I don't understand why Quantized Inertie, MiHsC, does not seduce...
In fact it is much more in line with curren quantume physics, and relativity theories...
It is a unification theory that explains gravity with quantum effects and relativity, producing a conservation principle that invoice information, making entropy an evidence...
Of course the mechanism are maybe not yet correctly explained...
An just the rotating galaxies, seems best evidence, better than EmDrive...
Experiments are still not decisive... some claim, but some say it is artifact...
Beside that McCulloch seems to hold a good direction, with galaxies supporting him, and that is much more convincing... Future will say.
EmDrive is far less proven than LENR (but more than dark matter)
This kind of problem with variable substrate is no surprise if you are trained in microelectronics... juste trace of a metal (not even isotope) could change all...
Maybe this article by Vitorio Violante can gives ideas?
RF detection and anomalous heat production during electrochemical loading of deuterium in palladium
Sad.
Let's hope his work for a revival of LENR in India will be pursued.
I am sure you noticed this is from 2009.
I'm tired... LOL
Great,
in the description they affirm some great results, and the schematics show something not far from what is done with Dogbones, Mizuno replications, but with carbon nanotubes... If it works as claimed... great...
off topic: About theory, the [0050] paragraph make me think about
* why in hot fusion does the least energetic branch get chosen more often : because it has to be quick ? who can explain why?
* why in LENR does the highest energetic branch, the least radioactive outcomes seems preferred ? my proposal is, as I often said before, inspired by Hydroton theory
-> it is the most stable, the least remaining energy outcome, because something in the NAE have time to decay as low as possible, in small intermediate steps, emiting small quanta (X-Rays as they say in the description?) like uranium have time to decay to lead, like tea have time to reach room temperature after days... in hot fusion, decay have to be direct, fast, fastest, big MeV quantum, ... In cold fusion it seems there is time, that non-radioactive outcome are preferred in Iwamura thinfilm experiments, that He4+24MeV is prefered because there is less energy in He4 than in t+p or He3+n...
Maybe my vision is naïve... This is for me the great question... why are low energy outcome prefered... and with 0050 paragraph remind me also that He4 is the most stable outcome...
I've just seen a change in applicant for a patent application on Graphene induced LENR, from initially Seldon technology
now the patent is applied by "Deuterieum Energetics Limited"
https://deuteriumenergetics.com/
QuoteDeuterium Energetics
PO Box 319 Creston, California, 93432-0319 United States
QuoteDisplay MoreThe Development of NanoConfinement Reactions
Deuterium Energetics is a spinoff of a company that developed water filtration technology using the unique properties of carbon nanotubes (CNTs). CNTs have a unique structure that can be conceptualized by wrapping a one-atom-thick layer of graphite into a seamless cylinder. The graphic on the home page is a schematic depiction of a single-walled CNT. The spheres represent the carbon atoms and the rods the bonds between the carbon atoms.
CNTs can have a diameter of about 1 nanometer (1 ten millionth of a centimeter) with a length up to 132 million times its diameter. CNTs have diameter dimensions at the atomic level so the interaction of CNTs with other materials is not predictable. In addition, at the atomic level, concepts like pressure and temperature are not entirely understood.
Because of the electronic environment created by CNTs, our scientists believed that if deuterium * could be sufficiently confined inside a CNT ** such that some type of energy producing reaction could take place without the temperature and pressure needed for conventional nuclear fusion.
Our research has confirmed that confinement of deuterium in CNTs results in some type of reaction that produces energy.
We believe the reaction is 2D + 2D → 4He + 23.8 MeV.
Maybe does it deserve some more investigation
His book is great, this is the one I always advise first to non scientist, to understand the basics, and the history...
I love this page, it tells the most important...
Anyway each chapter is great.
Great book, one of the 3 I advise always.
So sad.
I hope his archive will be exploited as it deserves.
Regards to his beloved.
