to make at this time. When such observations are made, even if true, they simply act as a diversion from discussing the key issue. The key issue is:
What experiments can be done that will lift the veil on the ColdFusion/LENR process?
Let’s stay focused on this central issue! Meanwhile ……
Dr Alexander G Parkhomov deserves credit for having openly and publicly shared his experiment and results with the World. Rossi, even if he may have been first to achieve similar effects, has always maintained a degree of secrecy around his process. If this results in Rossi getting a head start in the marketplace then his reward will be the profits that he will reap from that head start. Meanwhile, I give credit to a retired physics professor from Russia who showed both imagination and generosity in sharing a major advance in this field for the benefit of humanity.
In mid-April the 19th International Conference on Cold Fusion (ICCF-19) took place in Padua, Italy and was attended by some 470 scientists, cold fusion bloggers, entrepreneurs, and the merely interested. The first of these conferences was held back in 1990 in the wake of the University of Utah announcement that two of its chemists had discovered a new way to release energy from the atom. The 1990 conference, however, was resoundingly ridiculed by the American Physical Association and was said to be nothing but a gathering for crackpots, pseudo-scientists, and fraudsters. However, over the decades, the conferees continued to gather in cities around the world, with some 100-300 usually in attendance. Many of those who came to the conferences were scientists who had been able to reproduce the “anomalous heat” that the University of Utah researchers had observed prior to their announcement in 1989. Most of the presentations were way down in the scientific weeds and were comprehensible only to those with considerable knowledge of particle physics, so the conferences drew little attention.
In the last couple of years, however, the tide has turned. Although Cold Fusion is still anathema to many in the U.S. and more importantly to the U.S. Department of Energy, scientists in several countries around the world are starting to see that the technology works, that it could be at least a partial solution to many of mankind’s problems, and are starting to talk about developments in the field to their local press. Most, however, continue to be unaware of recent progress in developing this new source of energy or are too wedded to their prejudices to even consider new evidence.
This year the most important development in cold fusion, unless overtaken by a competitive technology, is the acceptance test of the Rossi/Industrial heat, 1 megawatt, cold fusion reactor, which currently is underway at customer factory in the US. The engineer and entrepreneur, Andrea Rossi, who developed the first working commercial application of a cold fusion reactor, did not attend the ICCF-19 conference. However, his CEO Tom Darden of North Carolina based Cherokee Investment Partners and its subsidiary that is developing the cold fusion reactors, Industrial Heat, attended for the first time.
While many were hoping that Darden would give a progress report on Industrial Heat’s acceptance test of its first fusion reactor, they were disappointed. Darden talked only in generalities as to how he became involved with cold fusion, his dedication to the technology as a way of solving the carbon emissions problem, and his interest in financing similar projects. Two or three journalists who attended the conference however, reported being told by a “credible” source, possibly Darden, that the 400-day, 24/7, acceptance test of the one megawatt reactor is going well after several months. Rossi, who is spending full time monitoring the acceptance test, has been saying lately that the reactor has been running in the “self-sustained” mode a good piece of the time which means that it does not require any outside energy to stimulate the heat-producing reaction.
As has been the case for 25 years, mainstream media coverage of the conference was scarce to non-existent. In addition to his formal address to the conference, Darden who seems to be one of the more knowledgeable people around concerning what it going on in the field, gave a lengthy interview to a blogger. In the interview, Darden revealed that he was funding other cold fusion projects, but did not give any details.
During the interview Darden said primarily that he wants to use this technology to stop global warming and not just to make money from a new source of energy; that he invested millions of his own money in Rossi’s technology only after many tests and careful due diligence; and that he is convinced that Rossi’s or a similar technology will have major impact on the world. He notes that a cheap source of clean energy, which is exactly what cold fusion promises to be, is what mankind needs at this juncture.
Another star of the conference this year was the Russian physicist Parkhomov, who successfully reproduced Rossi’s cold fusion reaction earlier this year and has been sharing the details of his experiments with interested parties all over the world. This has made him a folk hero among those who are hard at work attempting to create still more replications of the reaction.
