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Follow-up Q03: can resonant anomalous dispersion lower the binding energy of water for electrolysis?

Date: 2026-10-06. Follow-up investigator (STEP F). Web time: about 5 minutes (Chrome, Google; timer 1791343321 to 1791343613). Stopped early: the question was answered at the level the public record allows (what Kassner wrote, what later work exists, and how the energy books balance). One new tab, closed at the end; no file downloaded.

The question

"Could resonant anomalous dispersion lower the binding energy of water? For example, could the Ternion technique (irradiating a substance at its natural frequency, in its anomalous-dispersion band) weaken the bonds in water, either the hydrogen bonds between molecules or the O-H bonds within them, enough to make splitting water by electrolysis more economical? What did Kassner and Ternion write on this, and what later work exists on RF- or microwave-assisted electrolysis and resonant weakening of water's bonds?" [Bears on claim 11: the arbiter rates RF-assisted electrolysis as a rate effect Plausible, untested, with the RF power counted as input.]

What Kassner and Ternion wrote

Kassner never wrote about electrolysis, water splitting or bond energies. A full-text search of every Kassner/Ternion text in _text/ (GB417501, US2089966, the French and British apparatus patents, the Vibranic lamp patents) finds no "electrolysis", "dissociation of water", "binding energy" or "bond". The arbiter (claim 11) and primer (Section 4, point 1) already record this [read: grep of _text/; arbiter.md claim 11; primer.md]. What he did write that bears on the question:

  • Water's band. "Friction dispersion ... With water for example ... a band of anomalous dispersion at a wave length of about 1.5 centimetres", explained "theoretically ... by Debye"; the band can be shifted by changing "the internal friction, i.e. by alteration of the concentration and/or temperature" [read: GB417501 p.2]. Elsewhere the same patent gives "chemically pure water which lies at a wavelength of about 1.28 centimetre" [read: GB417501 p.4] and "1.28 cms" as the frequency "characteristic of water" [read: GB417501 p.10]. So Kassner's natural frequency of water is its Debye (rotational relaxation) band, not a vibration of the O-H bond or of the hydrogen bond.
  • Chemistry. "Purely chemical reactions can also be enforced which otherwise only proceed under the influence of heat or of catalysts" [read: GB417501 p.4], with examples on p.5: isoprene to a rubber-like polymer, vulcanisation, Bakelite A and B to C, faster drying of varnishes, and "acetylene combines with water to form acetaldehyde" [read: GB417501 p.5]. This is the closest Kassner comes to the question: a claim that resonant fields can replace heat or a catalyst in driving reactions. It is a rate claim (reactions that "otherwise only proceed" with heat), not a claim that a reaction's energy requirement falls. No yield, energy or control is given for any of these.
  • Heat. "The object of the present invention, however, is not to produce a rise of temperature" [read: GB417501 p.6].
  • Energy accounting. Kassner's own frame is that the irradiated substance becomes "richer in energy" (claim 2) [read: claims.md claim 2]: energy goes in from the field. That is the opposite of a weakened bond that releases or saves energy.

The bond-strength and electrolysis ideas come from an essay in the project folder: "if covalent binding energy can be momentarily reduced in water during electrolysis, it may be recombined (e.g., burned) in another part of the machine economically generating electric power" [read: _text/high-freq-effects-on-materials-17-da3e1d.txt p.1]. Morray-TH note 12 (a secondary AI analysis) extends it [read: arbiter.md claim 11].

What was searched (Chrome, Google unless noted)

