Alerta

由含碳废弃材料制备合成气的方法

Resumen de: WO2025163482A1

Process for the production of syngas from carbonaceous waste material and CO2 comprising the following stages: a stage a) comprising the reaction R1 in which the carbonaceous material is reacted with carbon dioxide to obtain carbon monoxide according to the following reaction scheme: R1 CO2 + C = 2 CO; a stage b) of producing H2 and adding it to the carbon monoxide obtained in stage a) to obtain syngas, wherein stage b) comprises at least one of the following stages: bl) the carbon monoxide from the previous stage is reacted with water vapour to obtain carbon dioxide and hydrogen according to the following reaction scheme: R2 CO + H2O = CO2 + H2 b2) producing hydrogen by means of electrolysis of water, which is added to the carbon monoxide from stage a). The invention also relates to the unit in which stages a) and bl) are conducted as well as the related apparatus comprising the aforementioned unit.

用于产生氢气的方法和设备

Resumen de: EP4635599A1

0001 An method (100-600) for producing hydrogen is proposed, comprising providing a first gas (1) containing hydrogen, oxygen and water, said providing the first gas (1) comprising an electrolytic conversion of water; providing a second gas (5) containing hydrogen, oxygen and water, said providing the second gas (5) comprising a condensative removal of water from the first gas (1) or a part thereof; and providing a third gas (10) containing hydrogen, said providing the third gas (10) comprising an adsorptive removal of water and a catalytic removal of oxygen from the second gas (5) or a part thereof using a adsorptive and catalytic treatment arrangement (110) comprising treatment vessels (A, B), wherein each of the treatment vessels (A, B) comprises, in a first direction from a first opening to a second opening, a first adsorption layer (211), a catalytic layer (212) and a second adsorption layer (213), wherein each of the treatment vessels (A, B) is alternatingly operated in a treatment mode and a regeneration mode, wherein, in the treatment mode, the second gas (5) or a part thereof is passed in the first direction through the treatment vessels (A, B), wherein, in the treatment mode, the first adsorption layer (211) and the second adsorption layer (213) are used for said adsorptive removal of water and the catalytic layer (212) is used for said catalytic removal of oxygen, wherein, in the regeneration mode, the treatment vessels (A, B) are heated using a heating gas (5a,

脱合金化電極触媒

Resumen de: WO2025068691A1

The present invention provides a process for preparing solid, non-porous, de-alloyed electrocatalyst particles, the process comprising the steps of: providing solid, non-porous, platinum group metal alloy precursor particles PMn in which P is a platinum group metal and M is at least one alloying metal; in a de-alloying step to provide the solid, non-porous, de- alloyed electrocatalyst particles; supplying carbon monoxide to the precursor particles under conditions which remove at least some of the metal M from the surface of the precursor particles; wherein the de-alloyed electrocatalyst particles are particles of a platinum group metal alloy PMX in which P is a platinum group metal and M is at least one alloying metal, wherein the total atomic composition relative to P of M at the surface of the de-alloyed electrocatalyst is lower than the total atomic composition relative to P of M in the bulk of the de-alloyed electrocatalyst, and wherein x is less than n.

電気化学的かつ可逆的に二水素を貯蔵する装置

Resumen de: EP4541945A1

The invention relates to Device for electrochemical reversible dihydrogen storage (1), said device comprising: a sealed chamber (2) intended to receive an electrolytic media (3) and gaseous dihydrogen (4), connection means (5) suitable for connecting the seal chamber to a gas circuit (6) and at least one first electrode (7), and at least one second electrode (8), arranged within the sealed chamber. The at least one second electrode is suitable to oxidize dissolved gaseous dihydrogen, in the electrolytic media, and form protons and to reduce protons and form gaseous dihydrogen according to formula 1: H₂ ↔ 2H⁺ + 2e^-, formula 1. The at least one first electrode comprises at least one redox couple M^y/M^x, insoluble in the electrolytic media, said at least one redox couple being arranged to exhibit at least two oxidation states and being suitable to be reduced from an oxidized state M^y to a reduced state M^x, and conversely, according to formula 2: M^y + pe^- ↔ M^x, formula 2, wherein x and y are oxidation number. An absolute potential difference |ΔE| between a redox potential of the couple H⁺/H₂, for a predetermined electrolytic media and a predetermined pressure range of gaseous dihydrogen, and a redox potential of the at least one couple M^y/M^x is lower than or equal to 0.6 V.

具有泄压功能的氢气产生装置

Resumen de: CN116265612A

0001 A hydrogen generating device with pressure relief function includes a water tank, an electrolytic cell, a humidification cup, a first valve element, and a second valve element. The water tank has a containment space for containing electrolyzed water. The electrolytic cell is disposed in the water tank and used to electrolyze the electrolyzed water to generate hydrogen-containing gas. The humidification cup is disposed above the water tank and used to humidify the hydrogen-containing gas. The humidification cup includes a humidification chamber and a gas passage that are isolated from each other, and the gas passage is connected to the water tank. The first valve element is used to selectively connect the humidification chamber to the external environment. The second valve element is used to selectively connect the containment space and the humidification chamber. When the electrolytic cell stops operating, ambient air enters the containment space through the first and second valve elements to balance the pressure in the water tank.

Réservoir générant de l’hydrogène

Resumen de: FR3174558A1

Réservoir générant de l’hydrogène. Figure pour l’abrégé : Fig. 1

水電解器のための拡縮可能な（ｓｃａｌａｂｌｅ）電極流れ場およびそれを高速で製造する方法

Resumen de: WO2023136979A2

The present disclosure provides approaches for increasing the adhesion of a catalyst ink on a substrate, use of binders within an electrode ink to enhance coating uniformity, incorporating pore-forming agents within an electrode ink, approaches for growing an electrode on a reinforcement layer, increasing the electrochemically active surface area, and incorporation of certain materials in an electrode ink. The present disclosure also relates to electrodes for electrochemical cells, including area-scalable electrodes designed for high-speed manufacturing. The materials, devices and methods described herein may apply to either one or both of an anode or a cathode electrode for an electrochemical cell.

SMALL MODULAR REACTOR DRIVEN LOW-TEMPERATURE METHANOL AND SUBSEQUENT CHEMICAL PRODUCTION PATHWAYS

Resumen de: US20260337137A1

An integrated energy system (IES) including a power plant is discussed herein. In some examples, the IES may include a power plant configured to generate steam, a Low-Temperature Methane Steam Reforming plant configured to receive at least a portion of the steam from the power plant to react with Methane within the Low-Temperature Methane Steam Reforming plant to produce Hydrogen, first Carbon Monoxide, and Carbon Dioxide, a first separation unit configured to separate the Hydrogen, the first Carbon Monoxide, and the Carbon Dioxide, a Solid Oxide Electrolysis Stack configured to receive at least a portion of the Carbon Dioxide and to produce second Carbon Monoxide and Oxygen, a second separation unit configured to separate the Carbon Dioxide from the second Carbon Monoxide, and a methanol synthesis reactor configured to receive at least a portion of the Hydrogen and at least a portion of the second Carbon Monoxide to produce Methanol.

ALKALINE WATER ELECTROLYZER FOR HYDROGEN PRODUCTION PROVIDED WITH AUXILIARY GASKET ELEMENTS

Resumen de: WO2026222829A1

The present invention relates to the technical field of electrolyzers, and specifically relates to an alkaline water electrolyzer for hydrogen production provided with auxiliary gasket elements. Said alkaline water electrolyzer comprises auxiliary gasket elements arranged between an end compression plate and an end electrode plate of an alkaline water electrolyzer for hydrogen production, the auxiliary gasket elements being elastic, and the auxiliary gasket elements being not in contact with an internal electrolyte of the alkaline water electrolyzer for hydrogen production. The present invention can optimize and improve the stress state of sealing gaskets, thereby addressing the problem that sealing gaskets are prone to damage due to pressure fluctuations in electrolyzers and thermal expansion and contraction which are caused by frequent start-ups and shutdowns. In particular, the present invention solves the problem that sealing gaskets adjacent to end electrode plates are more prone to failure and damage, thereby improving the operational reliability and safety of alkaline water electrolyzers for hydrogen production.

MODIFIED MXENE MATERIALS

Resumen de: AU2025259042A1

This disclosure describes freestanding or delaminated two-dimensional (2D) sheets of at least dual modified functionalised MXene materials, Mn+1XnTx, having electronegative surface groups and non-metal dopant and electrochemically active dopant atoms in the materials, suitable as OER catalysts.

METHOD FOR ELECTROLYZING WATER, METHOD FOR PRODUCING HYDROGEN, AND METHOD FOR PRODUCING CELL OF PEM WATER ELECTROLYSIS DEVICE

Resumen de: AU2025279230A1

A method for electrolyzing water according to the present invention is a method for splitting water with the use of a PEM water electrolysis device which is provided with a cell in which a cathode, an electrolyte membrane, a porous transport layer, and an anode are stacked, wherein: the porous transport layer has a titanium porous body; in the electrolyte membrane-side surface of the titanium porous body, the average value of the areas of pores that open to the surface is 5 μm2 to 45 μm2 inclusive; the standard deviation value of the areas of the pores is 90 μm2 or less; the number of the pores that are present within a rectangular region that has an area of 22,000 μm2 and an aspect ratio of 4:3 is 120 or more; and the pressure applied in the stacking direction of the cathode, the electrolyte membrane, the porous transport layer, and the anode at the time of assembling the cell is set to 6 MPa or more.

HYDROGEN REDUCTION SYSTEM AND METHOD FOR MANUFACTURING REDUCED IRON

Resumen de: AU2025298623A1

Disclosed is a novel technology for applying SOEC in a direct reduction process in which a shaft furnace is used. A hydrogen reduction system according to the present disclosure has a shaft furnace, a reducing gas supply device, a reducing gas heating device, a source material pretreatment device, and a hydrogen production device. In this hydrogen reduction system, a reducing gas is supplied to the shaft furnace via the reducing gas supply device and the reducing gas heating device, and a 600°C to 900°C iron oxide source material is supplied to the shaft furnace via the source material pretreatment device. The hydrogen production device has an SOEC, and the SOEC uses a steam-containing gas which has been discharged from the shaft furnace to produce hydrogen gas. The hydrogen gas produced by the SOEC is used as a reducing gas.

DECARBONIZATION BY SOLAR-ASSISTED TUNABLE CARBONHYDROGEN-OXYGEN INTEGRATION TO SOLID CARBON AND ENRICHED SYNGAS

Resumen de: US20260335855A1

A system includes an allocation control system configured to receive oxygen gas, methane gas, carbon dioxide gas, and steam, determine a proper ratio of the oxygen gas, the methane gas, the carbon dioxide gas, and the steam, and mix the oxygen gas, the methane gas, the carbon dioxide gas, and the steam according to the determined ratio to generate a mixture stream. The system further includes a syngas and carbon generator configured to: receive the mixture stream from the allocation control system, and generate syngas and solid carbon using the received mixture stream, wherein the syngas comprises hydrogen gas and carbon monoxide gas. The proper ratio of the oxygen gas, the methane gas, the carbon dioxide gas, and the steam is determined using an atomic tracking model based on a predetermined condition for the syngas and the solid carbon to be generated by the syngas and carbon generator.

