HydroGien Group · Platform monograph · Edition 1 · 8 September 2026

GALVANOXIDE

The complete document: the chemistry, the machine that governs it, every filing and the white space each one sits in, everything the platform can do within the group's rules, what it costs, what it is worth, and what has not yet been measured.

25 of 26claims of the foundation international application found novel and inventive by the searching authority — all citations background only.
0.112 kgof hydrogen and 15.5 MJ of heat from every kilogram of aluminium consumed — settled thermochemistry, not a claim of ours.
60applications in six families carried in this document, from a group map of 412 across the whole substrate — with what was removed, and why, named.
0measurements on the group's own feedstock as of this edition. Samples ship 11 September; first citable results 28 September 2026.
Aluminium is a charged battery. GALVANOXIDE manages the thin oxide skin on the metal so that its reaction with water releases hydrogen and heat on demand, under a control layer that knows the film's state and signs what it did.

Every claim carries a posture: Established (measured, official or textbook — usually by others) · Filed (an application, not a grant) · Modelled (calculated, not measured) · Not yet measured.
Issued by HydroGien Group Limited (ACN 697 565 610), 14/117 Old Pittwater Road, Brookvale NSW 2100 · Enquiries: invest@hydrogien.com.au · External correspondence signs Claire Ironside · Internal and Board — not an offer.
Before the chapters

How to read this document, and what is not in it

One platform, at every level: the reaction, the reactor, the control layer, the patents, the applications, the money, and the tests that have not been run. Fourteen plates carry what prose cannot.

Part I — The chemistryWhat the reaction is, what comes out of it, and why the oxide film is the invention rather than the obstacle.
Part II — The machineThe reactor forms, the impedance control loop, the graded response ladder, and the governance layer that signs what the machine did.
Part III — The intellectual propertyEvery filing, the examiner's result, the white space each claim sits in, and the prior art it was tested against.
Part IV — What it can doSixty applications in six families, the economic envelope that decides which of them clear, and the feedstock ladder.

The rules that govern every page

Filed is not grantedNo application here has been examined to grant. A search opinion is not a grant. Issuance is never guaranteed, and the field is heavily patented.
Modelled is not measuredThe 2.01-million-trial computational campaign is complete and is Modelled evidence. Nothing physical has been measured on the group's own feedstock. Physical validation is described as university or laboratory programme work.
AttributionAll intellectual property is exclusively vested in the HydroGien / VivoVac group. No individual is named as inventor. All filings referenced are Australian provisional applications owned directly, and the two international applications derived from them.
Withdrawn and recordedTwo claims that appeared in earlier materials are withdrawn in this document and shown as withdrawn: hydrogen intake fractions of "25–40% by volume" in diesel engines, which are physically impossible; and the description of the computational campaign as validation.
Not in this documentDefence and military applications, which run on their own channel and appear in no commercial material. Medical, implant and pharmaceutical-grade uses, excluded by standing rule. Space qualification, excluded. Sensing and protonic compute-storage, which are the OPALBLACK ledgers and have their own documents. Nine filings held out of every basket on export-control grounds. Any figure presented as a valuation.
Pitch positionGALVANOXIDE is position 2 in the group's order — fuel security. Hydrogen is never led with to a generalist audience; the reserve framing in Part IV is the buyer-facing form.

Contents

1The reaction, and what comes out of it — Plates 1 and 2Part I
2Why the film is the invention — Plate 3Part I
3The reactor forms — Plates 4 and 5Part II
4Four outputs, and the trap in the fourth — Plate 6Part II
5The governance layer — Plate 7Part II
6The filings — Plate 8Part III
7The examiner's result — Plate 9Part III
8The white space, backed up — Plate 10Part III
9Everything it can do — Plate 11Part IV
10Where it works, and where it does not — Plates 12 and 13Part IV
11The reserve, and the product formsPart IV
12Evidence, route to market, and the calendar — Plate 14Part V
AAppendix — register of filings, glossary, sources
A note on the plates. Every plate is drawn from the group's own specifications and from published figures cited in the text. Where a plate shows a state, a rate or a region, it is illustrative of the mechanism and is labelled as such — no plate in this document depicts a measurement of the group's own material, because none has yet been made.
1
Part I · The chemistry

The reaction, and what comes out

Aluminium and water make hydrogen, heat and aluminium hydroxide. The chemistry is a century old and belongs to nobody. What has never worked is controlling it — and control is the only thing this platform claims.

Reaction: Established — textbook thermochemistrySystem: Filed and searchedGroup's own feedstock: nothing measured

Two atoms of aluminium and six molecules of water give two of aluminium hydroxide and three of hydrogen, releasing about 419 kilojoules for every mole of aluminium consumed. Nothing in that sentence is novel, and this document never says it is.

Plate 1 — What one kilogram of aluminium yields · settled stoichiometry and enthalpy · not a measurement of the group's material
1.00 kg aluminiumwire · cartridge · dross · scrap 2.00 kg waterthe limiting reagent, by design governedreactor 60–95 °C · 1 atm 0.112 kg hydrogen13.4 MJ at lower heating value 15.5 MJ heatdelivered at 40–80 °C, usable 2.89 kg aluminium hydroxidea saleable solid — see chapter 4 Energy released, 28.9 MJ per kg of aluminium: hydrogen · 13.4 MJ · 46%heat · 15.5 MJ · 54% Making one kilogram of primary aluminium takes about 14–15 kWh of electricity (50–54 MJ). The reaction returns about 8 kWh (28.9 MJ). Round trip ≈ 55%. This is why only metal whose energy was already spent — dross, swarf, scrap — clears economically. See Plate 12. 2Al + 6H₂O → 2Al(OH)₃ + 3H₂ · ΔH ≈ −419 kJ per mole of Al · Established: standard enthalpies of formation.
Established. Derived from standard formation enthalpies (Al(OH)₃ −1277 kJ/mol; H₂O(l) −285.8 kJ/mol) and from the molar masses. The hydrogen figure uses the lower heating value of 120 MJ/kg. Nothing here is measured on the group's material.