LENR – die unendliche und saubere Energie kommt früher als gedacht
LENR - the infinite and clean energy comes earlier than expected
Willi Meinders in conversation with Sabine Weise-Vogt
A video to be analyzed and evaluated by German speaker....
QuoteWilli Meinders im Gespräch mit Sabine Weise-Vogt
Die niedrigenergetische Kernreaktion (LENR) ist eine völlig neue Form der Energieerzeugung: Emissionsfrei, strahlungsfrei, grundlastfähig, Ressourcen-schonend, dezentral und kostengünstiger als alle anderen Energieformen. LENR ist von anerkannten Fachleuten und -Instiutionen bestätigt, vielfach patentiert und repliziert. Die Technologie befindet sich auf dem Wege der Markteinführung. LENR ist eine Energieform deren wesentlicher Ursprung nicht ein Rohstoff ist, sondern vor allem ein bestimmtes Fachwissen. Deshalb lässt sich diese Energiequelle nicht künstlich verknappen und verteuern. Nach Ablauf der diversen Patente in 20 bis 30 Jahren kann Energie somit theoretisch ein „Volksgut“ werden. Die Menschen hätten damit ihr Feuer zurück, so wie es vor Jahrhunderten das selbstverständliche Eigentum jeder Familie war.
An article in IEEE Spectrum that seems tu feature the article on "Lattice Confinment Fusion" that Lawrence Forsley promotes from Nasa GRC...
https://spectrum.ieee.org/ener…usiontokamak-not-included
QuoteBut researchers at NASA’s Glenn Research Center have now demonstrated a method of inducing nuclear fusion without building a massive stellarator or tokamak. In fact, all they needed was a bit of metal, some hydrogen, and an electron accelerator.
The team believes that their method, called lattice confinement fusion, could be a potential new power source for deep space missions. They have published their results in two papers in Physical Review C.
An article in IEEE Spectrum that seems tu feature the article on "Lattice Confinment Fusion" that Lawrence Forsley promotes from Nasa GRC...
https://spectrum.ieee.org/ener…usiontokamak-not-included
QuoteBut researchers at NASA’s Glenn Research Center have now demonstrated a method of inducing nuclear fusion without building a massive stellarator or tokamak. In fact, all they needed was a bit of metal, some hydrogen, and an electron accelerator.
The team believes that their method, called lattice confinement fusion, could be a potential new power source for deep space missions. They have published their results in two papers in Physical Review C.
Discussed here NASA: New Paper about Experimental Progress
Curtis Berlinguette reports articles, exploitinge Cold Fusion experiments (Hydrogen in metal), in non LENR applications, as Pharmacy.
https://www.nature.com/articles/s41929-020-0488-z
QuoteDisplay More
Electrolytic deuteration of unsaturated bonds without using D2
Abstract
Site-selective deuteration of C–H bonds increases the lifetime and efficacy of drug molecules. Although effective methods to form C(sp2)–D bonds are known, processes for making C(sp3)–D bonds often have low site selectivity, require expensive and unrecoverable D2 gas, or use stoichiometric reagents. Here we report cost-efficient and site-selective reductive deuteration using a tandem electrochemical chemical palladium membrane reactor. This architecture mediates the chemical reaction of deuterium atoms (derived from reusable D2O in an electrochemical compartment) with alkynes, aldehydes and imines. The formation of C(sp3)–D and C(sp2)–D bonds in the isolated chemical compartment is made possible by the deuterium-selective permeability of the membrane that partitions the electrochemical compartment from the chemical compartment. We have utilized the reactor for the deuteration step in the construction of a common drug, cinacalcet, to demonstrate that this method can be used to incorporate deuterium atoms in a pharmaceutical.
https://chemistrycommunity.nat…fusion-to-pharmaceuticals
QuoteFrom cold fusion to pharmaceuticals
Revisiting "cold fusion" led us to discover the electrolytic hydrogenation/deuteration reactor that is electrically-driven and uses water as a hydrogen/deuterium source. This technology opens new avenues for using renewable energy to make valuable chemicals, including pharmaceuticals.
