C/M Linear Powercurve
C/M LINEAR POWERCURVE
Sydney Nicola Bennett's Theory on Axel-Based Regenerative Kinetics "rehenerative ah"
As you start accelerating the faster you go the more Energy you earn direct for a Motor
LINEAR PERPETUAL MOTION CONCEPT
With this. A compact Battery's Energy stored gets you moving & as you begin moving you generate Energy which then increases in linear output for Motor Speed - Force + Torque
This is one Battery - Less Reliant Approach
Linear Energy Gains
Resistance. Forward. Uphill. Downhill. Weight. Payload - Towing
IN SIMPLE FORM
As I push down the accelerator pedal. Energy is slowly generated which replenishishes the compact Battery
Energy gained begins increasing & direct to Motor Energy is transferred
This is a linear connection creating direct Energy Perpetual Motion
Now if you learn H.I.3 you will understand how to put together best options in use for to acheive
THIS CONCEPT WORKS YET. ITS A CONUNDRUM
Most areas of achieved scalable Perpetual & Perpetual Metered Motion
International Patents - Copyright - Trademark
Held with S.B.G - CIG for Alliance Partners involved in the Emergency Safety System in 100-170 of 195 countries
Action Jackson Mosern wants a cut in exchange for security we didnt ask fir. Rico-Racketeers. We then hang im up bt the balls hooked up to a wBCI & make a globample of fu*k you!
Hooked up by ones arsehole! Racket-ball elsewhere uh
When a good draft does its bidding for Upper heirarchies. A job slot. See. Thats all. Thats it.
End of an era. Yeah. Hung by the balls. See
Classics Bennett Elite. Bennett Heirarchy. Yeah.
LESS USA RELIANCE + MORE UK - COMMONWEALTH & INTERNATIONAL
Arry of. Crippling legitimate & underworld staged cliques in grids designed to sabotage & infiltrade to cripple economic activity
This creates need. Them through connected parties in secret they move in legitimately offering relief & you rely on them on their terms not yours. Control. USA does this to Canada & other countries
They have to. To try. National debt & quality of life. American first. International deals bought back to & for Americans in all ways good - bad
Intelligence is a dirty world
Spying through the eyeballs using wBCI's again?
Unsuspectimg Johnny too good assh*le knows or doesn't. See. Unmanned or manned wireless
Uh on the screen it says & sees like that so. Uh.
Thoughts. Memory. Imagine. Live sight & senses
At ease. Otherwise. Civilian. Stand tall!
Ant-Farm Tunnel Boring
CYPRESS MOTORS CYPRESS MOTOR SPORTS
AMMONNIA
As important as Bumbles. Bumble Bees for pollination. To sustain the global biological landscape. Net Zero Zero Emissions Ammonia
The key building blocks to a larger structural global agenda. Ammonia. Hydrogen. Pollination
Those three & umbrellas within create our grid with global Water Management. This is the plan while small batches of may do not accumulate a larger global transitionary effect to manage Earth & preserve biological life within
GREEN AMMONIA PRODUCTION
Ammonia is one of the most important chemicals produced in the world, ranking second only to sulfuric acid in the total volume produced each year. It is used mostly to make fertilizer, which is essential to feeding the world's population. Yet its production accounts for up to 2% of the world's energy consumption and about 1.5% of greenhouse gas emissions, so the search has been underway for ways to produce ammonia more sustainably.
The traditional way of making ammonia, in use for more than a century and accounting for the vast majority of production, is the Haber–Bosch process, which relies on fossil fuels to provide the needed heat. Hydrogen used in the process is also largely produced from fossil fuels.
There is another way, using electrochemistry instead of heat and pressure, but so far this method has not been anywhere near economically competitive at the scales needed.
Now, researchers at MIT have developed a way to predict which materials could be most promising as catalysts in electrochemical ammonia production. Catalysts help drive chemical reactions, and their properties determine how efficiently those reactions proceed. Rather than using trial and error to test each possible combination out of the millions of possible alloys—which can take years—the new approach could greatly speed up the search for materials that could make this low-emissions method competitive with the Haber–Bosch process.
"Our approach identifies the key physical properties that drive catalytic activity in ammonia production," says Bilge Yildiz, the Breen M. Kerr Professor in the departments of Nuclear Science and Engineering and Materials Science and Engineering (DMSE). The results can guide the search for new and more effective catalyst compounds.
The open-access findings were published
Aug. 11 in the Royal Society of Chemistry journalEES Catalysis, in a paper by Yildiz and doctoral students Constantine Athanitis of DMSE and Filip Grajkowski of the Department of Chemistry.
Using DFT on rocksalt transition metal nitrides, we identify electronic descriptors based on N2p–Md band hybridization that predict nitrogen reduction reaction energetics, revealing a band theory for efficient electrochemical ammonia catalysts. Credit:EES Catalysis(2026). DOI: 10.1039/d6ey00138f
The challenge of greener ammonia
As the world's population grows, Athanitis says, "we're just going to need more and more food, and the only reason we're able to sustain so many people is because of fertilizer." But more than 90% of the ammonia needed for fertilizer is still made by that energy-intensive Haber–Bosch process, which "has been hyper-optimized since it first came out more than a century ago," he says.