The film that stops it

Aluminium does not fizz in a glass of water, and the reason is a film about two to five nanometres thick that forms the instant bare metal meets air. Beneath a hydrated outer layer of boehmite, a dense inner oxide seals the metal from the water. Every attempt to use this reaction for a century has been an attempt to get rid of that film — with caustic soda, with mercury, with gallium–indium eutectic, with ball milling. Each works, and each creates a new problem: a corrosive waste stream, a toxic metal, a supply chain that runs through one country, or an energy bill that eats the output.

Plate 2 — The managed oxide bilayer · the film both blocks and enables · schematic, not to scale
water and admitted catalyst hydrated outer layer (boehmite) · 5–100 nm dense inner oxide (Al₂O₃) · 2–5 nm — the barrier aluminium metal — the stored energy water inH₂ out The breach is made continuously and locally, not removed globally. Rate follows how much film is open at any instant — which is what the control loop measures and sets.
Established structure (the native bilayer on aluminium is standard surface science). Filed and not measured: the specific management of that film as the control variable, which is the subject of the foundation claims.

The inversion

The platform's premise is that the film is not the obstacle. It is the throttle. If the oxide is breached continuously and locally — scored along a wire immediately before it enters the water, or disrupted by a catalyst inside a cartridge — then the rate of the reaction follows how much film is open at any moment, and that is a quantity a machine can hold at a setpoint. The film also carries the information: its electrical impedance changes as it re-forms, so the same surface that governs the reaction also reports on it. That is the whole idea, and everything in Parts II and III follows from it.

Stated once, plainly. The reaction is not ours. The by-products are not ours. The idea that aluminium stores energy is not ours. What is filed, and what the searching authority examined, is a system in which a managed oxide is measured, classified, governed within authorised states, and attested. Chapter 8 shows what prior art that claim was tested against.
2
Part I · The chemistry

Why the film is the invention

A reaction that cannot be turned down is a hazard. The control loop reads the oxide's own electrical signature, resolves it into three parameters, and acts on the four things it is allowed to change — before it ever considers stopping.

Loop: Filed and searched — claim 23Impedance spectroscopy: Established techniqueNot yet run on group feedstock

The reactor measures across the reacting interface — in the preferred wire-feed arrangement the wire itself is one electrode of the measuring pair — and resolves the spectrum into an equivalent circuit. Three parameters come out: solution resistance, double-layer capacitance and charge-transfer resistance. The third is the one that matters: a rising charge-transfer resistance means the film is re-forming faster than the catalyst is breaching it.

Plate 3 — The control loop and the graded response ladder · from the foundation specification
reaction zonewire = one electrode impedance sweep≈1 Hz – 100 kHz feature extractionRs · Cdl · Rct state classifierfinite set of classes controllermodel-predictive attestationhash chain · signedappend-only store four actuators, and only these water metering · catalyst injection · feedstock feed rate (and scoring depth) · thermal management Water is the limiting reagent under normal operation, so reducing it gives direct and rapid control of rate. The graded ladder — production is not interrupted for a transient 1 · small departureincrease catalyst dose 2 · larger or persistentadd water; deepen scoring 3 · not correctedreduce feed rate 4 · failure of 1–3controlled shutdown
The controller is a regulating controller, not a protective interlock: hardware safety devices, pressure relief among them, remain independent of it and superior to it, and are not displaced by it. A falling charge-transfer resistance means the reaction is running faster than intended, and the controller cuts water admission and increases coolant flow. Filed and searched (claim 23); not yet run on the group's own feedstock. Frequencies, setpoints and ladders are from the specification, not from a measurement.

Why a model-predictive strategy and not a simple one

The reaction carries a substantial transport delay: what is admitted now shows in the impedance later. A proportional controller in a system with that delay oscillates. The specification therefore prefers a controller that uses a model of the reaction dynamics to choose a sequence of actions over a receding horizon. This is ordinary control engineering; what is unusual is the variable being controlled — not pressure, not temperature, but the state of an oxide film, read electrically, in situ, across the reacting interface.

What the loop knows that a pressure sensor does not

Depletion has a signature: a characteristic rise in the impedance parameter that is not reversed by admitting more water. In a cartridge, that is the signal to change the cartridge. Feedstock condition has a signature too, which is why a diagnostic stall protocol — a non-consumptive wetting transient used to characterise feedstock before committing to it — is the subject of its own filing. A machine that can tell the difference between "this batch is poor" and "this batch is finished" can keep running through the first and stop cleanly for the second.

3
Part II · The machine

The reactor forms

Three forms, one control layer: a sealed cartridge for portable and backup duty, a continuous wire-feed reactor for constant load, and a waste hub that takes what arrives.