Curtis Berlinguette reports articles, exploitinge Cold Fusion experiments (Hydrogen in metal), in non LENR applications, as Pharmacy.
https://www.nature.com/articles/s41929-020-0488-z
QuoteDisplay More
Electrolytic deuteration of unsaturated bonds without using D2
Abstract
Site-selective deuteration of C–H bonds increases the lifetime and efficacy of drug molecules. Although effective methods to form C(sp2)–D bonds are known, processes for making C(sp3)–D bonds often have low site selectivity, require expensive and unrecoverable D2 gas, or use stoichiometric reagents. Here we report cost-efficient and site-selective reductive deuteration using a tandem electrochemical chemical palladium membrane reactor. This architecture mediates the chemical reaction of deuterium atoms (derived from reusable D2O in an electrochemical compartment) with alkynes, aldehydes and imines. The formation of C(sp3)–D and C(sp2)–D bonds in the isolated chemical compartment is made possible by the deuterium-selective permeability of the membrane that partitions the electrochemical compartment from the chemical compartment. We have utilized the reactor for the deuteration step in the construction of a common drug, cinacalcet, to demonstrate that this method can be used to incorporate deuterium atoms in a pharmaceutical.
https://chemistrycommunity.nat…fusion-to-pharmaceuticals
QuoteFrom cold fusion to pharmaceuticals
Revisiting "cold fusion" led us to discover the electrolytic hydrogenation/deuteration reactor that is electrically-driven and uses water as a hydrogen/deuterium source. This technology opens new avenues for using renewable energy to make valuable chemicals, including pharmaceuticals.
Discussed here Google (UBC/MIT/LBNL) post Nature updates.
Very interesting, and I can't stress enough how much I would love to attend, but if the seats are limited, I will pass the chance onto someone that is in better position to make the most of attending this, I hope someone manages to record it tho, to be able to watch it later.
Same point, I'm not so helpful...
The record will be a cool thing...
So Clean HME is sold as solar to hydrogen ?
From Russian LENR site
http://lenr.seplm.ru/articles/…e-palladium-superhydrides
An interesting article under review, letting possibility to have superhydrides...
Here is the author(s) page
https://www.researchgate.net/p…e_palladium_superhydrides
and the Arxiv version
https://arxiv.org/abs/2007.15613
QuoteCombining pressure and electrochemistry to synthesize palladium superhydrides
Pin-Wen Guan, Russell J. Hemley, Venkatasubramanian Viswanathan
Palladium-hydrogen is a widely-studied material system with the highest hydride phase being Pd3H4. Recently, superhydrides (MHn with n>6) have been computationally identified and synthesized with rare-earth and early transition metals under pressure. In this work, we evaluate the possibility of electrochemically synthesizing palladium superhydrides together with applied pressure. We perform a computational search for palladium superhydrides using density functional theory calculations and particle swarm optimization over a broad range of pressures and electrode potentials. We incorporate exchange-correlation functional uncertainty using the Bayesian error estimation formalism to quantify the uncertainty associated with the identified stable phases. Based on a thermodynamic analysis, we construct a pressure-potential phase diagram that provides an alternate route to accessing novel Pd-H phases having high hydrogen content. Most strikingly, at potentials above hydrogen evolution and ∼200 MPa pressure, we find the possibility to make palladium superhydrides (e.g., PdH10). As palladium is among the most active hydrogen evolution electrocatalysts, a similar strategy is likely to work for electrochemical synthesis of other metal superhydrides at modest pressures.
Maybe some ideas to design Pd sponges... I cannot judge
https://www.ingentaconnect.com…0000020/00000012/art00013
Quote
A unique nanostructured electrocatalyst based on Palladium (Pd) nanosponge architecture is synthesized by one-step dealloying of the amorphous alloy precursor with low Pd concentration. The sponge-like nanostructure with hollow interiors enables sufficient contact between reactants andboth the interior and exterior surfaces.
