Joi Scientific is back, at least in the sense that matters for companies built around stories. The website is live again. The company is issuing press releases again. The language has been refreshed. A new patent family has been published. Advisors and physicists are being named. A Florida corporate shell has been reinstated. On the surface, that can look like a dormant breakthrough returning after a long gestation. In practice, the public record points to something else. This is not a new company with a new invention. It is the latest iteration of a hydrogen narrative that has been circulating for roughly 18 years, passing through multiple corporate wrappers, changing its vocabulary as older claims became harder to defend, while a small core of people and ideas remained in place. In 2017, I had already looked closely at Joi Scientific and decided it was not worth amplifying as another fringe hydrogen claim unless it crossed into the realm of public consequence. When CBC broke the story of NB Power’s investment, that threshold had clearly been crossed. In my CleanTechnica piece, Joi Scientific’s Perpetual Hydrogen Illusion Comes Tumbling Down, I made clear that the company’s claims did not withstand basic thermodynamic scrutiny and that the patents and public statements were packed with red flags. Claims of 2-4x energy return, a standard over unity nonsense claim combined with changing the distance between atoms with resonance were clearly technobabble. As I published at the time, if there claims were reproducible, more than one Nobel Prize was in the offing. No Nobel Prizes have been considered, never mind granted. I treated it not as a breakthrough being unfairly ignored, but as a familiar example of technical storytelling outpacing science, one that had now drawn in public money and public institutions. Since then, I have continued to use Joi as a cautionary reference point in broader writing about cleantech fraud signals and impossible energy claims. The company became, for me, one of the cleaner examples of how hydrogen hype can be wrapped in patents, jargon, and credibility theater without ever producing the transparent evidence required for extraordinary claims. That is part of why the current Joi revival deserves to be framed not as a fresh start, but as the return of a story I examined years ago and chose not to elevate further until CBC’s reporting made it a matter of public record and public accountability. The best way to understand Joi is not to start with its current marketing, but to track the patent and people trail back to the beginning. The earliest identifiable hydrogen patent in the lineage appears in 2008 through Sandbox Energy Systems. That patent was for cavitation-assisted sonochemical hydrogen production. It carried a conventional disclaimer that matters a great deal in hindsight. The inventors said clearly that the system was not a perpetual energy device and that outside energy still had to be supplied. In other words, at the start of the chain, the technical language was unusual but still anchored to standard thermodynamics. The inventors were not yet claiming that clever circuitry or fluid dynamics could create more chemical energy than the electrical system supplied. From there the trail moves into Molecular Power Systems, or MPS, where several of the same threads tighten together. James Kirchoff appears in the early patent history and is one of the most persistent names across the broader network of inventions and entities. Robert Koeneman appears as well, becoming the one of more durable constants in the story. Public startup profiles and patent assignments suggest that MPS was the bridge between the earliest cavitation-and-hydrogen work and the later Joi Scientific branding. If someone wants to know whether the current Joi reboot is connected to the old story, the answer is yes. The continuity is not vague. It is documented in patent filings, inventorship, assignments, and repeated names across different corporations. Kirchoff is important because he appears closest to the root of the lineage, but not in the way readers might expect from a deep-tech founder. The public record points to James Alton Kirchoff of Arizona, a lawyer with University of Arizona degrees, including a law degree in 2006, who also shows up as an inventor on a range of patents. Before the hydrogen chain, he appears in document-authentication and spectroscopy work associated with Wizard of Ink and Opto-Forensic Technologies. That matters because it suggests a pattern. This was not a straight line of laboratory research by electrochemists or plasma physicists who spent decades refining one domain-specific insight. It looks more like a small network operating at the intersection of intellectual property, commercialization, and technical storytelling, with Kirchoff sitting near the center early on. Koeneman is the person who persists most clearly from the MPS phase into the present-day Joi Scientific. In current Joi materials he is described as President and CEO, and more importantly as the inventor and primary investigator behind the technology. That is a