Primary technical disclosure
Secondary technical
Charge Retention by Bulk-Equipotential Saturation Without an Internal Separator A description, grounded in the filed provisional, of how a separator-free hydrogen-aluminum cell retains charge through bulk-equipotential saturation of a continuous conductive gel rather than through separator-mediated electronic insulation.Storing Energy as Electron-Stabilized Metal-Hydrogen Surface Bonds Formed by Proton-Coupled Electron Transfer How U.S. Provisional 64/055,649 discloses energy storage as electron-stabilized metal-hydrogen surface bonds formed by proton-coupled electron transfer at metal nanoflake surfaces, distinct from bulk hydride, physisorption, and intercalation.Electron-Mediated Bond Stability: The Kinetically Trapped Idle State Behind Indefinite Calendar Life How the disclosed hydrogen-aluminum cell stores charge in an electron-stabilized metal-hydrogen bond that behaves as a kinetically trapped excited state, breaking only when an external load withdraws its bonding electrons.Hot-Proton Charging Versus Cold-Proton Discharge: The Bias-Gated Asymmetry That Blocks Self-Charge and Self-Discharge How the disclosed hydrogen-aluminum cell uses a bias-gated hot-proton charging path and a separate cold-proton discharge path to block self-charge and self-discharge.Asymmetric Dual-Domain Proton Paths: Separate Ingress and Egress Routes in a Hydrogen-Aluminum Storage Gel How a hydrogen-aluminum surface-bond cell separates charging ingress and discharging egress into two distinct gel paths selected by species charge and bias state.Hydrophobic Gating: Rejecting Neutral and Molecular Hydrogen While Admitting Only Biased Protons How the disclosed energy storage cell uses a hydrophobic gel domain to reject neutral and molecular hydrogen while admitting only biased protons, forming a kinetic lock against decay.The Storage Gel as a Polarized Electrochemical Switch: Coherent Alignment, Equipotential Locking, and Load-Proportional Discharge How U.S. Provisional 64/055,649 operates a continuous storage gel as a polarized electrochemical switch in which charging-bias alignment is locked by the equipotential state and reoriented under load for unidirectional, load-proportional discharge.Flake-Flake Electrostatic Isolation: DLVO Repulsion as a Self-Discharge Barrier in a Separator-Free Hydrogen-Aluminum Cell How sulfonate-derived like-charge surface potentials produce DLVO repulsion that keeps metal nanoflakes separated and blocks cross-flake hydrogen recombination in a separator-free hydrogen-aluminum storage cell.Dynamic Flake Expansion: Carbon-Intercalation Wedging to Expose Buried Metal Surface Under Bias How U.S. Provisional Application No. 64/055,649 discloses carbon species intercalating between metal-flake layers under bias as reversible wedging that unfolds the flake and exposes buried surface area without rupturing the metal lattice.Hydrogen-Locked Expanded State: Surface-Energy Inversion as a Positive-Feedback Capacity Mechanism How bonded hydrogen inverts flake surface energy to lock the expanded state and drive a positive-feedback storage architecture capped at full expansion, as disclosed in a hydrogen-aluminum surface-bond energy storage cell.Secondary Carbon-Hydrogen Storage on Transmuted Intercalated Carbon How transmuted intercalated carbon in a hydrogen-aluminum surface-bond cell adds storage capacity through carbon-hydrogen bonds released by mechanical collapse during flake refolding.Mechanochemical Strain Self-Healing and Use-Positive Aging in a Bulk-Equipotential Hydrogen-Aluminum Cell How a hydrogen-aluminum energy-storage cell uses cycling strain to draw mobile carbon into flake fold lines and edges, annealing fatigue damage and admitting a projected use-positive aging behavior, as disclosed in a U.S. provisional application.Boron Doping of the Carbon Framework as a Multi-Function Precision Multiplier How the filed specification discloses substitutional and interstitial boron doping of the gel carbon framework as a precision multiplier that sharpens domain boundaries, raises surface area, accelerates proton hopping, and tunes bulk conductivity in a hydrogen-aluminum surface-bond cell.The Floating Aluminum Equipotential Extension Layer: A Multifunctional Inner Case for the Bulk-Equipotential Cell How the filed provisional discloses a floating, gel-Ohmic-contact aluminum inner case that extends the bulk-equipotential volume while adding Faraday shielding, an Al2O3 oxygen barrier, inner-surface compatibility, and thermal mass.