ALKALINE WATER ELECTROLYSIS DEVICE COMPRISING METAL PARTICLE FLUIDIC ELECTRODE

Resumen de: US20260337797A1

The present invention discloses a water electrolysis device including a metal particle fluidic electrode. The water electrolysis device of the present invention includes a cathode; a first fluid channel formed on the cathode; a cation exchange membrane (CEM) formed on the first fluid channel; a second fluid channel formed on the cation exchange membrane; and an anode formed on the second fluid channel, wherein the second fluid channel includes metal particles and is used as a metal particle fluidic electrode.

PRODUCTION OF HYDROGEN AND LITHIUM HYDROXIDE IN A BASIC ENVIRONMENT

Resumen de: US20260337801A1

The present invention relates to the electrochemical production of hydrogen and lithium hydroxide from Li+-containing water using a LiSICon membrane. The problem addressed by the present invention is that of specifying a process which is operable economically even on an industrial scale. The process shall especially exhibit a high energy efficiency and achieve a long service life of the membrane even when the employed feed contains impurities harmful to LiSICon materials. A particular aspect of the process is that the cell simultaneously separates off the lithium via the membrane and effects electrolysis of water. An essential aspect of the process is that the electrochemical process is performed in a basic environment, more precisely at pH 9 to 13. The pH is adjusted by addition of a basic compound to the feed.

HYDROGEN-GENERATING COMPOSITIONS AND STORAGE AND USE THEREOF

Resumen de: US20260341753A1

A hydrogen-generating composition is a powder mixture. The powder mixture includes a metal powder, an alkaline metal oxide powder, and at least one third powder that is a post-transitional metal oxide powder, a chloride salt powder of an alkali metal, a chloride salt powder of an alkaline earth metal, or combinations thereof. A fuel cartridge includes a hydrogen-generating composition contained within a fuel cartridge. The fuel cartridge has a water-permeable top section and base section made of metal or plastic or other material. A method of forming a hydrogen-generating composition includes providing powders having a predetermined particle size and mixing the powders to form the hydrogen-generating composition.

ELECTROLYSIS CELL WITH ARCHED SUPPORT MEMBERS

Resumen de: US20260337791A1

An electrolysis cell for chlor-alkali or alkaline water electrolysis comprises two cell elements each defining an electrode chamber by providing a back wall and sidewalls of the electrode chambers, an electrode accommodated in each of the electrode chambers, a sheet-like separator extending in a height direction and a width direction of the electrolysis cell, the separator being interposed in a joint between the two cell elements and providing a separating wall between the electrode chambers, and a plurality of support members supporting at least one of the electrodes on the respective back wall, wherein the support members each comprise two support portions standing upright on the back wall and extending in the height direction of the electrolysis cell, and two foot portions attached to the respective support portion in an angled manner for a planar contact with the back wall, wherein the support portions of the support members are connected to each other by an arched portion being arched outwardly towards the supported electrode and providing a resilient bearing surface for the supported electrode, wherein the bearing surface is enlarged upon inwards-directed deflections of the arched portion.

FREE-STANDING ELECTRODES WITH SINGLE-ATOM CATALYSTS ON NANOCARBON FIBERS

Resumen de: US20260337798A1

The invention provides bi-functional catalysts and electrodes based on Earth abundant metals, catalyzing cathodic hydrogen evolution and anodic oxygen evolution. The catalysts and electrodes are efficient for various electrochemical applications, including water splitting.

MEMBRANE FOR ALKALINE WATER ELECTROLYSIS

Resumen de: US20260337800A1

A membrane adapted for alkaline water electrolysis is disclosed together with an alkaline water electrolysis device containing the membrane. A method for producing hydrogen, and a method for producing a membrane for alkaline water electrolysis are also disclosed.

ELECTROLYSIS SYSTEM AND USE THEREOF

Resumen de: US20260337792A1

The invention relates to an electrolysis system for generating hydrogen and oxygen as product gases, including an electrolysis module and a process unit, wherein the process unit has a reactant line for supplying process water and a product line, each of which is connected to the electrolysis module, and the process unit is equipped with a thermally insulating insulation device, including a thermal insulating material, such that a slow cooling of the process water is produced during a standstill operation.

Oxide Photocathode Material And Photocathode Fabrication Method

Resumen de: US20260341623A1

The embodiments of the present application provide an oxide photocathode material and a method for fabricating the photocathode. The photocathode material includes an ATiO3-type material with a perovskite structure, where A is an alkaline earth metal element. The novel photocathode material provided by the embodiments of this application is an alkaline earth-titanium oxide, which features simple fabrication, activation, and reactivation processes, high photoelectric emission brightness, excellent monochromaticity, high collimation, stable performance, and reusability. Moreover, this photocathode material does not contain precious metals or harmful elements, has low production costs, and enables controllable mass production.

HYDROGEN ENHANCED GEOTHERMAL POWER PRODUCTION

Resumen de: US20260337015A1

An energy system includes a natural or enhanced geothermal reservoir having a subsurface rock formation and an energy source integrated into the natural or enhanced geothermal reservoir configured to convert heat to energy. The energy source can include at least one of: a hydrogen source included in the subsurface rock formation, a methane or other hydrocarbon gas source, and a dihydrogen sulfide source. The dihydrogen sulfide and the methane or other hydrocarbon gas source can be converted to hydrogen and an associated carbon dioxide or sulfur reaction product can also be sequestered by mineralization in the subsurface rock formation following the conversion.

LOW PRESSURE AMMONIA CRACKING AND HYDROGEN SEPARATION

Resumen de: US20260337016A1

Ammonia is decomposed in an electric reactor at a low pressure to produce a mixture of hydrogen (H2) and nitrogen (N2). The electric reactor is powered by an electrical energy input produced by a direct ammonia fuel cell (DAFC). The DAFC uses unreacted ammonia from the decomposition reaction as a fuel source to produce electrical energy. After the decomposition of ammonia, H2 and N2 gas mixture is separated at a low pressure using a vacuum thermal swing adsorption (VTSA) subsystem, without requiring further gas compression. The VTSA subsystem uses vacuum and thermal energy recovered by a waste heat recovery system to desorb N2, resulting in an effluent stream of H2. A portion of the electrical energy from the DAFC is used to operate the VTSA subsystem.

SMOKE PRODUCT, ELECTRONIC CIGARETTE OR HEATED TOBACCO PRODUCT WITH HYDROGEN INFUSION

Resumen de: WO2026226909A1

The following disclosure relates to smoking, heated tobacco, herbs and other substance, and electronic vaping products configured to enrich inhaled smoke or aerosol with hydrogen gas. A hydrogen generating unit based on a galvanic zinc–water electrochemical reaction is integrated into or used in combination with a combustible tobacco product, a heated tobacco device, or an electronic cigarette. The galvanic unit generates hydrogen gas, and in certain embodiments electrical energy, which is used to heat tobacco material or vaporize an e-liquid while releasing hydrogen into an airflow or aerosol stream during user inhalation. The device may include control elements such as vacuum sensors, electrical resistances, and electronic circuits to regulate hydrogen generation in response to airflow and prevent accumulation of hydrogen to ignitable concentrations. Controlled hydrogen enrichment of inhaled smoke or aerosol is allowed while maintaining safe operating conditions and compatibility with disposable or reusable smoking devices.

CATALYSTS, METHODS FOR MAKING SUCH CATALYSTS, AND USES FOR SUCH CATALYSTS IN AMMONIA CRACKING TO PRODUCE HYDROGEN

Resumen de: US20260335870A1

0000 Disclosed herein is a catalyst that may comprise a core portion, an intermediate shell layer, and an outer shell layer. The core portion may comprise alpha-alumina. The intermediate shell layer may surround the core portion. The intermediate shell layer may comprise an alkali metal oxide. The outer shell layer may surround the intermediate shell layer. The outer shell portion may comprise an alkali metal oxide and nickel oxide. The alkali metal oxide of the outer shell layer and the nickel oxide may be mixed in the outer shell layer. Also disclosed herein are methods of catalytically cracking ammonia with such catalysts, and methods for making such catalysts.

ELECTROLYZER SYSTEM AND METHOD OF OPERATING THEREOF WITH OXYGEN EXHAUST FLOW RESTRICTION

Resumen de: US20260337789A1

An electrolyzer system includes a hotbox, stacks of electrolyzer cells located in the hotbox and configured to receive steam and air, and to output a hydrogen stream and an oxygen exhaust, an air recuperator heat exchanger surrounding the stacks in the hotbox and configured to heat the air received by the stacks by extracting heat from the oxygen exhaust output from the stacks, an exhaust conduit configured to output the oxygen exhaust from the hotbox, and an exhaust restrictor configured to increase back pressure of oxygen exhaust flow between an outlet of the air recuperator heat exchanger and the exhaust conduit.

HYDROGEN PRODUCTION SYSTEM BASED ON SOLID OXIDE ELECTROLYSIS CELL AND OPERATION METHOD THEREFOR

Resumen de: WO2026222898A1

The present application relates to a hydrogen production system based on a solid oxide electrolysis cell and an operation method therefor. The system comprises an SOEC stack module, a fan, an electric air heater, a water vapor superheater, a deionized water pump, a first preheater, a second preheater, a steam generator, a condenser, a high-pressure hydrogen cylinder, a high-pressure protective gas cylinder, a compressed air cylinder, a first solenoid valve, and a second solenoid valve. The electric air heater is sequentially connected to the water vapor superheater and the SOEC stack module and can be used for heating the air and water vapor at an inlet of the SOEC stack module. In embodiments of the present application, the air and water vapor at the inlet of the SOEC stack module are heated using the electric air heater, so that the waste heat of a mixed gas at an outlet of the SOEC stack module is utilized in a cascade manner, thereby effectively improving the efficiency of hydrogen production by electrolysis, and effectively reducing power consumption. The system has a simple structural design, is easy to manufacture at low cost, and can meet the requirements of efficient and energy-saving hydrogen production by electrolysis.

BIPOLAR PLATE, SEALING ASSEMBLY, AND BIPOLAR PLATE ASSEMBLY

Resumen de: WO2026223700A1

The present invention relates to the technical field of hydrogen production equipment, and provides a bipolar plate, a sealing assembly, and a bipolar plate assembly. The bipolar plate is provided with an anode reaction region and a cathode reaction region. One end of the bipolar plate is provided with a first inlet and a first channel, and the other end of the bipolar plate is provided with a first outlet and a second channel. The first inlet and the second channel are symmetrical about the center of the bipolar plate. The first outlet and the first channel are symmetrical about the center of the bipolar plate. The first inlet and the first outlet are both in communication with the anode reaction region and disconnected from the cathode reaction region. The first channel and the second channel are both disconnected from the anode reaction region and the cathode reaction region. The present invention can reduce the temperature difference between the two ends of the bipolar plate, and reduce the temperature difference between two ends of a membrane electrode adjacent thereto, thereby prolonging the service life of the membrane electrode.