  1. microwave assisted water electrolysis hydrogen production efficiency - positive.
  2. Serra 2020 Nature Energy "Hydrogen production via microwave-induced water splitting at low temperature" abstract; then the RePEc and Nature article pages - positive.
  3. Roy Rao Kanzius 2008 "radiofrequency" salt water hydrogen bonds Materials Research Innovations; then the i-sis.org.uk article - positive.
  4. organicdesign.nz Burning_salt_water Roy 2008 pdf - the PDF link did not open in the tab (no download made).
  5. Kanzius burning salt water energy balance more energy in than out explanation - positive (snippets); Chemistry World (Philip Ball, 26 Mar 2008): "Permission denied" for page reading in the extension, recorded as blocked; C&EN article: error page.
  6. "microwave-enhanced electrochemistry" Compton Marken thermal effect hydrogen evolution - partial (titles and snippets only; result links did not open).
  7. Marken 2008 "in situ microwave heating" electrochemistry review abstract superheating mass transport - partial.
  8. Semantic Scholar API (microwave enhanced electrochemistry superheated) - blocked (HTTP 429, rate limit). Europe PMC REST ("microwave" AND "electrolysis" AND ("non-thermal" OR "nonthermal") AND water) - the JSON response left the tab's domain; not read.
  9. terahertz radiation weaken hydrogen bonds water electrolysis overpotential enhanced hydrogen evolution - partial (THz spectroscopy of the water hydrogen-bond network; nothing on electrolysis).
  10. Puharich US 4394230 "thermodynamically reversible" water splitting resonance frequency; Google Patents US4394230A (page gave no text); "US4394230" OR "4,394,230" Puharich abstract "complex electrical wave form" efficiency - partial (snippets).
  11. Hundt Beck 2014 Science bond-selective HOD Ni(111) O-H stretch excitation dissociation - positive.
  12. "radio frequency" OR "RF field" assisted alkaline water electrolysis hydrogen efficiency experimental study - positive (led to Gatard 2021).
  13. "Alkaline water electrolysis enhanced by radio frequency alternating magnetic field"; theses.hal.science (permission denied in the extension, blocked) - positive by snippet.
  14. Gatard Carrey Chaudret magnetic induction heating nanoparticles water electrolysis overpotential decrease Nature Energy 2018; RePEc abstract page - positive.
  15. Rao Sedlmayr Roy Kanzius 2010 Current Science "Polarized microwave and RF radiation effects on the structure and stability of liquid water" - partial (citation); lenr-forum.com PDF - blocked (Cloudflare bot check, treated as CAPTCHA).
  16. "Rao" "Kanzius" 2010 "microwave-distilled water" Raman abstract hydrogen oxygen "13.56" - partial.
  17. Kanzius burning salt water independent replication "sodium" flame color plasma electrode explanation - negative (no replication report found).
  18. Stanley Meyer water fuel cell 1996 Ohio court "gross and egregious fraud" expert electrolysis - positive (snippets).
  19. Kappe 2013 "Microwave effects in organic synthesis: myth or reality" non-thermal abstract - positive (citation and a 2013 published correspondence disputing it).

What was found

A. The energy scales (calculation; the frame for everything below)

  • One photon at Kassner's water band: lambda = 1.28 cm, f = 23.4 GHz, E = hf = 9.7 x 10^-5 eV = 9.3 J/mol; at 1.5 cm, 8.0 J/mol [calc]. At 2.45 GHz (microwave oven), 0.98 J/mol; at Kanzius's 13.56 MHz, 0.0054 J/mol [calc].
  • Thermal energy at 298 K: RT = 2.48 kJ/mol, about 265 times the 1.28 cm photon [calc].
  • A hydrogen bond in liquid water: roughly 20 kJ/mol, about 2,200 times the photon [memory, medium on the value; calc on the ratio]. Mean O-H bond energy about 463 kJ/mol, about 50,000 times the photon [memory, high; calc].
  • Electrolysis: dG = 237.1 kJ/mol for liquid water, 1.229 V; for water vapour dG = 228.6 kJ/mol, 1.185 V [memory, high; calc]. So removing the entire hydrogen-bond network (turning liquid into vapour) lowers the electrical work by only 8.6 kJ/mol, 3.6 percent [calc]. Breaking that network costs at least those same 8.6 kJ/mol of free energy (the enthalpy of vaporisation is 44.0 kJ/mol at 25 C) [memory, high]. Because dG is a state function, "weakening the hydrogen bonds first" moves work from the electrical supply to whatever weakened them; it does not reduce the total. This is the same point the arbiter makes for claim 11, now applied to the hydrogen bonds specifically.
  • The real-world form of "lower the work by loosening water first" exists and is mainstream: high-temperature steam electrolysis (solid-oxide cells, about 700-850 C) needs roughly 0.9-1.3 V because heat supplies part of the energy (T dS) [memory, high on the principle; medium on the numbers]. It is economical only where heat is cheaper than electricity. A field that heats or excites water is a more expensive way to supply the same heat, unless it delivers it more selectively (see C below).