Applications · general
Grid-Scale and Renewable-Firming Storage with the Hydrogen-Aluminum Energy Cell How the Hydrogen-Aluminum Energy Cell, disclosed in U.S. Provisional Application No. 64/055,649, composes with utility and ISO-scale stationary storage for load-shifting and renewable firming behind the substation.Building-Integrated and Behind-the-Meter Storage: Putting Energy Cells Inside the Structure With the Hydrogen-Aluminum Energy Cell How the Hydrogen-Aluminum Energy Cell, disclosed in U.S. Provisional Application No. 64/055,649, enables building-integrated and behind-the-meter storage where the structure hosts the cell, with attestation handled by a separate credentialed-surfaces layer.Stationary Backup and UPS Reserve Power for Data Centers, Hospitals, and Telecom How the Hydrogen-Aluminum Energy Cell architecture, disclosed in U.S. Provisional Application No. 64/055,649, applies to stationary backup and uninterruptible power for data centers, hospitals, and telecom critical facilities.Storage for Microgrids, Islands, and Off-Grid Sites: A Stationary Cell Built From Abundant Materials How the Hydrogen-Aluminum Energy Cell, disclosed in U.S. Provisional Application No. 64/055,649, addresses microgrid, island, and off-grid storage where transport and refueling logistics favor a stationary cell built from abundant materials.Electric Mobility and Transport: How a Hydrogen-Aluminum Cell Architecture Maps to Vehicle Constraints, and Where It Does Not A cautious general-application analysis of how the Hydrogen-Aluminum Energy Cell architecture disclosed in U.S. Provisional Application No. 64/055,649 would map to electric-vehicle and transport constraints, including honest boundary conditions on cold weather, voltage, and serviceability.Marine and Rail Energy Storage: A Bulk-Equipotential Hydrogen-Aluminum Cell for Mass-Tolerant Heavy Transport How marine and rail energy storage can deploy the Hydrogen-Aluminum Energy Cell of U.S. Provisional Application No. 64/055,649, an architecture whose equipotential charge retention, thermal-stall safety interlock, and non-flammable breach response suit heavy transport where mass and volume budgets are loose.Supply-Chain-Resilient Field Power: An Abundant-Material Energy Cell for Defense and Expeditionary Operations How the Hydrogen-Aluminum Energy Cell (U.S. Provisional Application No. 64/055,649) addresses defense and expeditionary field power through abundant-material sourcing, low at-rest self-discharge, and intrinsic abuse-tolerance, as an enabling implementation of the disclosed architecture.Fast-Response Frequency Regulation and Power Quality Without a Separate Power Bank How the Hydrogen-Aluminum Energy Cell, disclosed in U.S. Provisional Application No. 64/055,649, applies to fast-response frequency regulation and power-quality ancillary services on the electric grid.When Energy Density Comes at the Cost of Safety A safety case lead in an illustrative underground deployment finds that her shift-energy budget and her mechanical-breach row turn on the same quantity, and reads what the disclosed cell architecture describes doing with oxygen ingress, gas products, and stored charge when a sealed cell is punctured.