As could be expected many of the presentations were highly technical, and ranged from new ways of making the cold fusion reaction more reliable to aeronautical applications and even mutating radioactive waste into harmless substances. The Russians, with their ongoing Chernobyl problem, are particularly interest in this aspect of the science.
This conference was notable for it may be the last one to be ignored by the mainstream media. Should the Rossi/Industrial Heat year-long trial of a working commercial reactor be successfully completed by the time the next conference comes around, public and government perception of cold fusion could well have changed markedly. A working commercial scale reactor, which is open for public inspection, will be very difficult for skeptics to deny or ignore.
Next year’s conference will be held in Japan with a subsidiary conference in China. India was also a bidder for the honor. After 25 years, cold fusion looks like it is on a roll.
Newsletter N. 020 – Special issue – April 2015
Editorial: ICCF19 Committee in Italy gives no voice to the Italian Open Research Organization.
Open Power unbelievably anticipates the “move” in the chess game, filing a Patent Application on march 9th, 2015 to protect Open Science against mere business: in prospective, free licenses will be distributed to selected major protagonists.
As inferable from the titles of the interventions allowed to the Congress, numerous “titles” will contribute to confirm the whole mosaic of the Open Power process (e.g. Bazhutov, Biberian, Celani, Goryachev, Gromov, Huang, Li, Parkhomov, Petrucci, and so on).
We would have preferred to expose, share and discuss our work together with the involved researchers, instead of merely communicating. However, luckily, the free circulation of the advanced ideas is guaranteed by the Net, stronger than any obstacle.
Thus, we can now show in advance that, according to the preliminary experiments dealt with in the attached report, the “fig. 2” reactor as conceived in the related Patent Application, does indeed properly work about experimental scopes it was designed for.
-Ugo Abundo Open Power Association
Link to the full text and drawings of the patent Application:
www.hydrobetatron.org CLICK HERE
We have not received a reply to our e-mail request for an explanation sent to ICCF19 at 29/03/2015 below?! Read .pdf here.
We leave to the readers judgment on the matter…
always look: hydrobetatron.org
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Title photo: Japanese Cold Fusion Society Meeting 15 participants.
A new research venture has launched between Tohoku University and Clean Planet Inc. in Japan.
Leading the research team is Dr. Yasuhiro Iwawura, who has left Mitsubishi Heavy Industries, along with Dr. Takehiko Itoh, after years of work demonstrating nuclear transmutations in cold fusion environments, in one case turning Cesium into Praseodymium.
Clean Planet Inc. and The Research Center for Electron Photon Science of Tohoku University agreed to establish the collaborative research division – Condensed
Matter Nuclear Reaction Division at Tohoku University.
In this division, fundamental research on condensed matter nuclear reaction, R&D on energy generation and nuclear waste decontamination will be performed.
The members of the new division consist of researchers of Tohoku University, Clean Planet Inc. and HEAD (Hydrogen Engineering Application & Development Company).
Yasuhiro Iwamura and Takehiko Itoh left the research center of Mitsubishi Heavy Industries at the end of March 2015 to complete the formation of this illustrious team.
This new division is made up of the following members:
• Yasuhiro Iwamura, Jirohta Kasagi and Hidetoshi Kikunaga (Condensed Matter Nuclear Reaction Division, Research Center for Electron Photon Science, Tohoku University, Japan)
• Tadahiko Mizuno (HEAD, Japan)
• Hideki Yoshino, Takehiko Itoh and Masanao Hattori (Clean Planet Inc., Japan)
Hideki Yoshino, the Founder and CEO of Clean Planet Inc, presented results of recent work with Tadahiko Mizuno at the 2014 CF/LANR Colloquium at MIT.
Listen to Replicable Model for Controlled Nuclear Reaction using Metal Nanoparticles [first few minutes of audio missing] [.pdf] [.mp3] [video]
At the conference, Clean Planet showed off their proof of concept reactor which operates at a COP of 1.9 as well as some other reactors being built which are made to operate at the 1kw and 10kw power level. Their reactor is simple and an amazing spectacle to watch. Using normal nickel mesh, they create a brilliant plasma to sputter the surface of the metal, cleaning it and creating surface nanostructures which kick off the Cold Fusion effect. Preparing their material inside of the reactor may solve some of the material consistency issues other commercial groups are struggling with.