B. Kanzius and Roy: RF "dissociation" of salt water (the closest claim to the idea in question)

  • Roy, Rao and Kanzius, "Observations of polarised RF radiation catalysis of dissociation of H2O-NaCl solutions", Materials Research Innovations 12 (2008) 3-6 [web: https://www.i-sis.org.uk/canWaterBurn.php, which cites it; Google result for the paper at organicdesign.nz]. As summarised by Mae-Wan Ho (Institute of Science in Society, 2009): 13.56 MHz polarised RF, about 300 W, Pyrex tubes of 0.1 to 30 percent NaCl; the gas above the liquid burned with a flame of about 1,800 C while the field was on and went out "instantly as the power is turned off"; Roy and co-workers "suggest specific resonant coupling of the RF radiation into the structure of water"; Raman spectra before and after differ in the 3000-3500 cm^-1 (O-H stretch) region [web: i-sis.org.uk]. Ho's own assessment: "The phenomenon is real, but the mechanism is entirely unknown" [web: i-sis.org.uk]. Ho also notes the 13.56 MHz photon carries about 10^-8 of the energy per molecule needed to split water [web: i-sis.org.uk]. A reader comment on the same page (2009) says the Raman spectra "look similar, apart from a minor difference in peak intensities" and that it could find no independent replication [web: i-sis.org.uk, comment]; this is an anonymous reader's characterization.
  • Energy: Roy et al. "stress that Kanzius never claimed he could get out more energy than was put in" (Philip Ball, Chemistry World, 26 Mar 2008, Google snippet) [web: https://www.chemistryworld.com/opinion/radio-split-the-sea-water/3005045.article, snippet only]; "Kanzius admitted that this process could not be considered an energy source, as more energy is used to produce the RF signal than can be obtained" (AIChE ChEnected, 2010, snippet) [web: https://chenected.aiche.org/2010/06/]. So the claimants themselves place it as a rate or mechanism effect, not an energy gain.
  • Follow-up: Rao, Sedlmayr, Roy and Kanzius, "Polarized microwave and RF radiation effects on the structure and stability of liquid water", Current Science 98(11) (2010) 1500-1504 [web: JSTOR and ResearchGate listings via Google]. Not read (copy behind a bot check).
  • No independent replication was found in this search, and none was found in favour or against; the record is the claimants' two papers and press coverage. Absence noted, not a contradiction.
  • Bearing: this is the only work found that claims RF weakens water's bonding directly. Its frequency (13.56 MHz, 22 m) is far below Kassner's water band (1.28-1.5 cm), so it is not a Kassner-type resonance at water's Debye band; Roy's "resonant coupling" is a proposal, not a measured resonance.

C. Microwave and RF fields in mainstream electrolysis research (rate effects, with the field power as an input)

  • Serra et al., "Hydrogen production via microwave-induced water splitting at low temperature", Nature Energy 5 (2020) 910-919 (UPV-CSIC, Valencia). Abstract: "contactless H2 production via water electrolysis mediated by the microwave-triggered redox activation of solid-state ionic materials at low temperatures (<250 C)"; water was reduced "via reaction with non-equilibrium gadolinium-doped CeO2 that was previously in situ electrochemically deoxygenated by the sole application of microwaves"; "H2 yield and energy efficiency were material- and power-dependent" [web: https://www.nature.com/articles/s41560-020-00720-6]. Interested party: the universities "have jointly applied for a patent" (ES2726028-B2) [web: same page, competing interests]. Bearing: the microwaves act on the ceria (a solid ionic conductor), not on the bonds of water; the water is then split chemically by the reduced oxide. Microwave power is counted in the energy efficiency.
  • Niether et al., "Improved water electrolysis using magnetic heating of FeC-Ni core-shell nanoparticles", Nature Energy 3 (2018) 476-483 (Grenoble/Toulouse). Abstract: under "high-frequency alternating magnetic fields" the oxygen-evolution overpotential at 20 mA/cm^2 fell by 200 mV and the hydrogen-evolution overpotential by 100 mV; the oxygen-evolution gain "is equivalent to a rise of the cell temperature to ~200 C, but in practice it increased by 5 C only"; the authors suggest "water splitting near the equilibrium voltage could be possible at room temperature" [web: https://ideas.repec.org/a/nat/natene/v3y2018i6d10.1038_s41560-018-0132-1.html]. Follow-on: V. Gatard, "Alkaline water electrolysis enhanced by radio frequency alternating magnetic field", PhD thesis, Université Grenoble Alpes, 2021 [web: https://theses.hal.science/tel-03628368, not read: blocked in the extension]; Gatard et al., ACS Appl. Energy Mater. 2022, on durability of FeNi3@Ni for the same method [web: Google snippet]. Bearing: this is the clearest published case of "RF-assisted electrolysis as a rate effect". The RF heats the catalyst surface locally, which lowers the kinetic overpotential (the part of the cell voltage above 1.23 V), not the thermodynamic 1.23 V. The abstract does not say whether the field power was included in an overall efficiency; whether the trade is economical is open in the abstract.
  • Microwave-enhanced electrochemistry (Marken, Compton and co-workers, Oxford and Bath, 2000s): titles found include "Microwave enhanced electrochemistry: mass transport effects and steady state voltammetry in the sub-millisecond time domain" (2004) and "Microwave-Enhanced Electrochemistry in Locally Superheated Aqueous-Glycerol Electrolyte Media" (Rassaei, Compton, Marken et al., 2009), and the review "Chemical and electro-chemical applications of in situ microwave heating" (Marken, Annu. Rep. Prog. Chem. C, 2008) [web: Google results, compton.chem.ox.ac.uk publication list]. The titles name the mechanism as local superheating and enhanced mass transport [web: titles]; the texts were not read.
  • The non-thermal microwave debate in chemistry: Kappe, Pieber and Dallinger, "Microwave Effects in Organic Synthesis: Myth or Reality?", Angew. Chem. Int. Ed. 52 (2013) 1088-1094, and a published "Correspondence on Microwave Effects in Organic Synthesis" (Angew. Chem. 2013) disputing it [web: https://onlinelibrary.wiley.com/doi/abs/10.1002/anie.201204103; Google]. The position of Kappe et al. that apparent specific effects are thermal is recalled [memory, medium]; the correspondence shows the matter was contested. Neither was read.