PRETREATMENT METHOD FOR PREPARING ULTRAPURE HYDROGEN AND ULTRAPURE OXYGEN

Resumen de: US20260337802A1

The present invention provides a pretreatment method for preparing ultra-pure hydrogen and ultra-pure oxygen, comprising steps: before desalinated water entering an electrolytic cell, desalinated water being fed into the top of a storage tank through a desalinated water pipe; at the same time, using hydrogen gas or oxygen gas as a stripping gas, being fed into the top of a storage tank through a gas supply pipe for performing atomization and stripping pretreatment of desalinated water; before desalinated water entering an electrolytic cell, hydrogen gas or oxygen gas being fed into the bottom of a storage tank through a gas supply pipe, using hydrogen gas or oxygen gas to perform bubbling, redundant stripping, and to provide a slightly-positive pressure blanketing on pre-treated desalinated water; performing water-mist separation on the exhaust of a storage tank, of which the water in supersaturated water vapor being captured and recycled to a storage tank. In the pretreatment method provided by the present invention, the desalinated water after stripping subsequently enters the electrolytic cell to be decomposed into hydrogen and oxygen, and then through catalytic deoxygenation/dehydrogenation, condensation drainage and molecular sieve adsorption drying, ultrapure hydrogen meeting the requirements of GB/T 3634.2-2011 and ultra pure oxygen meeting the requirements of GB/T 14599-2008 are produced, and at the same time, the production, equipment and maintenance costs are greatl

INTEGRATED MEMBRANE ELECTRODE ASSEMBLY AND PREPARATION METHOD THEREFOR, AND ALKALINE ELECTROLYZER

Resumen de: WO2026222856A1

Disclosed in the present invention are an integrated membrane electrode assembly and a preparation method therefor, and an alkaline electrolyzer. The integrated membrane electrode assembly comprises: a membrane, which comprises a first surface and a second surface disposed opposite each other, wherein electrolyte channels bringing the first surface into communication with the second surface are provided in the membrane, and the membrane comprises an electrolyte channel region located in the middle and a fixing region surrounding the electrolyte channel region; electrodes, which are disposed on the first surface and/or the second surface and cover the fixing region; and a first plastic layer, which is disposed in the electrolyte channels in the fixing region and extends to the first surface and/or the second surface to fix the membrane and the electrodes. In the present invention, the membrane and the electrodes are bonded and fixed by means of the first plastic layer to achieve an integrated design, thereby effectively reducing assembly procedures and difficulty, reducing assembly costs, and helping improve the assembly consistency and precision of the electrolyzer and the overall efficiency, gas purity and product quality stability of the electrolyzer.

PREPARATION METHOD FOR MAGNESIUM OXIDE WITH HIGHLY EXPOSED {111} CRYSTAL PLANES AND USE THEREOF

Resumen de: US20260337043A1

The present disclosure provides a preparation method for magnesium oxide with highly exposed {111} crystal planes and use thereof, the preparation method comprises the following steps: (1) uniformly mixing an aqueous solution of a surfactant with a mixed salt solution, and after a reaction, obtaining a precipitated suspension; wherein the mixed salt solution contains Mg2+, Zn2+, and Ba2+; and (2) allowing the precipitated suspension to stand for aging, then performing solid-liquid separation, drying, and calcination to obtain magnesium oxide with highly exposed {111} crystal planes. The magnesium oxide with highly exposed {111} crystal planes prepared by the present disclosure exhibits excellent catalytic performance, high activity, and strong stability when used as a catalyst support in ammonia decomposition for hydrogen production.

METHOD FOR PREPARING CATALYST FOR OXYGEN EVOLUTION REACTION IN WATER ELECTROLYSIS CELL, AND WATER ELECTROLYSIS CELL MEMBRANE-ELECTRODE ASSEMBLY AND WATER ELECTROLYSIS CELL, WHICH COMPRISE CATALYST PREPARED USING SAME

Resumen de: EP4830836A1

The present disclosure relates to a method for preparing a catalyst for an oxygen evolution reaction in a water electrolysis cell, and a water electrolysis cell membrane-electrode assembly and a water electrolysis cell, which comprise the catalyst prepared using same, and the method for preparing a catalyst for an oxygen evolution reaction in a water electrolysis cell comprises preparing a plurality of noble metal oxide seeds, and preparing a noble metal oxide aggregate by using the plurality of noble metal oxide seeds, thereby increasing the surface area thereof by means of pores between noble metal oxide particles, and thus performance and durability can be improved.

ELECTROCHROMIC DEVICE

Resumen de: EP4831354A1

0001 An embodiment of the present invention provides a catalyst composition comprising: a catalyst comprising a platinum group element; and a support comprising a post-transition metal and a metal oxide. In addition, other embodiments of the present invention provide: an anode comprising the catalyst composition; and water electrolysis comprising the anode.

ELECTROCHEMICAL CELL UNIT, STACK OF CELL UNITS, FLUID GUIDANCE INSERT, METHOD OF MANUFACTURE OF AN ELECTROCHEMICAL CELL UNIT, METHOD OF MANUFACTURE OF A STACK OF CELL UNITS

Resumen de: WO2025131321A1

The invention relates to a cell unit (12) comprising a cell layer (18) and an interconnector plate (28), wherein a periphery (22) of the cell layer (18) is attached to a periphery (30) of the interconnector plate, wherein a central portion (24) of the cell layer and a central portion (32) of the interconnector plate define a fluid volume (34) therebetween, and wherein a fluid guidance insert (52) is disposed in the fluid volumes, said fluid guidance insert defining a fluid channel system for conveying fluid between at least one fluid port of the cell unit and the fluid volume.

ION-CONDUCTING MEMBRANE AND METHOD FOR PREPARING SAME BY ELECTROSPINNING A POLYETHERSULFONE

Resumen de: WO2025131972A1

The invention relates to a method for preparing a membrane which comprises the following steps, in succession: preparing a layer of polyethersulfone nanofibres by electrospinning a polyethersulfone solution; heating the nanofibres to soften them; cooling the nanofibres; and impregnating the nanofibres with an ionomer to form the membrane. A membrane of this kind consists of polyethersulfone nanofibres that have points at which they join to the nanofibres adjacent to them. The membrane has ionic conductivity properties and can be used in a fuel cell or an electrolyser.

HYDROGEN PRODUCTION FACILITY COMPRISING HYDROGEN RECIRCULATION ASSEMBLY

Resumen de: WO2025131585A1

The invention relates to a hydrogen production facility (222) comprising a hydrogen recirculation assembly (100, 200). The hydrogen production facility (222) comprises at least one main compressor (226, 426) which is fluidically connected to at least one electrolyzer (224, 424) via a main hydrogen flow fluid network (232), wherein the hydrogen recirculation assembly (100, 200) comprises a first fluid inlet (102, 202) which can be connected to a first hydrogen leakage point (240) of the hydrogen production facility (222) and which is connected to at least one collecting container (106, 206) of the hydrogen recirculation assembly (100, 200) via at least one first fluid connection (110, 210); a second fluid inlet (104, 204) which can be connected to a second hydrogen leakage point (242) of the hydrogen production facility (222) and which is connected to the collecting container (106, 206) via at least one second fluid connection (112, 212); at least one recirculation compressor (108, 208) which is connected to the collecting container (106, 206) via at least one third fluid connection (114), and at least one first fluid outlet (118, 218) which can be connected to a main hydrogen flow fluid network (232) of the hydrogen production facility (222) and which is connected to the recirculation compressor (108, 208) via at least one fourth fluid connection (116).

ELECTROLYSER FOR ALKALINE HYDROGEN ELECTROLYSIS

Resumen de: WO2025129214A1

The invention relates to an electrolyser for alkaline hydrogen electrolysis, comprising: a direct voltage source, in particular a rectifier (1) having an electrical positive pole (2) and an electrical negative pole (3); media inlet lines (4) for an electrolysis medium; and media outlet lines (5) for product media; wherein a plurality of electrolysis blocks (6) which are connected in series via electrical connecting lines (9) are connected between the positive pole (2) and the negative pole (3), wherein the electrolysis blocks (6) each have a number of electrolysis cells (7) which are electrically connected in series and are mechanically clamped so that they are flush with one another, wherein the media inlet lines (4) and the media outlet lines (5) each extend serially through the electrolysis blocks (6) and are distributed within each individual electrolysis block (6) to individual cell inlet lines (4', 4") and individual cell outlet lines (5', 5") of the electrolysis cells (7).

STAINLESS STEEL MATERIAL FOR SOLID OXIDE TYPE WATER ELECTROLYSIS

Resumen de: EP4831328A1

0001 A stainless steel for solid oxide electrolysis cells contains, on a mass basis, C: 0.030% or less, Si: 0.20% or less, Mn: less than 0.30%, P: 0.050% or less, S: 0.0030% or less, Cr: from 19.0% to 24.0%, Mo: 2.5% or less, Al: from 0.01% to 0.15%, Mg: from 0.0001% to 0.0100%, N: 0.030% or less, Nb: 0.40% or less, Ti: 0.40% or less, Ni: 1.00% or less, and Cu: 1.00% or less, with the balance being Fe and impurities. In the stainless steel for solid oxide electrolysis cells, an average particle diameter of inclusions is from 0.2 µm to 3.0 µm, a number density of the inclusions is from 30 to 150 particles/mm<2>, an aspect ratio of the inclusions is more than 1.0 and less than 3.0, and a proportion, among inclusions, of Mg-containing inclusions having an Mg concentration of 0.5 mass% or more is 0.30 or more.

PRODUCTION OF SYNTHETIC FUELS FROM CO2 WITH CONVERSION OF BY-PRODUCTS AND SEPARATION OF CO2

Resumen de: WO2025132365A1

The invention relates to a device/method for capturing/converting CO2, comprising/using a CO2 capturing unit (2), a water electrolysis unit (5), an RWGS unit (8), an FT unit (13), a unit for converting by-products into syngas (28) and a hydrogen unit (20), in which a carbon dioxide separation unit (34) is arranged to: treat a first syngas (12) and a second syngas (29); produce a gaseous effluent depleted in carbon dioxide (18) and a gaseous effluent rich in carbon dioxide (35); and recycling the gaseous effluent rich in carbon dioxide (35) to the inlet of the RWGS section (8).

CATALYST FOR OXYGEN EVOLUTION REACTION OF WATER ELECTROLYSIS CELL, AND MEMBRANE-ELECTRODE ASSEMBLY FOR WATER ELECTROLYSIS CELL AND WATER ELECTROLYSIS CELL COMPRISING SAME

Resumen de: EP4831352A1

0001 The present disclosure relates to: a catalyst for an oxygen evolution reaction of a water electrolysis cell; and a membrane-electrode assembly for a water electrolysis cell, and a water electrolysis cell, comprising same. By modifying the surfaces of core particles included in the catalyst for an oxygen evolution reaction of a water electrolysis cell, so as to be hydrophobic, durability against water during a reaction can be improved, and at the same time bonding with ion conductor side chains can be increased, thereby improving performance and durability.