Filed — described in the foundation specificationNone built at production scaleGeneration on demand: no gas stored
Plate 4 — The continuous wire-feed reactor · dimensions and ranges from the specification · schematic
200 · spool 202 · drive rolls 206 · scoring wheels 210 · pre-activation80–120 °C · 10–60 s 220 · reaction chamber 222 · staged spray, 50–500 µm droplets 224 · mixing zones 226 · cooling jacket, bulk 60–95 °C 256 · electrodes — wire is one of the pair 230 · cyclonic separator H₂ overhead 234 · auger — aluminium hydroxide out Wire 1–3 mm · feed 0.5–10 m/min · grooves 50–200 µm deep at 0.5–2 mm intervals Pre-activation under steam or nitrogen · staged water admission distributes the exotherm
Scoring breaches the film; it does not comminute the wire, which is why the energy cost is small beside bulk milling. The pre-activation zone runs under steam or nitrogen to inhibit re-oxidation before the wire reaches the water, and catalyst may be applied there by electrophoretic deposition, dip-coating or entrainment in the steam. Water is admitted in stages along the chamber rather than at one point, which distributes the exotherm; feed rate is one of the variables the control loop actuates, hence the anti-backlash gearing. Filed, not built at production scale — all ranges are from the specification, not from an operating machine.
Plate 5 — The sealed cartridge · authenticated consumable · schematic
aluminium chargeplus catalyst 160 · quarter-turn bayonet — no tools water the depletion signature time →charge-transfer resistance rise not reversed by more water = change the cartridge
The cartridge is also where authentication belongs: a consumable whose identity and pedigree the reactor can verify before it admits water. That is the commercial hinge of the licensing model in chapter 12 — the cartridge standard, not the metal.

The third form: the waste hub

A fixed facility that takes what arrives — dross from a smelter, swarf from machine shops, shredder residue, end-of-life packaging — sorts and blends it, and runs a bank of reactors against a blended feed. The specification describes the arrangement: weighbridge and sampling station, covered storage bays, processing lines, blending silos, a reactor hall, central separation, product loading and a control building. The hub is where the feedstock economics of Plate 12 are actually won or lost, because it is the only form that can buy the cheapest metal there is.

Safety, stated plainly and not softened. Generation on demand means no hydrogen is stored: the gas is made as it is drawn. That removes the largest hazard of hydrogen systems and it changes the regulatory envelope — a site is placarded at 200 L of water capacity and manifested at 5,000 L, with licensing above that. It does not remove hazard: hydrogen is flammable across a very wide range in air, the reaction is strongly exothermic, and aluminium powder is itself a dust hazard that is kept sealed, separate and away from wet work. Hardware safety devices sit above the controller and are not displaced by it.
4
Part II · The machine

Four outputs, and the trap in the fourth

Hydrogen, heat, aluminium hydroxide and recovered metals. The fourth output is what makes the arithmetic work at pilot scale — and it is also the thing that breaks the business if anyone builds a plan on selling it at volume.

Outputs: Established chemistryGrades and purity: not yet measuredSelf-criticism, carried deliberately
Plate 6 — The four outputs, their uses in scope, and the scaling trap
1 · Hydrogen 2 · Heat 3 · Aluminium hydroxide 4 · Recovered metals 0.112 kg per kg Al · fuel-cell grade, ISO 14687 target· grid blending / injection· ammonia (Haber–Bosch)· direct reduced iron· methanol synthesis· food-grade hydrogenation· semiconductor carrier gas· float glass, heat treatment· general chemical synthesis 15.5 MJ per kg Al, at 40–80 °C · building and district heat· food processing and drying· grain and hop drying· aquaculture water heating· greenhouse heating· recovered via heat exchanger to a thermal store (Fig. 8) 2.89 kg per kg Al · fire-retardant grade — cable, construction, polymer· water-treatment coagulant· paper and pulp filler· feed to an existing Bayer refinery (the return leg)pharmaceutical grade: excludedfrom this document by rule from mixed waste feeds · zinc, iron, copper, nickel separated and resold· differential reactivity used to sort mixed streams· grade and yield entirely unmeasured at this date The trap in output 3 — the group's own finding, carried against itself Every tonne of aluminium consumed makes 2.89 tonnes of aluminium hydroxide. Published low-cost hydrogen figures for this chemistry (about US$9/kg) are only reachable by crediting the hydroxide at specialty prices. A plant that depends on that credit is a chemicals business with a hydrogen by-product, and it saturates its own hydroxide market at modest volume. The credit is therefore valid at pilot scale and withdrawn as a basis for scale. At scale the hydroxide returns to a Bayer refinery as feed, valued at bulk, and the hydrogen stands on its own price.

What the numbers say about the hydrogen price

FigureValuePosture and origin
Hydrogen from this chemistryA$9–36 per kg, depending on feedstock cost and creditsModelled — the group's own range across feed cases
Hydrogen from gas reformingA$1.4–3.5 per kgEstablished — the incumbent benchmark this must be read against
Published comparator≈US$9 per kg with by-product credit; 1.45 kg CO₂e per kg H₂Established — Kombargi et al., 2025
Grid-to-wheel efficiency, vehicle case10–13%Modelled — which is why vehicles are not the market
Break-even aluminium price, stationary constant loadA$900–2,400 per tonne where diesel exceeds A$3/LModelled — the envelope in Plate 12
The conclusion the group draws from its own numbers. This is not a cheaper way to make hydrogen and the document never says it is. It is a way to hold energy for decades without a tank farm, in a material that is already in the country, and to release it where the alternative is a diesel delivery that did not arrive. Everything in Part IV follows from that distinction.
5
Part II · The machine

The governance layer

Every independent claim that survived search requires it: the machine may only do what it has been authorised to do, and it signs a receipt for what it did — bound to the physical state of the oxide at the moment it acted.

AITHERIA — within claims 1, 19 and 23Searched: Category ANot deployed on any live system
Plate 7 — The attestation bundle and the dual-dataset export
transition proof sensor signals classified oxide-state vector feedstock passport quality measurements hash chainapparatus-bound key append-only storetamper-evident record publish-safe datasetto the university partner full datasetretained by the group
The dual-dataset export (DPX-IP) is what makes the university model work: a faithful projection can be published without the trade-secret variables, so results vest in the group and the academic partner can still publish. Filed and searched within the foundation family; not deployed on any live system. The first governed run in the measurement programme writes the first real bundle.