D. Resonant weakening of a water bond that is established (infra-red, not microwave)

  • Hundt et al., "Vibrationally Promoted Dissociation of Water on Ni(111)", Science 344 (2014) 504 (Beck group, EPFL): exciting the stretch vibration of D2O with an infra-red laser before it strikes a nickel surface strongly increases its dissociation probability; "water dissociation on Ni(111) is strongly activated by vibrational energy" [web: https://infoscience.epfl.ch, Google snippet; Science 344:504 per ResearchGate snippet]. Later work found bond selectivity in HOD: exciting O-H gives mainly H + OD, exciting O-D mainly D + OH [web: https://pubs.aip.org, J. Chem. Phys. 2018 snippet].
  • Bearing: this is real resonant, bond-selective weakening of water, and it is the textbook counterpart of the idea. Three differences from the Ternion technique: the photon is in the O-H/O-D stretch band (about 2,700-3,700 cm^-1, 0.33-0.46 eV, roughly 35,000 times a 1.28 cm photon [calc]), not the Debye band; it works on isolated molecules in a vacuum beam at a hot catalyst surface, not in liquid water, where vibrational energy leaks to neighbours within picoseconds [memory, medium]; and the laser photon's energy is spent, not saved.
  • Puharich, US 4,394,230 (1983), "Method and apparatus for splitting water molecules": a "thermodynamic device" using a "complex electrical wave form" applied to water, which the patent ties to the "geometrical form of water" and discusses with "the free energy change denoted by the Gibbs function" [web: https://patents.google.com/patent/US4394230A/en; Google snippets of patent copies]. Text not read in this run. Puharich (1987 compilation) also names "22.3 GHz" as "a frequency known for water resonance" [web: Google snippet of a raw.githubusercontent.com PDF]; 22.235 GHz is the rotational line of water vapour [memory, high], which is about 1.35 cm, close to Kassner's 1.28 cm. That coincidence is a lead (below).
  • Stanley Meyer's "water fuel cell": in 1996 an Ohio court, after expert witnesses testified it "was simply using conventional electrolysis", found "gross and egregious fraud" and ordered repayment to two investors [web: https://en.wikipedia.org/wiki/Water_fuel_cell, snippet]. Recorded as the court's finding, a characterization in an adversarial proceeding.

Reasoning: how the evidence answers the question

  1. What Kassner wrote: nothing on electrolysis or bond energies. His water "natural frequency" is the Debye relaxation band, a collective rotational loss of the liquid, and his chemical claims are that resonant fields can stand in for heat or catalysts (rate), while the substance becomes "richer in energy" (energy in). The essay's bond-weakening reading goes beyond his text, as the arbiter already noted for claim 10.
  2. Can a resonant field weaken water's bonds? Yes, in two senses that are documented: (a) any absorbed field puts energy into the hydrogen-bond network, which is heating at the Debye band (that is what absorption there is); (b) infra-red light tuned to the O-H stretch makes a molecule easier to split on a catalyst (Hundt 2014). Neither lowers the total energy needed. At Kassner's band one photon is 1/265 of kT, so it cannot weaken any single bond; any effect must be collective, and the collective effect that is established is heating. A sharp, non-thermal resonance in water at 1.28-1.5 cm has not been shown (claim 1 already rates this Never properly tested, mainstream expectation against).
  3. Could that make electrolysis more economical? Two separate questions: - Energy: no, by the state-function argument. Even complete removal of the hydrogen bonds (water to vapour) saves only 8.6 kJ/mol of 237 kJ/mol of electrical work and costs at least as much to do. The O-H bonds are what electrolysis breaks; any energy a field puts into them is counted against the 237.1 kJ/mol total. This holds whether the field is "resonant" or not. - Rate and cost: possibly, and this is where the published work is. Most of a real cell's excess voltage (often 0.4-0.8 V above 1.23 V [memory, medium]) is overpotential and resistance, a rate loss. A field that heats exactly the catalyst surface (Niether 2018: 200 mV less overpotential with a 5 C bulk rise) or activates a solid redox material (Serra 2020) can cut that loss. Whether it saves money depends on the field power versus the electrical saving, which the abstracts do not settle. This matches the arbiter's claim 11 rating (rate effect Plausible, untested, RF counted as input), and in fact the mainstream literature has now tested rate effects of this kind, but at the catalyst, with induction and microwave heating, not at water's Debye band.
  4. Competing readings. A Kassner-sympathetic reading is that his "enforced" reactions without heat or catalysts are a 1930s anticipation of selective (non-bulk) heating, which is what Niether et al. exploit at a catalyst surface. A sceptical reading is that his examples have no controls and that the effects he lists are ordinary bulk heating. The Kanzius/Roy observation is the one direct claim of RF acting on water's bonds; it stands as two papers by the claimants, the mechanism unexplained by them, and no independent replication found yet.