AN ELECTROLYSIS CELL STACK, A METHOD FOR DETECTING A LEAK AND USE OF AN ELECTROLYSIS CELL STACK

Resumen de: WO2025132935A1

Disclosed is an electrolysis cell stack (10) comprising a plurality of support structures (2) each including an inner aperture (3). The electrolysis cell stack (10) further comprises a plurality of cathodes (17), a plurality of anodes (18), a plurality of bipolar plates (4), a plurality of gas impermeable membranes (19), and pressing means 5 (20) arranged for pressing neighbouring support structures (2) of the plurality of support structures (2) against each other. Further, the electrolysis cell stack (10) comprises a liquid conduit (13) arranged between neighbouring support structures (2) of the plurality of support structures (2), wherein the liquid conduit (13) is arranged outside an outer periphery (40) of the inner aperture (3), deionized water (41) arranged 10 in the liquid conduit (13), and conductivity monitoring means (42) arranged for monitoring a conductivity of the deionized water (41). 0111 A method for detecting a leak in an electrolysis cell stack (10) and use of an electrolysis cell stack (10) is also disclosed.

MEMBRANE/CATALYST LAYER STRUCTURE, MEMBRANE/ELECTRODE ASSEMBLY, FUEL CELL, WATER ELECTROLYSIS CELL, AND WATER ELECTROLYSIS DEVICE

Resumen de: EP4831348A1

0001 Provided is a membrane/catalyst layer structure that can maintain a good power generation performance or good electrolysis performance on a long-term basis. The membrane/catalyst layer structure has a first catalyst layer disposed opposite a second catalyst layer, and a diaphragm containing at least a polymer electrolyte membrane is sandwiched therebetween. The first catalyst layer and the second catalyst layer contain, as a first metal, the element platinum and/or the element iridium. The first catalyst layer and/or the second catalyst layer further contains, as a second metal, at least one element selected from the group consisting of gold, silver, copper, nickel, palladium, cobalt, rhodium, iron, ruthenium, and osmium. The diaphragm contains a compound N having a nitrogen-containing heterocycle.

CATALYST FOR OXYGEN EVOLUTION REACTION OF WATER ELECTROLYSIS CELL, METHOD FOR MANUFACTURING SAME, AND MEMBRANE-ELECTRODE ASSEMBLY FOR WATER ELECTROLYSIS CELL AND WATER ELECTROLYSIS CELL COMPRISING SAME

Resumen de: EP4831353A1

0001 The present disclosure relates to: a catalyst for an oxygen evolution reaction of a water electrolysis cell; a method for manufacturing same; and a membrane-electrode assembly for a water electrolysis cell, and a water electrolysis cell, comprising same. More specifically, by manufacturing a catalyst for oxygen evolution reaction of a water electrolysis cell, having a structure in which active particles fill pores between nanoparticles of a support assembly manufactured in various forms or penetrate into the support assembly while being supported by the support assembly, performance is improved while reducing the amount of noble metal used. The active particles have stronger bonds than a form in which active particles are simply supported, and thus the active particles and the support assembly can have improved durability.

CATALYST FOR OXYGEN EVOLUTION REACTION OF WATER ELECTROLYSIS CELL, MANUFACTURING METHOD THEREFOR, MEMBRANE-ELECTRODE ASSEMBLY FOR WATER ELECTROLYSIS CELL INCLUDING SAME, AND WATER ELECTROLYSIS CELL

Resumen de: EP4831351A1

0001 The present disclosure relates to a catalyst for an oxygen evolution reaction of a water electrolysis cell, a manufacturing method therefor, a membrane-electrode assembly for a water electrolysis cell including same, and a water electrolysis cell. The catalyst for the oxygen evolution reaction of a water electrolysis cell includes a heterogeneous noble metal composite which has a nanowire shape and includes different first and second noble metal oxides in a node structure, whereby the catalyst can reduce the amount of the noble metals used while improving performance and can enhance performance and durability depending on the types and lengths of the noble metals forming the heterogeneous noble metal composite.

HYDROGEN REMOVAL LAYER, PREPARATION METHOD THEREFOR, HYDROGEN REMOVAL PROTON EXCHANGE MEMBRANE, MEMBRANE ELECTRODE, AND WATER ELECTROLYSIS HYDROGEN PRODUCTION APPARATUS

Resumen de: EP4831355A1

The present application relates to the technical field of water electrolysis for hydrogen production and discloses a hydrogen removal layer, a preparation method therefor, a hydrogen removal proton exchange membrane, a membrane electrode, and a water electrolysis hydrogen production apparatus. The hydrogen removal layer comprises the following components in parts by weight: 10-20 parts of a metal oxide, 10-20 parts of a catalyst, and 2-10 parts of an ionomer. The catalyst comprises at least one of a platinum black catalyst, an iridium black catalyst, and a palladium black catalyst. The hydrogen removal layer described in the present application can effectively reduce the hydrogen content in oxygen on the anode side of a proton exchange membrane.

LAMINATE, GAS DECOMPOSITION DEVICE, METHOD FOR DECOMPOSING OXYGEN COMPOUND GAS, AND METHOD FOR PRODUCING METHANOL

Resumen de: EP4831350A1

A laminate is provided that can electrolyze an oxygen compound gas, such as CO₂, with high conversion efficiency and can help prevent deterioration of electrolysis performance. In the laminate having a structure in which an electrolyte layer is sandwiched between an anode catalyst layer and a cathode catalyst layer, the cathode catalyst layer contains a perovskite oxide and CuFe₂O₄, and the content of CuFe₂O₄ in the cathode catalyst layer is 10 mass% or more.

HYDROGEN VENT SYSTEM

Resumen de: EP4831357A1

The present invention provides a hydrogen vent system for discharging hydrogen generated in a high-temperature water electrolysis stack to the outside, comprising: a first pipe unit connected to the high-temperature water electrolysis stack and having a curved portion; a drain line which is connected to the first pipe unit and through which condensed water is drained; and a discharge unit which is connected to the first pipe unit and which releases hydrogen upward into the air, wherein a surge tank that maintains pressure and moves the condensed water to the drain line is disposed in the first pipe unit.

PARTICULATE COMPOSITE IRIDIUM OXIDE MATERIALS AND PREPARATION METHOD AND APPLICATION THEREOF

Resumen de: NL2036587B1

The present application discloses a method for producing an iridium oxide film on a particulate substrate having an electrical conductivity of >0.01 S/cm (as detected by powder measurements) by chemical vapour deposition at a pressure in the range of from to 1010 KPa, comprising: (i) providing the particulate substrate in a reaction chamber; (ii) contacting the particulate substrate with a vaporized iridium oxide precursor gas, thereby forming a homogenously distributed film of iridium precursor material on the substrate; (iii) contacting the material comprising the homogenously distributed layer with a vaporized oxidant to allow the oxidant to react with the homogenously distributed iridium precursor film on the substrate; and (iv) optionally, repeating until steps (ii) to (v); to obtain a particulate material comprising a surface film of a desired thickness comprising homogeneously distributed discrete iridium oxide clusters with an average diameter in the range of from 0.5 to 5 nm.

AMMONIA CRACKING AND/OR FIRING INSTALLATION

Resumen de: EP4831113A1

The invention relates to an ammonia cracking and/or firing installation (1) comprising:- a pressure equipment (2) for containing liquid ammonia;- a basin (3) positioned beneath the pressure equipment (2), configured to collect and contain liquid ammonia in the event of a leak from the pressure equipment (2);- a safety enclosure (4) surrounding the pressure equipment (2) and arranged to contain ammonia spurts and any gaseous ammonia resulting from a liquid or gas leak from the pressure equipment (2).

CONTROL METHOD AND CONTROL DEVICE OF HIGH-TEMPERATURE WATER ELECTROLYSIS SYSTEM

Resumen de: EP4831356A1

0001 A control method of a high-temperature water electrolysis system, according to a first embodiment of the present invention, comprises the steps of: determining an operating temperature of a solid oxide water electrolysis stack in a high-temperature water electrolysis system including the solid oxide water electrolysis stack; selecting an operation mode of the solid oxide water electrolysis stack by comparing the operating temperature with a supply temperature of gas supplied to the solid oxide water electrolysis stack; determining a target voltage applied to the solid oxide water electrolysis stack according to the operation mode of the solid oxide water electrolysis stack; and applying the target voltage applied to the solid oxide water electrolysis stack in a step-up manner according to the operation mode of the solid oxide water electrolysis stack.

WATER ELECTROLYSIS STACK ASSEMBLY AND HOT BOX APPARATUS

Resumen de: EP4831349A1

0001 The present invention provides a water electrolysis stack assembly and a hot box apparatus. In an embodiment, provided is a water electrolysis stack assembly including: a case including an upper surface part, a side surface part, and a gas outflow pipe formed in the side surface part; and a stack accommodated in an inner space of the case, wherein a surface pressure is applied to the stack by the upper surface part of the case.

DEVICE FOR PRODUCING HYDROGEN FROM AMMONIA FOR SHIP

Resumen de: EP4831112A1

The present invention relates to a device for producing hydrogen from ammonia for a ship. According to the present invention, high-pressure hydrogen can be produced by using liquefied ammonia for a ship, and hydrogen can be economically produced by utilizing unconverted ammonia discharged from a decomposition reactor and off-gas discharged from a pressure swing adsorption device as a heat source for ammonia decomposition through a heat exchange network of the ship.

PROCESS FOR THE PRODUCTION OF HYDROGEN FROM AMMONIA

Resumen de: EP4574750A1

The invention relates to a process (1) for the production of hydrogen from ammonia comprising the following steps:- providing an ammonia feed stream to a reactor (2),- feeding an oxidant stream comprising oxygen to the reactor (3),- in a first zone of the reactor, non-catalytically partially oxidizing the ammonia feed stream with the oxidant stream (4), thus generating heat and producing a partially oxidized stream containing ammonia, nitrogen, water, amounts of nitrogen oxides, and potentially a residual portion of oxygen.- in a second zone of the reactor, homogenizing the temperature and concentration of the partially oxidized stream (5), thus producing an homogenized stream containing ammonia, nitrogen, and water,- in a third zone of the reactor, catalytically cracking ammonia contained in the homogenized stream in an endothermic reaction using the generated heat (6), thus creating a cracked gas product containing nitrogen and hydrogen- withdrawing the cracked gas product from the reactor (7).

PROCESS FOR PRODUCING CRACKED GAS PRODUCT COMPRISING HYDROGEN

Resumen de: EP4574751A1

0001 A process for producing a cracked gas product comprising hydrogen from an endothermic cracking reaction of an ammonia feedstock stream, said process comprising the following steps: - Recovering heat from said cracked gas product flowing in a cracked gas conduit (23) in a heat recovery step, - Redirecting the recovered heat to at least one secondary reactor in a heat redirection step, the secondary reactor comprising a gas reaction section in which a secondary catalytic endothermic conversion of the ammonia feedstock stream into the partially converted ammonia stream is performed, - Transferring the redirected heat to the secondary catalytic endothermic conversion through a thermal conductive layer at least partly delimiting the gas reaction section, in a heat transfer step the process comprising : - Performing a heat exchanges step by performing heat exchanges between the cracked gas product and the main catalytic endothermic conversion.