Why this is the thing the examiner did not find prior art against

Industrial control systems log. Supply chains attest. Neither, in the art cited, binds a cryptographic attestation to a measured physical state of the material being controlled at the moment of control. That is the combination the independent claims require, and it is the combination that survived search. Its commercial consequence is specific: a governed reactor can prove to a regulator, an insurer or a counterparty what it did and what condition its feedstock was in — which is the precondition for a compensated obligation on a national reserve, and for a cartridge that a machine will refuse to run without.

Excluded from this and every commercial document: defence artificial-intelligence oversight and kill-chain governance, and medical artificial-intelligence governance. Both appear in the group's internal application map; both are out of scope here by standing rule.
6
Part III · The intellectual property

The filings

Two international families, one searched and one not, standing on Australian provisional applications — with the dates that bind, and the one date that has already passed.

Filed, not grantedArticle 19 window closes 23 Sep 2026No corporate counsel currently engaged
Plate 8 — The GALVANOXIDE filing families and their binding dates
Apr 2025Oct 2025Apr 2026Oct 2026Apr 20272028 Foundation family — PCT/AU2026/050399 "Water-Metal Hydrogen Generation" AU 2025901449priority 24 Apr 25 PCT filed 24 Apr 26ISA/AU · fees paid 8 May ISR + written opinion25 of 26 Category A Article 19 amendment window closes 23 Sep 2026national phase decision ≈ Oct 2027 Second family — lodged 24 Aug 2026 · waste-derived dual catalyst · number to be confirmed AU 2025903858 · 23 Aug 25 AU 2025903934 · 27 Aug 25 PCT 24 Aug 26 DAS priority codes 23 Dec 2026 · unsearched · decision ≈ Feb 2028 Separate conversion — AU 2025904522 conversion decision 30 Sep 2026 Reactor, process and firmware provisional cluster conversion wall Mar–Apr 2027
120 of the group's 133 live provisional applications reach their twelve-month conversion in March–April 2027 — a concentration inside the current funding runway, and the reason the triage in chapter 12 is a costed work package rather than an afterthought.

What each family covers

InstrumentSubjectStatusBinding date
PCT/AU2026/050399System (claim 1), method (claim 19) and control architecture (claim 23) for governed hydrogen generation from a managed oxide, with impedance state classification, authorised operating states, signed attestation and authenticated feedstockFiled; searched — 25/26 Category AArticle 19 closes 23 Sep 2026; national phase ≈ Oct 2027
Second family (HG-PCT-002)A dual catalyst derived from waste streams for the aluminium–water reaction, with cartridge and wire-feed embodiments and the impedance control loopFiled 24 Aug 2026; unsearched; number to be confirmedDAS codes 23 Dec 2026
AU 2025901449The foundation priority documentFiled 24 Apr 2025Spent — supports the PCT
AU 2025903858 · AU 2025903934Priorities carried into the second family (the latter an aspect of the invention methodology)Filed Aug 2025Carried
AU 2025904522Held in the GALVANOXIDE basketFiledConversion 30 Sep 2026
Reactor and control clusterAU 2026902947 self-sustaining reaction wavefront with coating-bounded rate governance · 2026902948 programmable temporal output profile · 2026902950 diagnostic stall protocol, non-consumptive feedstock characterisation · 2026902951 multi-function impedance decomposition · 2026902958 production-scale broadband-chirp impedance monitoring · 2026902965 oxide-state-aware wire-feed reactor · 2026902978 hydroxide phase programming by grain sizeFiledMar–Apr 2027 wall
Process and life clusterHG-031 contamination-adaptive primer · HG-032 firmware class QA fingerprint · HG-035 predictive anti-stall impedance controller · HG-036 zonal fiducial feedstock synchronisation · HG-037 confidence-bounded remaining-life estimation · HG-038 pedigree-secured refurbishment and material lineage · HG-039 recipe-to-policy compiler with zero-knowledge attestationFiledSold with the platform; none separately priced
The blocker, named. No corporate counsel is engaged. The Article 19 decision on 23 September, the corrective assignment deed for the second family due 7 October, the chain-of-title statement and the freedom-to-operate opinion all depend on that appointment. It is the first action in chapter 12, and it has no substitute.
7
Part III · The intellectual property

The examiner's result

Twenty-five of twenty-six claims returned as novel and inventive, all citations background only. It is the one number in this document that the group did not write — and it is a search opinion, not a grant.

ISA/AU · preliminary written opinion positiveCategory A = no relevance to novelty or inventive stepA search opinion is not a grant
Plate 9 — The claim-by-claim result of the international search · ISA/AU
Category A — cited art is background only; no relevance to novelty or inventive step (25 claims) the remaining claim independent claims: 1 (system) · 19 (method) · 23 (control architecture) — each requires the governed attestation layer
Established as an official act: the International Searching Authority's report and preliminary written opinion on PCT/AU2026/050399. It means the examiner found no document that bears on novelty or inventive step for those claims. It does not mean a patent has been granted, and it does not settle freedom to operate.

What the result does and does not carry

It carriesAn outside check on the invention method: a claim set drafted from the group's own inversion process was tested by an examiner who cited nothing against 25 of 26 claims. It also carries a preliminary positive written opinion, which is the input a national examiner starts from.
It does not carryA grant. National examiners search again and may cite art the international authority did not. It says nothing about whether the invention works — that is a measurement question, and the measurement has not been made. It says nothing about freedom to operate, which asks the opposite question: whether practising the invention would infringe someone else's granted claim.
The next decisionWhether to amend the claims under Article 19 before the window closes on 23 September 2026. With a result this clean, the default is to make no amendment; that default should be confirmed by counsel rather than assumed.
Why the result is used carefully in this document. "25 of 26" is stated with the caption that says what it is and what it is not, every time it appears — on the cover, in the catalogue, and here. A number that has to be explained after it lands is a number that has been oversold.
8
Part III · The intellectual property

The white space, backed up

Others found the reaction. Nobody commercialised the control of it. This chapter shows the art that exists, the gap that remains, and what would have to be true for the gap to close.