revealing description because it makes him hard to dismiss as a hired executive brought in later. He has been in the core of the technical narrative for years. If the patents are the spine of this story, Koeneman is the vertebra that keeps recurring. The present company is not hiding that. It is advertising it. Traver Kennedy enters as the public builder of the Joi era. If Kirchoff is close to the origin of the patent lineage and Koeneman is the durable technical constant, Kennedy is the public narrator and commercialization driver during the company’s growth period. He shows up in the Joi patent family, in public interviews, in fundraising documents, and in company storytelling. He is the person most associated with turning a technical claim set into a marketable promise. That distinction matters. Technologies do not become public scandals or public dreams on patents alone. They need executives who can translate strange technical language into investment narratives, government proposals, and partnership announcements. Bill McGill arrives later and plays a different role. He was not the originator of the story, and the record does not suggest he was the source of the original hydrogen claims. He appears to have been a validator from the marine world. He had real credentials, a mechanical engineering degree, a long career at MarineMax, and the kind of public-company credibility that startups crave. Public filings show him joining Joi’s board in 2016, before the technology’s marine push became highly visible. MarineMax later secured rights around marine applications. McGill’s role was not to invent the scheme. It was to provide a respectable institutional bridge into boating and propulsion. That is often how these stories get stronger. They stop looking like fringe inventions and start looking like emerging technologies because someone with a real resume joins the table. Al Wenstrand is another long-duration figure worth noting. Current Joi materials say he has been involved in the labs since 2010. Florida records and current company materials keep the Wenstrand name in the structure. That matters for the same reason Koeneman matters. It shows continuity. The current Joi is not a clean reboot by outsiders who bought some abandoned patents and are trying one last time. The personnel continuity suggests a recurring nucleus. If the people story is one half of the pattern, the claims story is the other half. The claims did not stay constant. They evolved in a way that tells its own story. In the Sandbox phase, the language was unconventional but bounded. The inventors were not claiming 2x or 4x energy return. They were not claiming that molecular rotations changed bond distances to unlock surplus energy. They were not leaning on quantum branding. The patents were trying to sound inventive while still staying inside the lines of known physics. That changed in the core Joi Scientific patent era. By the time the company’s US9816190B2 patent was published, the language had become much more aggressive. The patent described 1 watt of electrical input yielding 2 watts in the form of hydrogen gas. It said efficiencies greater than 3 had been achieved. In plain language, that is 200% to 300% energy return, and other discussions around the company pushed the implication closer to 400%. There is no acceptable electrochemical interpretation of those numbers if electricity is the only energy input. If a device is splitting water and producing hydrogen with a chemical energy content 2x or 4x the electrical energy supplied, then either there is a major external energy input being counted elsewhere or the claim violates the first law of thermodynamics. That patent family also contained some of the most a-scientific explanatory language in the entire history of the enterprise. It suggested that pulsed fields induced rotations that caused nano-scale distances between atoms to increase and decrease, weakening bonds and making hydrogen easier to liberate. This was not how serious electrochemistry is described. Water molecules do have known bond lengths, rotational states, and vibrational modes. None of that licenses free-form storytelling about low-voltage pulsed systems stretching atomic distances in a way that turns an energy-intensive chemical reaction into a low-energy one. The patent was doing what speculative technical writing often does. It borrowed pieces of real physical vocabulary and arranged them into a narrative that sounded sophisticated to non-specialists while failing the basic test of quantified mechanism. The same patent family leaned heavily on feedback and return-load circuits. Returning voltages from the chamber were processed and sent back into the chamber. Fluid motion allegedly yielded additional measurable energy. The rhetoric was familiar to anyone who has watched perpetual motion and over-unity claims over the years. The exact packaging varies, but the story is often the same. There is always a clever subsystem that captures energy others ignore, a hidden efficiency that turns losses into gains, a resonance that unlocks more than conventional engineers