ELECTROCHEMICAL REACTIONS

Resumen de: WO2025129233A1

A process, a device and/or a system for flow based electrocatalytic chemical reactions, particularly hydrogenation reactions in a pH neutral or pH alkaline, and preferably, a high pH electrolyte, that is, an aqueous solution including a reactant, where electrolyte is either a water-in-oil emulsion or an oil- in-water emulsion.

AN ELECTROLYSIS CELL ELEMENT, AN ELECTROLYSIS CELL STACK, AND USE OF AN ELECTROLYSIS CELL STACK

Resumen de: WO2025132918A1

Disclosed is an electrolysis cell element (1) comprising, a support structure (2) comprising an inner aperture (3), and a bipolar plate (4) being suspended in the inner aperture (3). The support structure (2) comprises a structure core (5) and a coating (6), wherein the coating (6) includes a thermoplastic material at least partly enclosing the structure core (5) and wherein the bipolar plate (4) is suspended in the inner aperture (3) by means of the coating (6). An electrolysis cell stack (10) and use of an electrolysis cell stack (10) is also disclosed.

非相溶性ポリマー及び／又は他の非相溶性材料を含む複合材料

Resumen de: WO2025064735A1

Described herein are composites, methods of making composites, and methods of using composites. The composites include incompatible polymers and/or other incompatible materials. The composites are useful in a variety of industrial applications. The composites comprise a first component comprising a first material comprising a fluid-permeable portion and a second component comprising a second material incompatible with the first material; the first component and the second component are coupled at an interface comprising the second material contained in the fluid-permeable portion of the first material and the interface forms a third component that separates at least a portion of the first component from the second component.

電解システムおよび凝縮水排出方法

Resumen de: JP2026172741A

【課題】配管から凝縮水を好適に除去することが可能な電解システムおよび凝縮水排出方法を提供する。【解決手段】一の実施形態によれば、電解システムは、電解スタックを備える。前記システムはさらに、Ｕ字管を含む第１配管であって、前記電解スタックから排出されたガスを前記Ｕ字管を介して送気する第１配管を備える。前記システムはさらに、前記Ｕ字管の下流で前記第１配管に設けられた第１弁を備える。前記システムはさらに、前記第１弁の下流で前記第１配管に接続され、前記第１配管により送気される前記ガス中に生じた凝縮水を溜めるタンクを備える。前記システムはさらに、前記Ｕ字管と前記タンクとの間に設けられ、前記凝縮水を前記Ｕ字管から前記タンクに排出する第２配管を備える。【選択図】図３

多孔膜的使用方法、碱性水电解用隔膜和碱性水电解用电解槽

Resumen de: WO2025205879A1

The purpose of the present invention is to realize a diaphragm for alkaline water electrolysis having good airtightness even when a sheet-like gasket is used, and enabling execution of water electrolysis at a low cell voltage. A use method according to the present invention is characterized by using, as a diaphragm for alkaline water electrolysis, a porous film which contains a polyethylene, and in which the content of the polyethylene in resin components is 50 mass% or more, and the tortuosity is 3.00 or less.

電解システム

Resumen de: JP2026172111A

【課題】外部燃料等を使用することなく、待機運転時に電解モジュールを保温する。【解決手段】電解システムは、固体酸化物形の電解セルと燃焼部とこれらを収容するケースとを有する電解モジュールと、燃料供給系と、電源装置と、生成水素を回収する回収ラインと、回収ラインから分岐し、生成水素の少なくとも一部を電解セルと燃焼部とに還流させる還流ラインと、電解運転と待機運転とを選択的に実行可能な制御部とを備える。制御部は、電解運転において、燃料ガスを電解セルに供給し、水蒸気の電解に必要な電力を電解セルに供給し、生成水素の一部を回収すると共に生成水素の他の一部を電解セルと燃焼部とに還流させ、待機運転において、電解運転時よりも少量の水蒸気を含む燃料ガスを電解セルに供給し、水蒸気の電解に必要な電力を電解セルに供給し、生成水素の全てを電解セルと燃焼部とに還流させる。【選択図】図２

碱性水电解用隔膜、碱性水电解槽和多孔膜的使用方法

Resumen de: WO2025205878A1

The purpose of the present invention is to provide a diaphragm for alkaline water electrolysis that realizes a diaphragm which, even when used as a diaphragm for alkaline water electrolysis for a long time, can maintain high ion permeability and high gas barrier property and enables stable water electrolysis. This diaphragm for alkaline water electrolysis is characterized by comprising a porous film containing a polyolefin, wherein the peel strength in the film thickness direction of the porous film is 2.0 N or more.

ガス透過低減効果を有する触媒複合体及びこれを含む高分子電解質膜

Resumen de: US20260226639A1

0000 The present invention relates to a catalyst composite and a polymer electrolyte membrane including same, wherein the catalyst composite is manufactured by complexing platinum and a metal having a higher ionization tendency than platinum with a functional support. When applied to a polymer electrolyte membrane, the catalyst composite effectively reduces the gas permeating from the counter electrode.

碱性水电解用多孔质隔膜、使用了该碱性水电解用多孔质隔膜的碱性水电解部件、碱性水电解池、碱性水电解装置及氢的制造方法

Resumen de: WO2025205501A1

Provided are: a porous separator which is for alkaline water electrolysis and satisfies below; an alkaline water electrolysis member using the same; an alkaline water electrolysis cell; an alkaline water electrolysis device; and a hydrogen production method. The porous separator for alkaline water electrolysis has a thickness unevenness of 15% or less, obtained by immersing the separator in a 90°C 7 mol/L KOH aqueous solution and treating the separator under a pressurizing condition of 5 MPa for 60 minutes.

沼气升级为甲醇

Resumen de: CA3141818A1

The invention relates to a method for upgrading biogas to methanol, comprising the steps of:- providing a reformer feed stream comprising biogas, - optionally, purifying the reformer feed stream in a gas purification unit, - optionally, prereforming the reformer feed stream together with a steam feedstock in a prereforming unit, - carrying out steam methane reforming in a reforming reactor heated by means of an electrical power source, providing the synthesis gas to a methanol synthesis unit to provide a product comprising methanol and an off-gas. Then invention also relates to a system for upgrading biogas to methanol.

一种电解水制氢用电解槽

Resumen de: CN116516365A

The invention discloses an electrolytic cell for hydrogen production through water electrolysis, and relates to the technical field of hydrogen production through water electrolysis, the electrolytic cell comprises an electrolytic cell body, the upper surface of the electrolytic cell body is provided with a top cover for sealing the top opening part of the electrolytic cell body, and two binding posts and two exhaust pipes are fixed on the top cover; and the top cover is provided with a first heat dissipation assembly which is used for dissipating heat of the binding post so as to reduce the possibility that the binding post is heated to damage the electrolytic cell body and the top cover, and the binding post is subjected to heat dissipation under the action of the first heat dissipation assembly. And the possibility that the electrolytic bath body and the top cover are damaged due to the fact that the binding posts are heated and cannot dissipate heat in the working process is reduced, the utilization rate of the device is increased, and the safety of the device is improved.

Verfahren zum Betrieb einer Elektrolysevorrichtung

Resumen de: DE102025114944A1

Die Erfindung geht aus von einem Verfahren zum Betrieb einer Elektrolysevorrichtung (10), insbesondere Festoxid-Elektrolyseurzelle, mit zumindest einer Reaktionseinheit (12), welche zumindest zwei Elektroden (14, 16) aufweist, wobei in zumindest einem Betriebszustand zwischen den zwei Elektroden (14, 16) eine Zellspannung (18) anliegt, mittels welcher durch eine Elektrolyse Wasserstoff (38) aus Wassermolekülen (20) abgespalten wird.Es wird vorgeschlagen, dass in zumindest einem Verfahrensschritt (30) einer von zumindest drei Betriebsparametern (24, 26, 28) derart eingestellt wird, dass einer Spannungserhöhung der Zellspannung (18) infolge einer Degradation der Elektroden (14, 16) entgegengewirkt wird.

Verfahren und Vorrichtung zur berührungslosen Messung des elektrischen Widerstands einer Komponente einer Elektrolyseanlage

Resumen de: DE102025115102A1

Die Erfindung betrifft ein Verfahren zur berührungslosen Messung des elektrischen Widerstands einer Komponente einer Elektrolyseanlage zum elektrochemischen Zerlegen von Wasser zu Wasserstoff und Sauerstoff, umfassend folgende Schritte:- (S1) ein Magnetfeld wird erzeugt, indem Wechselstrom generiert wird und durch eine Spule geleitet wird,- (S2) die Komponente wird ins Magnetfeld eingebracht,- (S3) Änderungen des Magnetfelds hervorgerufen durch die Komponente werden von mindestens einem Sensor erfasst, und- (S4) die erfassten Magnetfelddaten werden zur Berechnung des elektrischen Widerstands der Komponente verwendet.

A PROCESS AND A PLANT FOR SYNTHESIS OF AMMONIA

Resumen de: WO2026220024A1

A process for the synthesis of ammonia comprising: reacting a synthesis gas including hydrogen and nitrogen in an ammonia converter of an ammonia synthesis loop to form an ammonia-containing stream; at least one reaction heat recovery step for recovering heat generated by the reaction; wherein each reaction heat recovery step is performed by transferring heat from the ammonia-containing stream to a heat-receiving stream at heat transfer temperature, which is the temperature of the heat-receiving stream after the heat recovery step; performing an ammonia absorption refrigeration process operating with a water-ammonia solution as internal working fluid to produce refrigeration; wherein at least one reaction heat recovery step having a heat transfer temperature of at least 120 °C is arranged to transfer recovered heat to the ammonia absorption refrigeration process; wherein refrigeration produced by said ammonia absorption refrigeration process is used for cooling at least one stream of the ammonia synthesis process obtaining a first cooled stream.

SYSTEM FOR PERFORMING INTENSIFIED CARBON DIOXIDE CO-ELECTROLYSIS

Resumen de: US20260327815A1

0000 A system for producing syngas from an industrial CO<2>-containing gas stream includes a CO<2 >capture system (CCS) integrated with an electrochemical conversion system (ECS). The CCS captures CO<2 >from an industrial CO<2>-containing gas stream to produce a captured CO<2 >stream. A flow system flows the captured CO<2 >stream to the electrochemical conversion system. A membrane contactor of the CCS is configured to facilitate transfer of CO<2 >from the industrial CO<2>-containing gas stream and to an aqueous capture solution stream to produce a captured CO<2 >stream. An electrochemical cell of the electrochemical conversion system has a cathode inlet and outlet. The cathode inlet receives the captured CO<2 >stream from the flow system and the cathode outlet outputs syngas generated from the electrolysis of water and CO<2 >reduction by a cathode of the electrochemical cell.