Non-obviousness documented, not assertedFreedom to operate: not yet opinedNo "first" used anywhere without a clearance search
Plate 10 — The prior-art landscape · reaction control against attestation · the group's own assessment
no control of rate — batch, or strip the film entirely continuously governed no record signed, bound to physical state the claimed white space classical Al–water generators — caustic or mercury routes ball-milling and mechanical activation Found Energy — Ga–In eutectic, 100 kW (2025); gallium supply exposed Phinergy — aluminium-air, different chemistry; 18,000-unit backup framework US Army programme award, US$20M (June 2025) industrial control attestation and audit logging — no reaction control zero-knowledge supply-chain proofs — no physical binding GALVANOXIDE — claims 1, 19, 23 managed film · impedance classes · authorised states · signed attestation
Positions are the group's own assessment of published positions, not a measurement of any competitor's system. The chemistry itself is settled and is not claimed; Kombargi et al. (2025) set the published cost and carbon reference at about US$9 per kilogram and 1.45 kg CO₂e per kilogram of hydrogen.
Element of the claimPrior art foundThe gap that remainsPosture
Aluminium reacts with water to give hydrogen, heat and hydroxideSettled chemistry, over a century old; Kombargi et al. 2025 as the modern cost and carbon referenceNone — and none is claimedEstablished (others)
Defeating the oxide film to sustain the reactionCaustic and mercury routes; ball milling; gallium–indium eutectic (Found Energy, 100 kW in 2025)Each removes the film and with it the throttle; each brings a waste stream, a toxic metal or a supply-chain exposure. Gallium is China-exposed; the group's route is gallium-freeEstablished (others)
Managing rather than removing the film, so that rate follows open film areaContinuous local breaching by scoring is not found combined with in-situ impedance governanceThe examiner cited nothing against itFiled and searched
Classifying oxide state by impedance across ≈1 Hz–100 kHz into a finite set of classesElectrochemical impedance spectroscopy is a routine technique with a large literatureIts use as the controlled variable of a hydrogen reactor, with the feedstock itself as an electrode, is the claimed stepFiled and searched
Authorised operating states and a cryptographically signed attestation bound to that stateIndustrial attestation and audit logging; zero-knowledge supply-chain proofs (for example US 11,196,562)None found binding attestation to a measured physical state of the material under controlFiled and searched
Authenticated feedstock — a consumable the machine verifies before admitting waterConsumable authentication exists in other fieldsCombination with the oxide-state controller is the claimed step; the physical-fingerprint element carries its own freedom-to-operate question against 2006 coating-PUF artFiled; FTO read outstanding
A dual catalyst derived from waste streamsCatalysed aluminium–water art; no anticipating waste-derived dual composition found by the groupUnsearched. In the United States the earlier family can support an obviousness objection; common ownership at the priority date must be shownFiled, unsearched
The economics of the reactionEskin 2024: converting primary metal at market prices destroys value. Kombargi 2025 sets the cost floorNo gap — this is the constraint the platform is designed around, not a claimEstablished (others)
What would have to be true for this chapter to be wrong. That a national examiner cites art the international authority did not. That a clearance-grade search finds the impedance-governed managed-film combination already published, in a language or database not searched. That the waste-derived catalyst is obvious over the parent family. Each is a defined search with an owner, and none of them is settled by the result in chapter 7.
9
Part IV · What it can do

Everything it can do

Sixty applications in six families, carried from a group map of 412 across the whole substrate. What was removed, and why, is named — because a list that includes everything is a list that decides nothing.

In scope: 60 in six familiesRemoved by rule: defence, medical, space, sensing and computeRemoved by economics: haul trucks and passenger vehicles
Plate 11 — The application map · what is carried, and what is removed and why
Stationarypower Waste tovalue By-products Industrialhydrogen Constant-loadtransport Portableand micro 1613111046 depots, remote sites,telecom towers, islands,hospitals, disasterresponse, water, farms dross, cans, packaging,e-waste, shredderresidue, swarf, C&D,shipbreaking, casings hydroxide grades,recovered metals,process heat 40–80 °C,carbon credits grid blending, ammonia,DRI steel, methanol,food-grade, semis,float glass, annealing genset hybrid retrofit,marine auxiliary,inland waterway,forklift field equipment,off-grid cabins,market stalls, chargingpoints, welding Removed from this document — and the reason Defence, land, air, maritime and subsea (32 applications in the group map) — runs on its own channel; appears in no commercial material. Drones and loitering systems — dual-use, and the endurance figures were never measured. Medical, implant and pharmaceutical-grade hydroxide — excluded by standing rule. Space and lunar or Martian surface power — excluded by standing rule. Protonic compute and sensing (OPAL tiers) — separate ledgers with their own documents. Haul trucks and passenger vehicles — removed by economics, not by rule: 10–13% grid-to-wheel. The "25–40% by volume" hydrogen intake fraction is physically impossible and is withdrawn.

The sixty, named

Stationary power (16). Mining site power 50–500 kW · oil and gas field backup · construction site power · telecom tower backup · island community power · hospital backup · disaster-response containers · refugee camp power · polar research stations · data-centre backup · off-grid data centres · electric-vehicle charging (WireCharge) · rail signalling backup · water treatment plants · irrigation · aquaculture.