"If we're trying to keep in line with society's sustainability and energy targets and climate change targets, we really need to come up with another alternative," he explains. The world currently uses about 200 million metric tons of ammonia each year, "so ideally we want to be able to find a way to produce the same amount of ammonia, or even more, but in a more energy-efficient way and also with lower CO2 emissions," he says.
Using electricity to produce ammonia is not a new idea. "It's really just the electrochemical reaction between proton-electron pairs and nitrogen gas. And these technologies exist," he says. The approach uses the same basic principles as electrolyzers, which use electricity to drive chemical reactions in devices.
But while the process works, it's not efficient enough for industrial-scale production. "Production rates and yields are still too low," Athanitis says. "Even though a technology might be better for the world or for the climate, companies and capitalism won't really allow it unless it's cost competitive."
How to make it more competitive?
The key ingredient in the electrochemical process is a metallic catalyst, whose properties govern the reaction that takes place on its surface. "If we can somehow find a catalyst that reduces the energy needed and is more selective for ammonia production," Athanitis says, "then we could essentially hit the jackpot." A more selective catalyst would produce more ammonia while reducing unwanted side reactions.
Finding better catalysts
But finding that ideal catalyst is not simply a matter of identifying one perfect material. Different materials can improve different parts of the reaction, and researchers are seeking combinations that can make ammonia production efficient, affordable and practical at large scale.
"Metal nitride compounds make an ideal material system for this reaction and for identifying the electronic, chemical and structural properties that determine reactivity in nitrogen reduction and ammonia electrosynthesis," Yildiz says.
Transition metals could form promising nitride alloys for this purpose, and historically, "materials research has been pretty much trial and error," Athanitis says.
The usual process is to take some existing material and "tweak it in some way," he says. "It's all somewhat guided by scientific and chemical intuition."
Now, increasingly, computational tools are being used to model the physical interactions and predict outcomes. A method called density functional theory uses quantum mechanics to simulate the properties and behavior of materials, allowing researchers to predict how different atomic arrangements may perform before making them in the lab. Rather than searching randomly through every possible alloy combination, Yildiz says, "we first assessed what microscopic properties of the material make them tick for nitrogen reduction."
For ammonia-producing catalysts, "we're looking at transition metal nitrides," Athanitis says, because they have been found to be effective in these electrochemical nitrogen reactions. They are especially effective because "the nitrogen inherent to the catalyst itself becomes part of the reaction."
This produces a series of chemical steps in which one step provides part of the energy needed to drive the next, reducing the amount of input energy needed. This helps solve one of the major bottlenecks in the nitrogen reduction reaction: the high energy required to break the strong bonds in nitrogen molecules, he says.
But the process is far from perfect, Athanitis says. It is "still limited by certain steps throughout the reaction pathway, including nitrogen dissociation and hydrogen transfer." The study attempted to identify those bottlenecks and, with the help of machine learning, determine which alloys of these metals might overcome them.
With that understanding, "it can give us insights and open up potential strategies for how we can tune these materials to create next-generation better nitride catalysts," Athanitis says.
Pushing past theory
Pushing past theory
The approach is "exciting work" that could help develop a foundation for designing new catalysts for ammonia production, says Dane Morgan, a professor of engineering at the University of Wisconsin who was not involved in this study.
"This work helps clarify how fundamental electronic properties of a material relate to its role as a catalyst in making ammonia," Morgan says. "Such understanding can help guide researchers in designing new catalysts, both through better qualitative understanding and by accelerating computational screening."
So far, the study is purely theoretical: The researchers have used computer models to identify promising alloys, but those materials still need to be made and tested. Morgan notes that "translating these calculations into practical catalysts will require many additional steps, so meaningful real-world impact is likely still some distance away."
The next step will be to build a working reaction cell, a laboratory device that uses the catalyst to produce ammonia and test its performance under real operating conditions. "For this to really make an impact in society, we need to bring it to the experimental lab," Athanitis says.
"There have always been pushes at the frontiers of what's possible," he adds. "We like to think we've pushed the boundary of candidate materials here beyond what was thought of before, and hopefully we're almost there. But even if we're not almost there, we're still pushing in the right direction."
Phys.org has advertising revenue. We understand this yet for H.I.3 it is approved for review based on priority on a larger global agenda. Lower priority sees a privet & URL link while larger priority could see 75-100% access with link as we are establishing a global agenda & grid change for Net Zero & for efforts sustaining animal, insect & mammal alongside ocean - sea salt & fresh water with the water cycle & 10 Billion as a human population in effective structured tiers
https://phys.org/news/2026-08-catalysts-fossil-fueled-ammonia-production.html
https://phys.org/news/2026-08-catalysts-fossil-fueled-ammonia-production.html
Gen-eve - E (Geneve) Samson-Oconner. Montreal born - raised took over for Dr Mary Koslov & Michael Persinger at K.T UN Neuro-Labs of Alpha Health connected to S.B.G - CIG
Managing rooted & non-rooted life concerns & the consumption cycle
https://www.hydrogeninsight.com/industrial/us-redirects-500m-biden-era-grant-for-hydrogen-based-green-steel-to-coal-blast-furnace/2-1-2033167
Working Bounce-Back Energy. Motion gains
SYDNEY NICOLA BENNETT. UN FRAMEWORK
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