SYSTEMS AND METHODS FOR ELECTROLYTIC SYNGAS PRODUCTION

Resumen de: US20260327825A1

The present disclosure relates generally to electrochemical systems for syngas production, and more particularly to a bipolar membrane electrode assembly configured to produce syngas by coupling bicarbonate electrolysis at a cathode with aldehyde oxidation at an anode. An electrochemical system for producing syngas includes a cathode configured to receive a carbon dioxide-containing feedstock and to electrochemically reduce carbon dioxide to produce carbon monoxide. The system includes an anode configured to receive an organic compound and to electrochemically oxidize the organic compound to produce hydrogen gas. The system includes a bipolar membrane positioned between the cathode and the anode, the bipolar membrane configured to facilitate water dissociation and ion transport between the cathode and the anode. The carbon monoxide produced at the cathode and the hydrogen gas produced at the anode combine to form syngas.

AMMONIA DECOMPOSITION CATALYST, METHOD FOR PRODUCING SAME, AND METHOD FOR PRODUCING HYDROGEN

Resumen de: WO2026220900A1

An ammonia decomposition catalyst according to the present invention comprises: a carrier containing a metal oxide; and elemental ruthenium, a first accelerator, and a second accelerator which are supported on the carrier. The first accelerator is at least one element selected from the group consisting of alkali metal elements and alkaline earth metal elements. The second accelerator is at least one element selected from the group consisting of elemental titanium, elemental zirconium, and elemental hafnium. The second accelerator is at least one element selected from the group consisting of elemental titanium and elemental zirconium.

A HYDROGEN EVOLUTION REACTION ELECTROCATALYST AND METHODS FOR PREPARATION AND USE THEREOF

Resumen de: AU2025236715A1

The invention relates to a catalyst for the hydrogen evolution reaction (HER) and methods for using the catalyst in a water-splitting process. A hydrogen evolution reaction (HER) electrocatalyst, and a method and use for preparing a HER electrocatalyst are disclosed. The method comprises the step of forming a two-dimensional electron gas (2DEG) interface at a heterojunction of at least one of two or more alternating layers of a first complex oxide and a second complex oxide, wherein the or each 2DEG interface exhibits a current density, corresponding to an intrinsic hydrogen evolution reaction (HER) activity that renders the 2DEG interface(s) suitable as an HER electrocatalyst for producing hydrogen (H2) from a water-based electrolyte by water electrolysis.

AMMONIA CRACKING SYSTEM WITH ENHANCED ENERGY EFFICIENCY AND RELATED PROCESS

Resumen de: WO2026219979A1

The present invention refers to a process and a system for producing hydrogen involving ammonia cracking, starting with the vaporization of a liquid ammonia feed into a gaseous stream. This stream may be pre-converted into a pre-cracked gas comprising ammonia, hydrogen, and nitrogen before being cracked in a reactor with a catalyst bed to produce a process gas containing hydrogen, nitrogen, and unreacted ammonia. The process gas is cooled and separated into a hydrogen-rich stream and a hydrogen-depleted off-gas stream. The cracking preferably occurs at temperatures between 750°C to 800°C and pressures of 25-45 bar g, with unreacted ammonia limited to up to 1 vol.%. The system includes an evaporator, optional pre-converter, ammonia cracking reactor, cooling section, and separation section, facilitating the conversion of ammonia into hydrogen efficiently.

FUEL GENERATOR

Resumen de: US20260327811A1

0000 A fuel generator is provided herein. The fuel generator comprises an electrical conductor, a hollow tube electrically connected to the electrical conductor, and a rod electrically connected to the electrical conductor. The rod is positioned within the hollow tube, and the rod and the hollow tube are electrically isolated from each other. The fuel generator further comprises a fluid port operatively connected to the hollow tube, wherein the fluid port is configured to allow water to enter a space between the rod and the hollow tube. The fuel generator also comprises a chamber operatively connected to the space between the rod and the hollow tube, wherein the chamber is configured to receive gas generated within the hollow tube.

AMMONIA DECOMPOSITION SYSTEM

Resumen de: WO2026220656A1

This ammonia decomposition system comprises: an ammonia decomposition reactor; an absorption column; a regeneration column; a condenser that condenses a regeneration column discharge gas by cooling the same; a reflux drum that discharges a separated discharge gas obtained by separating liquid ammonia from the condensed regeneration column discharge gas and supplies the separated discharge gas to the ammonia decomposition reactor; a supply line that supplies a treatment target gas containing ammonia to the regeneration column; and a regeneration column discharge gas supply line that supplies a portion of the regeneration column discharge gas to the ammonia decomposition reactor before supplying the same to the condenser. The regeneration column can heat an absorption liquid and the treatment target gas. The regeneration column discharge gas supply line supplies a portion of the heated treatment target gas and the regeneration column discharge gas to the ammonia decomposition reactor.

REGENERABLE SYSTEM FOR SOLID-STATE HYDROGEN STORAGE

Resumen de: WO2026220324A1

The present invention relates to a regenerable system for the storage of hydrogen in the solid state comprising a layered composite material comprising at least five layers, wherein the two outermost layers of the layered composite material comprise microcrystalline cellulose, the innermost layer of the layered composite material comprises at least one hydrogenated chemical compound of boron and nitrogen and between each outermost layer of the layered composite material and the innermost layer of the layered composite material there is an intermediate layer comprising a metal catalyst for hydrogenation and dehydrogenation. A method for obtaining hydrogen by means of such a system is further described.

HYDROGEN PURIFICATION SYSTEMS

Resumen de: US20260326032A1

0000 A hydrogen purification system includes at least one controller configured to receive a first outlet signal and a second outlet signal and determine an outlet moisture content based on the first outlet signal and the second outlet signal. The controller is configured to receive an inlet signal and determine an inlet hydrogen mixture temperature based on the inlet signal and determine, using a conversion efficiency lookup table, a conversion efficiency of a deoxidizer based on the inlet hydrogen mixture temperature. The controller is further configured to determine a first amount of moisture stored in a dryer based on an outlet moisture content and the conversion efficiency, and after determining that the first amount of moisture is greater than or equal to a threshold, cause a heater to provide heat to the first amount of moisture.

ELECTROLYSIS DEVICE FOR PRODUCING GREEN HYDROGEN DIRECTLY FROM SEAWATER

Resumen de: WO2026221518A1

The present invention relates to the development of a new catalyst and system for producing green hydrogen directly from seawater, without requiring seawater desalination, using alkaline electrolysis. The invention is based on hydrazine-enhanced seawater electrolysis for green hydrogen production, using a highly efficient catalyst composed of palladium and nickel hydroxide (Pd-Ni(OH)2). The technology is aimed at overcoming the challenges of conventional seawater electrolysis, such as molecular chlorine formation and electrochemical erosion, using low concentrations of liquid hydrazine as a chemical reaction aid to reduce the potential difference required at the electrode. Nanometric Pd-Ni(OH)2 is prepared, and a low concentration of liquid hydrazine is used. This hybrid system delivers an electric current of 1.1 A at a low voltage of 0.9 V, i.e. electricity use for hydrogen production is reduced by 60% and hydrogen production efficiency is increased by 50% in comparison with a commercial electrolyser that uses pure water. In addition, a very low potential difference of -1225 mA/cm-2 is achieved, thereby preventing chlorine gas formation, which usually occurs at 490 mA/cm-2.

METHOD FOR INTENSIFIED CARBON DIOXIDE CO-ELECTROLYSIS

Resumen de: US20260327813A1

A method for producing syngas from an industrial CO2-containing gas stream involves directing the gas stream and an aqueous capture solution stream to a membrane contactor to facilitate CO2 transfer, producing a CO2-lean gas stream and a CO2-rich solution stream. The CO2-rich solution stream is then directed to an electrochemical cell where CO2 is reduced to CO and water is electrolyzed to produce H2 and O2, resulting in syngas (CO and H2) and a CO2-lean aqueous capture solution stream.

HYDROGEN PRODUCTION AND APPARATUS

Resumen de: WO2026219975A1

A method for production of pressurised hydrogen, the method comprising: providing a catalyst for conversion of ammonia to hydrogen and nitrogen; contacting a pressurised reaction stream comprising ammonia with the catalyst to convert at least a portion of the ammonia into hydrogen in a reaction zone; and obtaining a hydrogen product stream comprising pressurised hydrogen by selectively driving hydrogen from the reaction zone through a hydrogen-selective membrane under a pressure differential between a reaction-side pressure of the reaction stream and a product-side pressure of the hydrogen product stream; wherein the product-side pressure is at least 30 bar a.; and apparatus therefor.

RUTHENIUM ATOMIC CLUSTER COMPOSITE CATALYST FOR HYDROGEN PRODUCTION BY MEANS OF AMMONIA DECOMPOSITION, AND PREPARATION METHOD THEREFOR

Resumen de: WO2026219266A1

Provided are a ruthenium atomic cluster composite catalyst for hydrogen production by means of ammonia decomposition, and a preparation method therefor. The preparation method comprises: dispersing tripolycyanamide, cyanuric acid and an amino acid in an aqueous solution of methanol, and stirring same to form a mixed system; adding a rare earth metal precursor salt to the mixed system, continuously stirring same, heating same to evaporate the solvent, grinding a resulting white solid into powder, and transferring same to a high-temperature environment for pyrolysis, so as to obtain a nitrogen-rich carbon support that has been modified by a rare earth element; and dissolving a ruthenium precursor salt and urea in deionized water to form an impregnation solution, adding the nitrogen-rich carbon support that has been modified by a rare earth element to the impregnation solution, performing impregnation under stirring, and washing, drying and roasting a solid collected from filtration, so as to obtain a catalyst. In the present invention, on the basis of the characteristic of a high specific surface area of the nitrogen-rich carbon support and the modification of the electronic state of active sites, i.e., ruthenium atomic clusters, with rare earth elements, the amount of ruthenium is reduced, and NH3 adsorption performance and N-H bond cleavage capability are improved, thereby achieving efficient catalytic promotion of ammonia decomposition for hydrogen production under low-tempe

MIXED MOLTEN SALT METHOD FOR RAPID PREPARATION OF SHORT-RANGE ORDERED IRIDIUM OXIDE FOR PEM WATER ELECTROLYSIS

Resumen de: WO2026218370A1

The present invention belongs to the technical field of the preparation of catalytic materials. Disclosed is a mixed molten salt method for the rapid preparation of short-range ordered iridium oxide for PEM water electrolysis. The method can achieve the preparation of short-range ordered iridium oxide within 20 minutes to 2 hours. A high-melting-point mixed molten salt is introduced as a reaction medium to promote the uniform dispersion of an iridium salt, thereby effectively reducing agglomeration and improving the preparation efficiency; a morphology control template is not needed, thereby simplifying the process and reducing costs; and by adjusting reaction parameters, the morphology and size of iridium oxide can be flexibly regulated and controlled, the particle size of a single nanograin is 1.7-2.7 nm, and a short-range ordered structure is formed. The short-range ordered iridium oxide provides more active sites, has improved structural stability and good dispersity, can be directly used as a catalyst slurry, and achieves high catalytic activity with ultralow loading. When the short-range ordered iridium oxide is applied to anode catalytic materials for hydrogen production by means of proton exchange membrane water electrolysis, the catalyst cost is reduced, the energy conversion efficiency is improved, and an electrolyzer can reach a high current density under a low voltage and exhibit stable performance, which help to promote the development of green hydrogen economy.