Waste to value (13). Smelter dross · end-of-life packaging · beverage cans · e-waste aluminium · automotive shredder residue · aircraft decommissioning · construction and demolition waste · cooking foil · shipbreaking · battery casings with manganese-dioxide catalyst · used-oil metal particulate · mixed-stream sorting by differential reactivity · machining swarf.

By-products (11). Fire-retardant-grade hydroxide for cable, construction and polymer · water-treatment coagulant · paper and pulp filler · recovered zinc, iron, copper and nickel · building heat · food processing and drying heat · grain and hop drying · aquaculture water heating · greenhouse heating · carbon credits from waste diversion · carbon credits from diesel displacement.

Industrial hydrogen (10). Grid injection and blending · green ammonia · direct reduced iron · green methanol · food-grade hydrogenation · semiconductor carrier gas · float glass · metallurgical heat treatment · general chemical synthesis · fuel-cell-grade supply to ISO 14687.

Constant-load transport (4). Diesel genset hybrid retrofit · marine vessel auxiliary power · inland waterway vessel power · forklift power. Each is a constant-load or auxiliary duty; none is a traction application, and each is research-stage until the first purity result lands.

Portable and micro (6). Scientific field equipment · off-grid cabins and homesteads · camping and caravan micro-skids 0.5–2 kW · market stall power · mobile charging points · portable welding.

Two research-stage lines kept on the map and off the pitch. Deuterium pre-concentration by kinetic isotope effect at the oxide surface, and hydrogen for heavy-water or research supply, are consistent with the chemistry and are not claimed anywhere in this document; they sit adjacent to the isotope white space held on the OPALBLACK sensing ledger. They are listed here for completeness and carry no evidence, no filing position and no figure.
10
Part IV · What it can do

Where it works, and where it does not

Two prices decide everything: what the aluminium costs and what the diesel it displaces costs. Inside a narrow envelope the platform clears comfortably. Outside it, no amount of engineering saves it — and the document says so.

Envelope: ModelledFeedstock prices: Established market rangesNothing measured on group feedstock
Plate 12 — The economic envelope · aluminium feedstock cost against displaced diesel price · Modelled
A$1/LA$2/LA$3/LA$4.25/L A$0/tA$1,000/tA$2,000/tA$3,000/tA$4,000/t+ displaced diesel price aluminium feedstock cost, delivered dross swarf mixed scrap clean scrap primary metal — value-destroying at market prices viable: stationary, constant load break-even feedstock A$900–2,400/t where diesel exceeds A$3/L reserve crossover ≈ A$1,600/t against a liquid diesel reserve no engineering recovers this region — the metal costs more than the energy it returns
Modelled, from the group's own feed cases. Diesel reference points are Australian remote prices at the worst of 2026 (A$3–4.25 per litre, Established). Feedstock bands are market ranges, not quotations, and region boundaries are indicative rather than measured.
Plate 13 — The feedstock ladder · why the cheapest metal is the only metal that works
Drossa smelter's cost to dispose Swarf, turningsmachining waste, oily Mixed scrapthe reserve's working grade Clean scrapcompetes with remelt Primary metalnever — value-destroying energy already spent, and sunk → → energy being paid for twice
Every grade above carries the same 14–15 kWh/kg of electricity that was spent making it. On dross and swarf that energy is already sunk and the disposal cost is negative; on primary metal it is being paid twice. Australia ships 440–500 kt of used aluminium overseas each year — energy equivalent to roughly 185 million litres of diesel on the hydrogen fraction alone (Established export figures; the conversion is arithmetic from Plate 1). Scrap and dross feed is a condition of the economics, not a preference: any case built on primary metal at market prices fails on the group's own numbers.
11
Part IV · What it can do

The reserve, and the product forms

The largest form the platform can take is not a product at all. It is a national fuel reserve held as metal — and the group's place in it is the release layer and the cartridge standard, not the metal.

Legal vehicle: Established — Strategic Reserve Act 2026Economics: ModelledThe group holds no metal and sells no hydrogen
Why a reserve at allAustralia takes more of its energy from diesel than from electricity, imports nine litres in ten, and held about 34 days of cover at the March 2026 trough. A liquid reserve holds the same fuel from the same refineries through the same strait, and it goes stale. Aluminium does not: it is still metal at year twenty, and 440–500 kt of it leaves the country as scrap every year.
What the group suppliesThe governed-release chemistry, the authenticated cartridge standard and the reactors — licensed by field. The smelter holds the metal under a compensated obligation with a Commonwealth put; a reagent-hydrogen producer rotates the stock. The reserve is deliberately agnostic about carrier and release route, which is what allows a Minister to adopt it without picking a vendor.
What it costsCarry of about A$138 per tonne per year at A$2,000/t and 5.2%, against a crossover with the diesel reserve at about A$1,600/t (Modelled). A 100-kilotonne critical-site tranche carries at roughly A$14 million a year and holds about two weeks of stationary power for those sites.