can see. In legitimate engineering, recovering stored energy from reactive circuits is real. It can improve system efficiency at the margins. But it does not create net new chemical energy. It does not change the fact that water splitting has a minimum thermodynamic requirement. That matters because the minimum numbers are not controversial. The reversible voltage for water splitting at standard conditions is 1.23 V. The thermoneutral voltage is around 1.48 V when electricity is the only input. Ideal electrolysis on a higher heating value basis is about 39.4 kWh per kg of hydrogen. Real systems tend to land closer to 50 kWh per kg, sometimes more, because actual devices have overpotentials, heat losses, gas crossover, degradation, and balance-of-plant demands. Those are not hostile numbers chosen by critics. They are the standard frame for the field. Any company claiming a radical improvement needs to publish a full energy balance, gas composition, and durability profile. Joi did not do that in any public way that justified its claims. The New Brunswick episode brought the story out of patent language and into public money. NB Power and the province committed about C$23 million to the company in the belief that it had a promising hydrogen technology with commercial potential. At the time, the allure was obvious. If a company really could produce hydrogen from seawater or low-grade water feedstock at extraordinary efficiency, the implications would be large. Utilities, provinces, ports, and industrial users would all want a seat at that table. But moonshot logic is not a substitute for diligence. A technology making claims that challenge basic energy accounting requires more skepticism, not less. By late 2019 that relationship had collapsed. Public reporting indicated that the project was discontinued after technical review found inconsistencies in the company’s claims and energy calculations. In policy terms, the New Brunswick experience should have been a cautionary tale about how small public institutions can be drawn into grand energy stories because the upside sounds transformative and the scientific diligence is treated as secondary. $23 million is not trivial. It is not a rounding error. For a provincial utility and its ratepayers, it is real money, and it was attached to a technology whose core claims should have been subjected to relentless scrutiny before checks were cut. The Cape Canaveral and marine chapter served a different purpose. It gave Joi a geography of credibility. Cape Canaveral evokes aerospace seriousness. MarineMax brought a public-company partner with an established business. The combination made the company look less like an odd Florida hydrogen startup and more like a commercial technology on the edge of deployment. That appearance mattered. Companies like Joi do not need immediate market dominance to survive. They need enough institutional endorsement to keep the next conversation alive. A utility here, a marine partner there, a press release about testing, an executive quote about progress, and a patent publication are often enough to keep a speculative narrative in motion. In the current Joi reboot, I have not found any publicly disclosed sales or licensing agreement comparable to the earlier NB Power or MarineMax arrangements. The company is talking about commercialization, advisors, and product development, but not naming a customer, licensee, or signed deployment partner. One of the most telling elements in the current Joi revival is not what the company says, but what it no longer says. The overt 200% and 300% energy claims from the older patent era are not front and center in the 2024 patent family or the 2026 website language. The molecular-rotation and nano-scale bond-distance story is gone. That is significant. It suggests that the company or its advisers recognized how exposed those claims were. But the retreat is not a scientific correction. It is a rhetorical adaptation. Instead of explicit over-unity language, the new materials rely on a different vocabulary. Now the phrases are plasma-driven hydrogen production, electromagnetic resonance, nonlinear plasma dynamics, quantum-informed material designs, and Quantum Electron Disassociation. This is a familiar move in weak technical narratives. When one set of claims becomes embarrassing, the next round becomes less explicit and more difficult to pin down. The numbers recede. The adjectives multiply. The mechanism is described in broad prestige terms borrowed from modern physics and advanced materials science. The result is a public story that sounds more current and less vulnerable while still avoiding the one thing that matters, a complete and independently verified accounting of energy in, products out, unwanted byproducts, and equipment durability. The new patent family still carries important red flags. It speaks of pulsed DC, reactive circuits, nonthermal plasma, tungsten elements, blocked return signals, and return energy reflection. It says return signals from the chamber can be re-energized to improve performance. A gas analyzer and control system are included. That