Leads for the next review update (tagged follow-up Q03 in sites.md)

  1. Niether et al. 2018 and Gatard 2021 (claim 11): published RF (induction) assisted electrolysis with measured overpotential reductions. The full text (and Gatard's thesis) should say whether the field power was counted; that number decides whether the rate effect pays. This converts claim 11's third part from a hypothesis to a documented, tested rate effect at the catalyst (not via water's bonds).
  2. Serra et al. 2020 (claim 11): microwave-driven water splitting through a ceria redox cycle; the efficiency figures are in the paper (not read).
  3. Roy, Rao and Kanzius 2008 and Rao et al. 2010 (claims 10-11): the one claim of RF "catalysis of dissociation" of water; read both papers (Materials Research Innovations 12:3-6; Current Science 98:1500-1504, open access at currentscience.ac.in [memory, medium]) for the energy balance, gas analysis and controls; search for any independent replication.
  4. 22.235 GHz water-vapour line versus Kassner's 1.28 cm (claim 1): 1.348 cm vs 1.28 cm, a 5 percent difference [calc]. Kassner may have taken his "characteristic of water" value from the vapour rotational line rather than the liquid Debye band (1.5 cm), which would explain his two values for water. This is an inference to check against 1930s literature (Cleeton and Williams measured the ammonia inversion line in 1934; the water line was measured later [memory, medium]), so the date makes the vapour-line source uncertain.
  5. Hundt et al. 2014 (claim 10): established mode-selective weakening of the O-H bond by infra-red excitation, at a surface, for the primer's discussion of what a "collective" or resonant bond effect would need.
  6. Puharich US 4,394,230 (related work, priority 3): a later resonance-electrolysis patent; read for its stated frequencies and energy claims.

Revision 2026-10-07 (owner's correction)

The owner pointed out that although Ternion never discussed electrolysis, water is a dipolar molecule and subject to the same phenomena as the Ternion discoveries. A03 was rewritten to lead with that: Kassner's GB 417,501 is framed for dipolar substances generally, names water's band (1.5 cm; 1.28 cm), and claims resonant fields can enforce reactions that otherwise need heat or catalysts, so applying the Ternion principle to water is a direct extension of his own claim, not a reading beyond his text (this replaces the wording in Reasoning point 1 above). The answer now also says where the economics of electrolysis actually lie: practical cells run near 1.8-2.0 V against the 1.23 V floor [memory, high], so about a third of the input is overpotential and resistance, a rate loss that a Ternion-type effect could in principle reduce; the 237 kJ/mol floor itself is unchanged. Whether irradiation at water's own band lowers overpotential is untested; it is the experiment that would decide the owner's question.

Second revision 2026-10-07 (owner): the Ternion machine applies energy by displacement current, not radiated RF. US 2,089,966 describes two ways to make the "concentrated field": a "standing field", in which the substance fills the space between conductors (a plate resonator or concentric tubes) set into natural oscillation, so energy enters the sample as displacement current through it as a dielectric; and a "radiating field" focused by reflectors [read: US2089966, "In one method ... standing field" / "In another method ... radiating field"]. The plate resonator is the method his later patents develop (GB 483,062 disc-resonator theory; GB 435,643). A03's wording ("resonant irradiation", "irradiating water") was changed to the standing-field description. The frequencies are the same either way (centimetre to metre waves); the difference is near-field coupling through the sample, which makes the water part of the resonator's own reactance.