The product forms, from smallest to largest

FormDutyFeedstockStatus
CartridgePortable and backup power; the authenticated consumable that carries the licensing modelPrepared aluminium charge plus catalystFiled; none in production
WireCharge skidDeployable off-grid charging and refuelling at depots; 11 kW and 22 kW AC classes, a DC battery-buffered class, and a 350/700-bar moduleAluminium wire on a spool with a pedigree identifierProvisional drafted 14 Feb 2026; filing to be confirmed; no pilot yet run
Wire-feed reactor, fixedConstant-load stationary power at remote sites where diesel exceeds A$3/LWire, or shredded and blended scrapFiled; not built at production scale
Waste hubRegional processing of dross, swarf and mixed scrap into hydrogen, heat and hydroxideWhatever arrives, sorted and blendedDescribed in the specification; none built
Strategic reserve trancheNational insurance; released only when the alternative is no fuelScrap and dross held by industry under obligationLegal vehicle exists; concept staged and gated

The staging, and the dates that go with it

2026–27Measure and designate: first laboratory results, a Ministerial direction under the Strategic Reserve Act, inclusion in the Critical Minerals Strategic Reserve, and an ARENA expression of interest — all lodged by 31 October 2026.
2027Demonstrate: a 10-kilotonne pilot stock and a sub-megawatt governed reactor, with a host site. Bell Bay is the natural candidate — 195 kt of capacity, about 355 MW of hydro load, a contract lapsing 31 December 2026 and an A$60 million-a-year gap — and it needs a customer that is not the world metal market.
2028–29A 100-kilotonne critical-site tranche held by industry under a minimum-stockholding-style obligation with a Commonwealth put.
BeyondOne million tonnes on the insurance-value study. Parity with the 2.7-million-tonne diesel reserve only if a Minister owns the probability assumption — which is a political decision, not a technical one, and the document says so.
Precedents the framing rests on, all Established. Germany's EBV has held industry oil stocks since 1978 without a state guarantee. Australia already runs a diesel Minimum Stockholding Obligation. The Export Finance and Insurance Corporation Amendment (Strategic Reserve) Act 2026 passed on 1 April 2026 and was used within weeks for about 795 ML of diesel, 155 ML of jet fuel and 340 kt of urea. Tomago's package and Portland's underwrite show the Commonwealth already paying for smelter survival — the reserve converts that payment into an asset.
12
Part V · Evidence, route and programme

What is proven, how it reaches the market, and what happens next

The platform is filed, searched and modelled. It is not measured. Everything below is arranged so that the first measurement arrives before the first claim.

Licence or sell — never manufactureFirst results 28 September 2026Counsel appointment blocks six dated items
Plate 14 — The evidence ladder · what stands where, at this date
Established Filed and searched Modelled Not yet measured The reaction, its enthalpy and its yields · the oxide bilayer · impedance spectroscopy as a technique · the fuel-import and refinery position · the Strategic Reserve Act and its first use · smelter support figures · published comparators 25 of 26 claims of PCT/AU2026/050399 — Category A, citations background only · claims 1, 19 and 23 each requiring the governed attestation layer · the second family and the reactor, process and firmware clusters (filed, unsearched) The 2.01-million-trial computational campaign · hydrogen cost range A$9–36/kg · break-even feedstock A$900–2,400/t · reserve carry and crossover · grid-to-wheel 10–13% · every corridor and every application-level economic figure Yield, kinetics and purity on the group's own feedstock · hydroxide phase and grain size · reactor operation at scale · attestation on a live system · every performance figure for every application in chapter 9
Route to marketLicence the governed-release chemistry and the authenticated-cartridge standard by field; supply or licence reactors; SELL-01 sale to a strategic at filed, searched and one measurement. HydroGien holds no metal, sells no hydrogen and builds no reserve.
Developed withUniversity of Sydney (executed research voucher — yield, kinetics, purity, hydroxide chemistry); Macquarie University (executed research collaboration); fee-for-service national laboratories. Results vest in the group; the university receives a publish-safe dataset.
Funded byFounding Member Programme — A$10M across 20 companies, A$2M Foundation Tranche first, as research sponsorship not equity; plus Commonwealth vehicles (Strategic Reserve Act direction, Critical Minerals Strategic Reserve, ARENA green metals).
What a partner getsRaw data as produced, not summaries; first rights to run authenticated feedstock at their own sites; a seat in setting the duty cycles the tests are run to; and for the A$1M seats a steering vote and a perpetual royalty-free licence. Export-control carve-out applies. No shares, notes or return on capital.

Why an industry partner co-funds this rather than waiting

The problem belongs to them. A smelter facing a lapsing power contract, a miner paying A$3–4.25 a litre for remote diesel, a refinery holding 30 days of cover — each owns the cost of the next interruption, and none of them can get an answer about their own feedstock, their own duty cycle and their own site unless they pay for that seat. It is the joint-industry-programme model their sectors already use: several operators share a pre-competitive cost none would carry alone, and each gets the answer first. On either outcome the sponsor buys a decision worth more than it cost — and a negative result is an expensive no, bought cheaply and early.

The calendar

DateItemConsequence if missed
Fri 11 Sep 2026Samples ship to Sydney Analytical (X-ray diffraction on the co-product) and HRL Technology (hydrogen purity to AS ISO 14687)The first citable evidence slips, and every document stays Modelled
This weekAppoint replacement corporate counsel with export-control and securities experienceBlocks the five items below
Wed 23 Sep 2026Article 19 amendment window closes on PCT/AU2026/050399The claim set is fixed as filed; the decision is made by default rather than taken
Mon 28 Sep 2026First laboratory results — the datapoint every path in this document routes through
Wed 30 Sep 2026AU 2025904522 conversion decisionThe application lapses
Wed 7 Oct 2026Corrective assignment deed and title opinion for the second familyThe note data room cannot open
Sat 31 Oct 2026Critical Minerals Strategic Reserve petition, fuel-consultation submission, ARENA expression of interestA twelve-month wait for the next window
Thu 31 Dec 2026Bell Bay power contract lapsesThe most natural pilot host may not be there in 2027
Wed 23 Dec 2026DAS priority codes furnished for the second familyPriority claim at risk
Mar–Apr 2027120 of 133 live provisionals reach conversion, the reactor cluster among themUncosted conversions, or lapses taken by accident rather than on evidence
≈ Oct 2027National-phase decision on the foundation familyThe family lapses
The first disconfirming test, named. Hydrogen purity against AS ISO 14687 and the hydroxide phase and grain size on the group's own feedstock, at fee-for-service laboratories, with results on 28 September 2026. If the purity falls short of fuel-cell grade, a conditioning stage is sized before any pilot and the claim narrows to heat-plus-hydrogen for engines and gensets. If the hydroxide is off-specification, the reserve's return leg needs a calcine trial before the loop is described as closed. Either outcome is reported.
Appendix