may sound more disciplined than the older patent, but the core implication remains. Clever circuitry and chamber dynamics are still being positioned as the source of a meaningful performance leap. Yet there is still no public evidence of the kind that would settle the issue. No transparent kWh per kg from feedwater to hydrogen. No full breakdown of gas composition from raw seawater operation. No demonstrated management of chlorine-containing byproducts under realistic conditions. No long-duration electrode-life data that would matter commercially. The seawater claim deserves special attention because it remains one of Joi’s most marketable misdirects. The company frames itself as a solution to hydrogen being expensive, water-limited, and infrastructure-dependent. It presents direct saltwater or greywater hydrogen production as if it solves a major bottleneck. But in the economics and energy math of hydrogen, desalination is a minor issue compared with electrolysis itself. Reverse osmosis desalination of seawater is on the order of 3.6 kWh per cubic meter. Producing 1 kg of hydrogen typically requires about 9 liters of pure water stoichiometrically and around 15 to 20 liters in practical system terms. At 20 liters, desalination adds about 0.07 kWh per kg of hydrogen. Compare that to roughly 50 kWh per kg for electrolysis. The desalination step is around 0.14% of the total energy. Even if the water were polished further for electrolysis-grade purity, the added cost and energy remain small compared with the main electrochemical lift. That means direct seawater electrolysis is not a value proposition by default. It is a niche systems-integration idea looking for an application. The big problem in green hydrogen is not that desalination is too expensive. The big problem is that hydrogen takes a lot of electricity to make, compression and storage add more cost, and end-use economics are poor in many sectors compared with direct electrification. A company pitching direct seawater splitting as a central cost breakthrough is choosing the smallest part of the problem and inflating it into the headline. The chemistry makes the story worse, not better. Seawater is not just water with a little salt in it. It contains chloride ions, magnesium, calcium, sulfate, and a host of impurities. In electrolysis, chloride competes with oxygen evolution and can generate chlorine or hypochlorite species. Those are corrosive, hazardous, and operationally problematic. Minerals can foul surfaces, raise overpotentials, and shorten equipment life. The current Joi patent admits indirectly that unwanted side reactions such as chlorine gas and hypochlorites are a concern to be avoided. That is not a side note. It is the hard part of direct seawater electrolysis. If a company says it can use raw or lightly filtered seawater at ambient conditions while avoiding these pathways, the burden of proof is high. Very high. This is where the company’s current public materials remain weak. They use scientific-sounding language but avoid decisive measurements. If Joi had solved the seawater problem, there would be no reason to hide behind branding phrases. The company could publish a clear table. Feedwater salinity. Voltage and current. kWh per kg of hydrogen. Hydrogen purity. Oxygen yield. Chlorine and hypochlorite levels. Electrode degradation after 1,000 hours, 5,000 hours, 10,000 hours. Maintenance intervals. Stack or chamber replacement costs. Instead, the public story emphasizes breakthrough language and named experts. The expert-story layer in the current reboot is not irrelevant. It tells us how the company is trying to restore credibility. A physicist has been brought into the orbit. Advisors are listed. McGill remains engaged. Koeneman remains central. The Florida entity has been reinstated. Patents are being prosecuted. Someone is paying filing fees, legal fees, and at least a modest burn rate for staff and promotion. That does not prove there is a large new financing round. It does prove the story still has enough financial support to keep itself alive. And that gets to the hard question readers should ask. If this has been going on in one form or another since 2008, why is it still alive? The answer is not that the company has delivered market-transforming results and the world has failed to notice. The public record does not support that. There is no visible commercial fleet running on the technology. There is no utility-scale hydrogen program anchored in verified Joi performance. There is no public customer base that would explain a stable operating business. Instead, the pattern is consistent with something else. This has functioned as a recurring commercialization effort built around a technical story that changes shape when challenged, keeps enough continuity to preserve its identity, and seeks fresh credibility and funding without resolving the evidentiary deficits at its core. Careful wording matters here. Calling something a scam is a claim about intent, and intent is hard to prove from public documents alone. But public documents can show patterns. They can show continuity