They have a well equipped lab with gamma and neutron radiation detection, although they have not seen any consistent hard radiation outside their reactor during excess heat, they have some some occasional bursts.
Clean Planet also presented mass spectroscopy results which confused many scientists and has started a wave of speculation regarding theory. In the mass spectroscopy results, higher masses decreased during excess heat at the expense of lower masses, opposite to what would be expected of fusion events. Clean Planet was quick to point out that these results should be seen as preliminary, their equipment can not separate deuterium and helium so until their outside gas analysis comes back they don’t have solid information.
Japan is in dire need of this technology and has historically been supportive of cold fusion research, we can expect Japan to have a serious presence in the Cold Fusion commercialization race. While Mizuno skyped in, his group was represented at the conference by multiple businessmen, they look to have all the resources they need and attracting funding and talent should not be an issue. This is a company to keep an eye on, they could quickly develop a foothold at the head of this field.
Public-private partnerships have long been a feature of Japanese LENR research, with many academic experimentalists and theoreticians working with industry to both research LENR science and develop applications. Located in Sendai, Miyagi in the Tohoku Region, Japan, Tohoku University is the third oldest Imperial University in Japan.
The Japanese government will provide funding for the nuclear waste decontamination research project named “Reduction and Resource Recycle of High Level Radioactive Wastes with Nuclear Transformation” through the ImPACT Program, a Japanese national research program.
Listen to Yasuhiro Iwamura present an updated version of Deuterium Permeation Induced Transmutation Expt. using Nanostructured Pd/CaO/Pd Multilayer Thin Film at the 2014 CF/LANR Colloquium at MIT. [.pdf] [.mp3] [video]
Mitsubishi Heavy Industries research program, headed by Dr. Yasuhiro Iwamura had some big developments since their last presentation 8 months ago at ICCF18. They are focusing on technology which maximizes transmutation using a gas permeation process, previously reporting that they were able to use the cold fusion effect to transmute cesium to praseodymium, essentially producing a valuable material from a radioactive waste.
While transmutation in this field has been a proven reality, a well funded drive to engineer this effect could lead to enormous advances in many fields of technology. Transmutation could solve both issues with nuclear contamination as well as material scarcity, including exotic isotopes.
A research program at NRL failed to replicate these results. At ICCF18 Dr. David Kidwell spoke the same day as Dr. Iwamura about NRL’s failure to replicate the results, he was overly aggressive and had a very mocking tone, accusing them of improper use of equipment, sloppy work and accidentally spiking samples after apparently finding praseodymium contamination in their lab. While the motives behind the NRL bullying were foggy, they ate crow pie a few months later when Toyoto affiliated labs published results showing that they had replicated the transmutation effects in this experiment.
MHI originally said they used gas permeation through a palladium film ion-implanted with cesium to trigger the effect and transmute the cesium to praseodymium. At MIT, Dr. Iwamura showed new developments in their transmutation research; they started developing modular experiments so they can scale up the device to commercial levels.
Dr. Iwamura revealed that they had began hybrid electrochemical experiments where they are using cesium in a liquid solution. This may not only be more effective due to the known electrochemical methods of triggering the effect, but it will also have engineering benefits such as cooling and scalability.
This is an enormous breakthrough if it can transmute Cesium in a liquid solution at high yields. Considering water contaminated with cesium is the main contamination at Fukushima, this technology could not only clean up the radiation but also generate heat as a side product. The potential here is enormous, not only for Japan, but for the world, and Mitsubishi Heavy Industries is quickly moving forward.
The mission of the new Center is to develop a clean, safe and abundant form of energy for our global community. The transmutation effect of the cold fusion environment offers a chance to clean up the mistakes of the past, as well as begin again with an ultra-green source of power.
Clean Planet also says “We are determined to bring the application models from this division to the market before the Tokyo Olympics in 2020,” and with the team of researchers on board, they just might win that race.