GAS PRESSURE BALANCE METHOD IN AN ELECTROLYSER SYSTEM AND ELECTROLYSER SYSTEM WITH A PRESSURE BALANCE VALVE SYSTEM

Resumen de: US20260327827A1

0000 In a gas pressure balance method in an electrolyser system a predefined pressure difference between pressures in an oxygen gas separation tank and a hydrogen gas separation tank is maintained by controlled release of gases through an oxygen back pressure valve and a hydrogen back pressure valve. in a first step, for each of the oxygen back pressure valves and the hydrogen back pressure valves, a predefined, calibrated pilot gas pressure is generated and in a second step, the predefined, calibrated pilot gas pressures are forwarded to the respective back pressure valves and in a third step, hydrogen and oxygen gasses are released whenever the gas pressures in the hydrogen and oxygen separation tanks exceeds the predefined, calibrated pilot pressure in the respective pilot gas streams.

RECYCLING OF CATALYST COATED MEMBRANE COMPONENTS

Resumen de: US20260327746A1

A method of recycling a waste catalyst coated membrane, wherein the waste catalyst coated membrane comprises a membrane including a membrane ionomer, a first catalyst layer disposed on one side of the membrane, the first catalyst layer comprising a first catalyst and a first catalyst layer ionomer, and a second catalyst layer disposed on an opposite side of the membrane, the second catalyst layer comprising a second catalyst and a second catalyst layer ionomer. The method is configured to recover the first and second catalyst layer ionomers in addition to the catalyst materials and membrane ionomer.

WATER ELECTROLYSIS SYSTEM AND METHOD FOR CONTROLLING SAME

Resumen de: US20260327812A1

0000 A water electrolysis system includes a plurality of water electrolysis stacks connected in series to a DC power supply, a plurality of gas storage tanks (e.g., a hydrogen gas tank, a low-pressure hydrogen gas tank) for storing a gas generated in the water electrolysis stacks, a first gas pressure adjustment mechanism (e.g., a hydrogen gas tank pressure adjustment valve) for adjusting pressure of the gas generated in the entire plurality of water electrolysis stacks, a plurality of second gas pressure adjustment mechanisms (e.g., a water electrolysis stack hydrogen gas pressure adjustment valve, a water electrolysis stack low-pressure hydrogen gas pressure adjustment valve) for adjusting pressure of a gas generated in each of the water electrolysis stacks, and a control device for controlling the first gas pressure adjustment mechanism and the second gas pressure adjustment mechanism.

WATER ELECTROLYSIS SYSTEM

Resumen de: US20260327829A1

0000 A serially connected stack group is configured by serially connecting a plurality of water electrolysis stacks and at least one overcurrent interruption means, a series-parallel stack unit is configured by parallelly connecting at least three serially connected stack groups, and a water electrolysis stack group configured by serially connecting a plurality of the series-parallel stack units, is connected to a DC power supply.

ON-SITE ELECTRICITY GENERATION WHICH IS NOT CONNECTED TO AN ELECTRICAL GRID FROM METHANE OR METHANOL AND HAS CARBON DIOXIDE CIRCULARITY

Resumen de: US20260331540A1

0000 An electricity generation plant, comprising two units and, a first unit and a second unit, which are located on two separate industrial sites having a first unit comprising a synthesis device which is capable of producing methane or methanol from hydrogen and carbon dioxide originating from a second unit, and the second unit comprising a fuel cell device which is capable of supplying an electric current from methane or methanol originating from the first unit and an anode gas stream comprising carbon dioxide, the fuel cell device being combined with a collecting device for collecting the carbon dioxide in the anode stream that is intended for the first unit.

ELECTROLYSER, AND METHOD FOR OPERATING AN ELECTROLYSER

Resumen de: US20260327810A1

0000 The invention pertains to an electrolyzer designed for water splitting into hydrogen and oxygen using electric current. It consists of multiple electrolysis cells grouped into stacks, each featuring a proton-permeable polymer membrane with electrodes on both sides. Water is supplied to the anode chamber, and generated oxygen is discharged from it, while hydrogen is discharged from the cathode chamber. A control system manages the operation of the electrolysis stacks, ensuring safe operation by maintaining a higher pressure in the anode chamber compared to the cathode chamber. The anode chamber pressure is set to be 2 to 20 times, preferably 4 to 7 times, higher than the cathode chamber pressure. This design minimizes the negative effects of membrane damage during operation. The system also allows for water circulation in both chambers and includes a recombination catalyst in the hydrogen product line to recombine hydrogen and oxygen into water.

CATALYTIC DECOMPOSITION OF AMMONIA WITH WATER VAPOUR AS HEAT TRANSFER MEDIUM

Resumen de: US20260327070A1

In a plant and a method for producing H2 by catalytic decomposition of NH3, water serves as heat transfer medium for recovering process heat. The process heat is absorbed by water or steam and then released to NH3, resulting in heating and evaporation of NH3. The use of water or steam as heat transfer medium has benefits, including in terms of economic viability and safety.

AN ELECTROLYTIC CELL AND METHOD OF ELECTROLYSIS

Resumen de: US20260327816A1

0000 The invention provides an electrolytic cell, comprising: a working electrode; a counter electrode; a liquid electrolyte in contact with a working surface of the working electrode; an acoustically transmissive substrate comprising at least a piezoelectric substrate portion; one or more conductive electrodes coupled to the piezoelectric substrate portion and configured to propagate a high frequency acoustic wave having a frequency of at least 1 MHz across the acoustically transmissive substrate when electrically actuated; and one or more power supplies configured (i) to apply a potential between the working electrode and the counter electrode sufficient to electrolytically react a species in the liquid electrolyte, thereby producing an electrolytic reaction product proximate the working electrode, and (ii) to electrically actuate the one or more conductive electrodes, wherein the working electrode is either located on the acoustically transmissive substrate or spaced apart from the acoustically transmissive substrate by the liquid electrolyte, and wherein propagation of the high frequency acoustic wave across the acoustically transmissive substrate in operation of the electrolytic cell stimulates the liquid electrolyte, thereby increasing the production efficiency of the electrolytic reaction product.

ELECTROLYSIS DEVICE

Resumen de: US20260327830A1

An electrolysis device of the present disclosure includes an electrolytic cell, an electrolyte supply unit, and an ion concentration adjustment unit. The electrolytic cell includes an anode chamber, a cathode chamber, and an ion exchange membrane disposed between the anode chamber and the cathode chamber. The electrolyte supply unit includes at least one tank accommodating an electrolyte, circulates a portion of the electrolyte as a first electrolyte between the at least one tank and the anode chamber, and circulates another portion of the electrolyte as a second electrolyte between the at least one tank and the cathode chamber. The ion concentration adjustment unit supplies an adjustment solution for adjusting a hydrogen ion concentration to the electrolyte supply unit.

A NON-METALLIC ELECTRODE FRAME FOR NON-METALLIC SQUARE ATMOSPHERIC PRESSURE ALKALINE ELECTROLYZER

Resumen de: AU2026202462A1

This invention provides a non-metallic electrode frame for non-metallic square atmospheric pressure alkaline electrolyzers, belonging to the field of electrolytic cell technology. The frame comprises a main body and assembly auxiliary components. The main body contains: a cathode liquid outlet main channel, cathode liquid outlet channel, cathode liquid inlet main channel, cathode liquid inlet channel, anode liquid outlet main channel, anode liquid outlet channel, anode liquid inlet main channel, and anode liquid inlet channel. The assembly auxiliary components include a first connector, a second connector, and an adjustment rod. The second connector is welded with a movable plate adjacent to its side, which is inserted into the first connector. The adjustment rod is inserted into a through hole in the movable plate, with its outer end fitted with a locking tube. The assembly auxiliary components allow flexible adjustment of the electrode frame's assembly quantity while enhancing its load-bearing capacity. This ensures the frame remains deformed-free under atmospheric pressure, effectively addressing issues such as deformation caused by pressure or assembly stress, which may compromise sealing performance and hinder stacking assembly. ar a r a r

HYDROPHILIC MEMBER WITH CATION AND ANION CONDUCTING MEMBRANES

Resumen de: US20260327817A1

0000 Described herein are membrane assemblies for use in generating hydrogen and oxygen. The membrane assemblies include a cation exchange membrane, an anion exchange membrane, and a hydrophilic layer disposed between the anion exchange membrane and the cation exchange membrane.

MECHANICAL RENEWABLE GREEN ENERGY PRODUCTION

Resumen de: US20260328261A1

0000 A renewable energy generation system includes a drive motor, a flywheel in mechanical communication with the drive motor, a generator in mechanical communication with the flywheel, a charge controller in electrical communication with the generator, a plurality of charge controller switches in electrical communication with the charge controller, a plurality of batteries in electrical communication with a respective charge controller switch, and a power management module in electrical communication with the plurality of charge controller switches. The drive motor effectuates rotation of the flywheel to generate stored rotational energy which is transferred to the generator as a load is placed upon the generator to maintain a constant speed of the drive motor. The power management module selectively opens or closes a charge controller switch to permit or inhibit the flow of electrical energy to a respective battery to reduce the electrical load placed upon the generator and drive motor.

HYDROGEN PRODUCTION SYSTEM AND HYDROGEN PRODUCTION METHOD

Resumen de: EP4826130A1

According to exemplary embodiments of the present invention, a hydrogen production system is provided. The hydrogen production system comprises: a dry quenching facility configured to cool coke using a cooling gas; a boiler configured to receive the cooling gas from the dry quenching facility and recover heat energy of the cooling gas to produce first steam and electric power; and a water electrolysis facility configured to receive the electric power from the boiler and electrolyze second steam to produce hydrogen. According to other exemplary embodiments of the present invention, a method for producing hydrogen is provided.

アルカリ性媒体を用いる電解槽スタック

Resumen de: EP4538424A1

0001 The various embodiments of the present invention disclose an electrolyser stack, preferably water electrolyser using alkaline medium, comprising: a first end plate and a second end plate and a plurality of cells stacked in-between the first and the second end plate. Each cell comprises an anode cell frame and a cathode cell frame, each cell frame further comprises a central opening, at least one inlet channel transversing through the cell frame, and at least one inlet pathway grooved in the cell frame for connecting the inlet channel to the central opening. The inlet pathway comprises an inlet orifice characterized by a minimum cross-sectional area in the inlet pathway. The cross-sectional area of the inlet channel in the stack is greater than the sum of the cross-sectional area of the plurality of inlet orifices in the stack.