A1 — Register of filings referenced

InstrumentSubjectDateStatus and binding date
PCT/AU2026/050399Water-Metal Hydrogen Generation — system, method, control architectureFiled 24 Apr 2026ISR 25/26 Category A; Article 19 closes 23 Sep 2026
AU 2025901449Foundation priority24 Apr 2025Supports the PCT
Second family (HG-PCT-002)Waste-derived dual catalyst; cartridge and wire-feed embodimentsLodged 24 Aug 2026Number to be confirmed; DAS codes 23 Dec 2026
AU 2025903858 · AU 2025903934Priorities carried into the second family23 and 27 Aug 2025Carried
AU 2025904522GALVANOXIDE basket2025Conversion 30 Sep 2026
AU 2026902947Self-sustaining oxide reaction wavefront with coating-bounded rate governance2026Filed; Mar–Apr 2027 wall
AU 2026902948Chemically-programmed temporal output profile, reactor-selectable activation2026Filed
AU 2026902950Diagnostic stall protocol — non-consumptive wetting-transient feedstock characterisation2026Filed
AU 2026902951Simultaneous multi-function impedance decomposition2026Filed
AU 2026902958Production-scale broadband-chirp impedance monitoring2026Filed
AU 2026902965Oxide-state-aware wire-feed hydrogen reactor, profiled cross-section feedstock2026Filed
AU 2026902978Thermal firmware by aluminium hydroxide phase programming, grain-size-controlled onset2026Filed
HG-031 to HG-039Contamination-adaptive primer · firmware class QA fingerprint · predictive anti-stall controller · zonal fiducial synchronisation · confidence-bounded remaining life · pedigree-secured refurbishment · recipe-to-policy compiler with zero-knowledge attestation2026Filed; sold with the platform
HG-WC-700OMNI-P1WireCharge omnibus — deployable charging, 350/700-bar refuelling, telemetry and consumables logisticsDrafted 14 Feb 2026Filing to be confirmed on the register
Excluded setNine filings held out of every basket and data package on defence and export-control groundsNot described; not licensed into any programme

A2 — Glossary

TermMeaning
Managed passive oxideThe thin natural oxide film on aluminium, kept and controlled rather than stripped, so that the reaction can be governed rather than merely started.
Charge-transfer resistanceOne of three parameters resolved from the impedance spectrum. Rising, it means the film is re-forming faster than the catalyst is breaching it — the reactor's primary feedback signal.
Impedance classificationReading the film's electrical response across roughly 1 Hz to 100 kHz and sorting it into a finite set of states.
Authorised operating stateA condition the machine is permitted to be in. Transitions between states are what the attestation layer records and signs.
Attestation artefactA cryptographically signed record of what the machine did and the physical state it was in when it did it.
Dual-dataset export (DPX-IP)A faithful projection of a result that can be published without the trade-secret variables — what makes results-vest-in-the-group compatible with a university partnership.
DrossThe oxide-rich skim from molten aluminium: a smelter's disposal cost, and the cheapest feedstock on the ladder.
Category AIn an international search report, a citation of general background relevance only — no bearing on novelty or inventive step.
Article 19The single opportunity to amend the claims of an international application after the search report. For this family the window closes 23 September 2026.
CorridorA planning range — floor, target, stretch — for a build-to-sell line. Never a valuation until it passes the pricing gate.

A3 — Sources

Chemistry and thermochemistry: standard enthalpies of formation; molar masses; hydrogen lower heating value 120 MJ/kg; Hall–Héroult specific energy 14–15 kWh/kg (industry standard). Comparators and cost: Kombargi et al., 2025 (aluminium–water hydrogen at approximately US$9/kg with by-product credit; 1.45 kg CO₂e/kg); Eskin, 2024 (value destruction when converting primary metal at market prices); Found Energy public releases (gallium–indium eutectic, 100 kW, 2025); Phinergy public information (aluminium-air, 18,000-unit backup framework); United States Army programme award, June 2025. Attestation and control art: industrial control attestation and audit-logging literature; zero-knowledge supply-chain proofs, US 11,196,562. Fuel and policy: Export Finance and Insurance Corporation Amendment (Strategic Reserve) Act 2026 and its first use, April 2026; Critical Minerals Strategic Reserve (Department of Industry, Science and Resources, 12 January 2026); Budget 2026-27 fuel package; Australian Aluminium Council production and export figures, 2025; Australian remote diesel prices, 2026; German EBV structure. Intellectual property: International Searching Authority report and preliminary written opinion on PCT/AU2026/050399; AusPat register export, 1 August 2026 (137 rows). Full bracketed source register with 86 entries: HG-MOTHER-001, Appendix A.

Every figure in this document is a planning anchor until it passes its gate. Filed is not granted. Modelled is not measured. Nothing here is an offer. Companion documents: HG-CAT-001 (group catalogue), HG-PRES-001 (plain-language reserve brief), HG-WP-001 (policy white paper), HG-RES-001 (implementation memo), HG-MOTHER-001 (research record). HydroGien Group Limited (ACN 697 565 610) · HydroGien Pty Ltd (ACN 689 125 871) · VivoVac Pty Ltd (ACN 652 414 376). Prepared by Claude, Strategic Operator seat, Office of Stephen Blignaut, 8 September 2026. External commercial and capital correspondence signs Claire Ironside; nothing is signed as the principal.