Applications · specific
CATL (Contemporary Amperex Technology Co. Limited) alternative: a hydrogen-aluminum cell architecture vs LFP, NMC, and sodium-ion at the chemistry-category and materials-sourcing level A fair, architecture-level comparison of CATL (Contemporary Amperex Technology Co. Limited) lithium-ion and sodium-ion product families against the hydrogen-aluminum cell architecture disclosed in U.S. Provisional Application No. 64/055,649, framed on chemistry-category and materials sourcing rather than demonstrated performance.LG Energy Solution NCM/NCMA lithium-ion cells vs the Hydrogen-Aluminum Energy Cell: an architectural comparison An architecture-level comparison of LG Energy Solution's NCM/NCMA lithium-ion cells against the Hydrogen-Aluminum Energy Cell disclosed in U.S. Provisional Application No. 64/055,649.Form Energy iron-air multi-day grid storage vs a sealed bulk-equipotential hydrogen-aluminum cell: an architectural comparison An honest architectural comparison between Form Energy's shipping multi-day iron-air grid battery and the sealed bulk-equipotential hydrogen-aluminum cell disclosed in U.S. Provisional Application No. 64/055,649.ESS Inc, maker of long-duration iron flow batteries vs a sealed solid-state cell: comparing the flow architecture to the Hydrogen-Aluminum Energy Cell An architectural comparison of ESS Inc, maker of long-duration iron flow batteries, against the Hydrogen-Aluminum Energy Cell disclosed in U.S. Provisional Application No. 64/055,649.Ambri liquid-metal battery vs a solid-state hydrogen-aluminum energy cell: architectural comparison for stationary storage An honest architectural comparison between Ambri's molten calcium-antimony liquid-metal battery and the ambient-temperature hydrogen-aluminum energy cell disclosed in U.S. Provisional Application No. 64/055,649.QuantumScape solid-state lithium-metal battery vs a bulk-equipotential hydrogen-aluminum surface-bond cell: an architecture comparison An honest architecture-level comparison of QuantumScape's solid-state lithium-metal battery against the bulk-equipotential hydrogen-aluminum surface-bond cell disclosed in U.S. Provisional Application No. 64/055,649.Natron Energy sodium-ion (Prussian-blue-electrode) batteries vs a hydrogen-aluminum surface-bond cell: an abundant-materials architecture comparison A fair, architecture-level comparison between Natron Energy's shipping sodium-ion (Prussian-blue-electrode) batteries and the hydrogen-aluminum surface-bond cell disclosed in U.S. Provisional Application No. 64/055,649.Eos Energy Enterprises Znyth zinc long-duration storage vs a hydrogen-aluminum equipotential cell: an abundant-materials architecture comparison An architecture-level comparison between Eos Energy Enterprises' Znyth zinc aqueous long-duration storage and the hydrogen-aluminum equipotential cell disclosed in U.S. Provisional Application No. 64/055,649.EnerVenue nickel-hydrogen stationary cells vs a hydrogen-aluminum equipotential cell: two ways to store hydrogen in a battery An architecture-level comparison between EnerVenue's nickel-hydrogen stationary cells and the hydrogen-aluminum equipotential cell disclosed in U.S. Provisional Application No. 64/055,649.Skeleton Technologies supercapacitors vs the Hydrogen-Aluminum Energy Cell: pairing high power with bulk energy storage How a separator-free bulk-equipotential energy cell disclosed in U.S. Provisional Application No. 64/055,649 relates to Skeleton Technologies supercapacitors and the SuperBattery on the power-versus-energy axis.
How-to guides
How a Separator-Free Metal-Hydrogen Energy Cell Architecture Is Designed A design walkthrough of the separator-free, bulk-equipotential metal-hydrogen cell architecture: how it retains charge without a separator and where the design boundaries sit.How to Architect Grid-Scale Storage for Multi-Day Duration A design guide to architecting multi-day-duration grid storage using a separator-free, bulk-equipotential cell that retains charge by internal saturation, as disclosed in U.S. Provisional Application No. 64/055,649.How to Design a Fast-Response Energy Cell for Grid Frequency Regulation An architectural how-to for a fast-response, high-rate energy cell aimed at grid frequency regulation, built on the separator-free bulk-equipotential Hydrogen-Aluminum Energy Cell disclosed in U.S. Provisional Application No. 64/055,649.
Terminology
bulk-equipotential charge retention Charge retention in an electrochemical cell achieved by saturating a continuous electronically and ionically conductive medium to a uniform electrochemical potential, so that no internal driving force exists for current redistribution in the absence of an external circuit.carbon air phase A low-density quasi-three-dimensional carbon morphology that forms from precursor graphenic carbon during the conditioning sequence of a newly manufactured cell, through a one-time irreversible phase transition catalyzed by the cell's multifunctional additive.dynamic flake expansion A reversible morphological transformation of metal nanoflakes between a contracted resting state and an expanded charged state.use-positive aging An aging behavior in which cycle life is increased rather than decreased by use.