of people, continuity of claims, changes in rhetoric, failures of validation, repeated searches for capital and partners, and the absence of independent proof after many years. On that basis, Joi’s rebirth reads less like a scientific return and more like another pass through a familiar cycle. The technology story is repackaged. The institutional wrappers are refreshed. The language evolves from cavitation to reactive circuits to plasma and quantum branding. The company asks for attention and, one assumes, money, before producing the level of evidence that extraordinary claims require. That is why the patent timeline matters so much. Without it, readers might treat the 2026 revival as an isolated event. With it, the structure becomes visible. The original patents stayed closer to ordinary thermodynamics. The Joi-era patents pushed into direct over-unity territory. The New Brunswick period translated those claims into public spending and public embarrassment. The current era has backed away from explicit impossibilities while preserving the core suggestion of exceptional performance through obscure mechanisms. The claims ebb and flow, but the commercial pattern remains. The people timeline matters for the same reason. Kirchoff appears near the beginning of the hydrogen patent trail and persists through the iterations. Koeneman runs through the middle and into the present. Kennedy is central during the period when the story is most aggressively sold. McGill arrives later, lending marine-industry legitimacy and staying involved into the current revival. Wenstrand is present over long stretches as an internal operator. That is not the pattern of a failed scientific idea being abandoned and rediscovered by outsiders. It is the pattern of a durable network carrying a mutable story across years. Readers should also remember the amount of time involved. This is not a three-year detour. From the 2008 patent to the 2026 reboot is about 18 years. If one counts the broader Kirchoff inventor history outside hydrogen, the relevant network stretches back about 30 years. In technology terms, 18 years is long enough to move from laboratory curiosity to meaningful commercial foothold if the underlying science is sound and the economics work. In clean energy, that timeline has been enough for lithium-ion batteries to move from expensive specialty products to backbone storage assets, for solar module prices to collapse by more than 80%, and for heat pumps to become standard equipment in entire national markets. When a hydrogen technology remains stuck in patents, narrative shifts, and credibility campaigns over that length of time, the burden of skepticism rises, not falls. There is also a lesson here about how technical nonsense ages. It rarely survives by repeating the same mistake word for word. It survives by learning. The old Joi patent family was too explicit. Claiming 200% or 300% efficiency invited direct thermodynamic criticism. Talking about nano-scale atomic distance changes and additional measurable energy from fluid motion invited mockery from chemists and physicists. The new round is more careful. It uses words that sound advanced but are harder to falsify from a homepage. That does not make the claims stronger. It makes the presentation more adaptive. For anyone evaluating the current company, the right questions are simple. What is the full system electricity consumption in kWh per kg of hydrogen for the current device under standard operating conditions? What is the complete product gas composition when raw seawater is used, including chlorine-containing species? What is the feedwater specification? What are the electrode or chamber replacement intervals? What third-party laboratory or customer has replicated the results? What commercial customer is paying for hydrogen produced by the system today? If clear answers are absent, then the scientific gloss should be treated as gloss. Joi Scientific’s rebirth is interesting because it compresses many pathologies of the hydrogen hype cycle into one case. It has patents. It has executives. It has advisors. It has a utility cautionary tale. It has a marine commercialization detour. It has prestige language from physics and chemistry. It has a direct-seawater pitch that sounds important until one does the arithmetic. It has continuity across nearly two decades. And it still lacks the transparent evidence that would be required to turn its claims from narrative into knowledge. The right way to describe it is not as an unexplained mystery. It is a long-running commercial story whose scientific claims have changed shape as criticism closed in, while the people, patents, and money-seeking behavior show notable continuity. That does not prove criminal intent. It does make one conclusion hard to avoid. The 2026 version of Joi is not a fresh start. It is another iteration of a long-lived hydrogen monetization scheme that has repeatedly adapted its language without delivering a commensurate standard of proof.
Liked by Nicole Young, Madeleine Lewis
Liked by Nicole Young, Madeleine Lewis
Liked by Nicole Young, Madeleine Lewis