Hidrojen Üretim Hücreleri İçin Akıllı Sürücü Ve Koruma Sistemi

Resumen de: TR2026013855A2

PEDAL TETİKLEMELİ, KADEMELİ HİDROJEN ÜRETİM VE TAKVİYE SİSTEMİ Bu buluş, içten yanmalı motorlarda %15 yakıt tasarrufu sağlamak amacıyla geliştirilmiş; sürücünün gaz pedalına basma durumuna tam bağımlı olarak çalışan, pedal bırakıldığında (rölanti durumunda) hidrojen üretimini ve akım çekimini tamamen durduran (0 Amper), gaza basıldığında ise pedal konumuna göre kademeli (1., 2. ve 3. kademe) olarak hidrojen gazı üreten ve takviye eden pedal tetiklemeli bir sistemdir. Sistem, frekans modülasyonlu elektronik sürücü devresi sayesinde maksimum 1.5 Amper gibi ultra düşük bir akım çekerek çalışmakta, alternatör yükünü ve hücre ısınmasını önleyerek emme manifolduna beslenen hidrojen ile motor verimini artırmaktadır.

BIPOLAR PLATE, ELECTROCHEMICAL REACTION DEVICE AND PREPARATION METHOD

Resumen de: EP4826135A1

0001 The present disclosure provides a bipolar plate, an electrochemical reaction device and a preparation method, wherein the preparation method of the bipolar plate comprises: providing a cathode plate and an anode plate, aligning the cathode plate and the anode plate and applying pressure to keep the cathode plate and the anode plate in contact, and laser welding and laser nitriding the aligned plates under a nitrogen atmosphere.

H2 RELEASE

Resumen de: EP4825794A1

The present invention relates to a catalyst-free hydrogen releasing method comprising: providing (100) a polysiloxane hydrogen carrier; contacting (200) a proton source with the polysiloxane hydrogen carrier thereby obtaining a polysiloxane mixture; pressurizing (300) the polysiloxane mixture at a pressure of higher than 1 bar; and heating (400) the polysiloxane mixture at a temperature of at least 100°C; thereby obtaining a gaseous

PROCESS FOR PRODUCING A HYDROGEN PRODUCT

Resumen de: EP4825793A1

Process for producing a hydrogen product from an ammonia feed stream (2), the process comprising the following steps:- introducing the ammonia feed stream (2), or a gas derived therefrom, into a cracker unit (3) for performing a cracking reaction of said stream into a cracked gas (4) comprising hydrogen and nitrogen,- cooling at least a portion of the cracked gas (4) in a cracked gas cooler (6) by heat exchange with a at least a portion of the ammonia feed stream (2),- directing a controllable portion (7) of the cracked gas (4) through a cracked gas cooler bypass (15), thus diverting said controllable portion (7) from the cracked gas cooler (6).

CONTROLLING OF AN ELECTROLYZING PLANT

Resumen de: EP4826940A1

0001 The invention relates to a method of controlling an electrolyzing plant (10) having plural electrolyzing cells (14) providing an electrolyzing process in response to being subjected to a DC electrolyzing power, wherein the electrolyzing plant is supplied with electric power from an electric power network (12) deploying an alternating voltage, wherein a transformer (32) has a primary winding (38) connected with the electric power network, wherein the primary winding (38) has several taps (30), and a secondary winding (40) connected with an AC side (22) of an electric converter (20), and a DC side (24) of the electric converter (20) provides the DC electrolyzing power, wherein an on-Ioad-tap-changer (28) is connected with the taps, wherein a control apparatus (36) controls the on-Ioad-tap-changer. The on-Ioad-tap-changer (28) has switching apparatuses (S1, S2, S3, S4, S5, S6) for the taps, wherein each of the switching apparatuses comprise at least one solid-state switching element.

金属酸化物、水の分解方法及び水素の製造方法

Resumen de: JP2026170117A

【課題】新規な金属酸化物を提供する。【解決手段】Ａｌ３＋イオンと、最外殻のｄ軌道の電子配置がｄ１０である少なくとも２種の金属イオンＭｄ１０と、を含み、ＣｕＫα線を用いたＸ線回折装置により測定されるＸ線回折パターンにおいて、２θ＝３０．４０°～３１．６０°に最も高い強度を有する回折ピークが観測され、前記回折ピークの半値幅が０．１６°以上である、金属酸化物。【選択図】なし

水素生成装置

Resumen de: JP2026169862A

【課題】エネルギー効率を向上させる。【解決手段】水素生成装置１００は、固体炭素が収容される第１空間１２０、および、液体の水Ｗが収容される第２空間１３０が形成されている容器１１０と、容器１１０内にマイクロ波を照射する照射装置１５０と、を備え、第１空間１２０は、第１空間１２０および第２空間１３０に固体炭素および水Ｗがそれぞれ収容された収容状態で、マイクロ波が照射される位置に設けられ、第２空間１３０は、収容状態で、マイクロ波が照射されない位置に設けられる。【選択図】図１

GREEN HYDROGEN, SYNTHESIS GAS WITH A REDUCED NITROGEN CONTENT, AND FLUE GAS FOR THE SYNTHESIS OF AMMONIA AND UREA

Resumen de: AU2024399298A1

The invention relates to the synthesis of urea from ammonia and carbon dioxide, wherein the hydrogen required for ammonia synthesis is obtained both by steam reforming of feed natural gas (grey hydrogen) and by electrolysis of water using electricity from renewable energy sources (green hydrogen). As the proportion of green hydrogen increases, the amount of carbon dioxide formed in the synthesis gas during steam reforming is no longer sufficient for the synthesis of urea. Therefore, flue gas, which is formed during the combustion of a fuel gas composed of fuel natural gas and combustion air and which also contains carbon dioxide, is additionally used. The oxygen formed during the electrolysis of water is introduced into the flue gas, and the modified flue gas is fed to a secondary reformer; and/or the fuel natural gas is combusted together with combustion air and the oxygen formed during electrolysis. Excess nitrogen is preferably separated from the synthesis gas before it is used for the synthesis of ammonia.

GREEN HYDROGEN, SYNTHESIS GAS, AND FLUE GAS WITH A REDUCED NITROGEN CONTENT FOR THE SYNTHESIS OF AMMONIA AND UREA

Resumen de: WO2025125180A1

The invention relates to the synthesis of urea from ammonia and carbon dioxide, wherein the hydrogen required for ammonia synthesis is obtained both by steam reforming of feed natural gas (grey hydrogen) and by electrolysis of water using electricity from renewable energy sources (green hydrogen). As the proportion of green hydrogen increases, the amount of carbon dioxide formed in the synthesis gas during steam reforming is no longer sufficient for the synthesis of urea. Therefore, flue gas, which is formed during the firing of the steam reformer and also contains carbon dioxide, is additionally used. After reducing the nitrogen content, the flue gas is fed into the reforming process. The carbon dioxide from the synthesis gas and the flue gas is combined, separated using conventional carbon dioxide scrubbing, and used for the synthesis of urea.

ALKALINE ELECTROLYSER AND A METHOD FOR ITS OPERATION INCLUDING GAS PURGING

Resumen de: WO2025124674A1

Alkaline electrolyser and a method for its operation including gas purging An alkaline electrolyser comprising a stack (17) of electrolytic cells (1) is used for producing hydrogen gas (8). Purified hydrogen gas and purified oxygen gas is used for purging the corresponding cathode and anode compartments (5, 6) for preventing buildup of dangerous gas mixtures by gas crossover during stop, before starting, or when running production low.

SYSTEMS AND METHODS FOR REDUCING FUEL CONSUMED IN COMBUSTION FACILITIES AND RECOVERING GENERATED CO2

Resumen de: EP4826295A1

0001 The present invention relates to a system for reducing fuel consumption and recovering CO<2>, comprising: a water electrolysis facility system for producing hydrogen and oxygen from water or steam; a combustion facility for combusting fuel by using the produced oxygen; and a CO<2> recovery facility for recovering CO<2> from an exhaust gas discharged from the combustion facility.

IRIDIUM-CONTAINING MANGANESE OXIDE, CATALYST, ELECTRODE, AND WATER ELECTROLYSIS METHOD

Resumen de: EP4825809A1

0001 The present disclosure provides at least one of an iridium-containing manganese oxide that exhibits high oxygen evolution electrode catalytic activity in water electrolysis, a catalyst comprising the same, an electrode comprising the catalyst or a water electrolysis method in which the electrode is used. The iridium-containing manganese oxide according to the present invention is an iridium-containing manganese oxide having a molar ratio of iridium to manganese of 0.001 or more and 0.250 or less. In one aspect, the manganese oxide is manganese dioxide having a β-type crystal structure. In one aspect, furthermore, the ratio of the lattice constant in the a-axis direction to the lattice constant in the c-axis direction is 1.420 or more and less than 1.521.

HYDROGEN PRODUCTION APPARATUS FOR PRODUCING HYDROGEN FROM AMMONIA

Resumen de: EP4825792A1

0001 A hydrogen production apparatus of the present invention comprises: an ammonia decomposition reactor for decomposing ammonia to discharge a mixed gas including hydrogen, nitrogen, and unreacted ammonia; an ammonia remover for receiving the mixed gas, adsorbing and removing the unreacted ammonia included in the mixed gas, and discharging a first product gas including hydrogen and nitrogen and a first tail gas; and a nitrogen remover for receiving the first product gas, removing nitrogen included in the first product gas, and discharging a second product gas including hydrogen and a second tail gas, wherein the second product gas discharged from the nitrogen remover is resupplied to the nitrogen remover as a purge gas and a pressurizing gas. According to the hydrogen production apparatus of the present invention, high-purity hydrogen can be continuously produced in large quantities.

HYDROGEN PRODUCTION SYSTEM

Resumen de: EP4825791A1

0001 According to exemplary embodiments of the present invention, a hydrogen production system is provided. The present invention comprises: a hydrogen generation unit configured to receive reduced iron from a reduced iron generation unit configured to generate reduced iron by reducing powdered iron ore in a reducing gas atmosphere, and to generate hydrogen from ammonia by bringing the reduced iron into contact with the ammonia; and a regeneration unit configured to receive the reduced iron from the hydrogen generation unit and to regenerate the reduced iron by reducing the reduced iron in a hydrogen gas atmosphere. According to other exemplary embodiments of the present invention, a method for producing hydrogen is provided.

SYSTEMS AND METHODS FOR PRODUCING HYDROGEN GAS USING FLUIDIZED-BED REACTOR

Resumen de: US20250197211A1

Chemical looping systems and methods for producing hydrogen gas are described herein that use a fluidized-bed reactor to reduce carrier particles; and a moving-bed hydrogen reactor to oxidize the reduced carrier particles and form hydrogen gas. Also possibly included as a cooler for cooling the oxidized carrier particles; and a silo for storing the oxidized carrier particles and feeding them to the fluidized-bed reactor and other components. Various configurations of these components are disclosed herein.

SUPPORT, METHOD FOR MANUFACTURING SUPPORT, AND CATALYST FOR AMMONIA DECOMPOSITION CONTAINING SUPPORT

Resumen de: EP4825487A1

According to exemplary embodiments of the present invention, a support is provided. The support is a support of a catalyst for ammonia decomposition, and the amount of acid sites of the support, as measured by NH3-temperature programmed desorption (NH3-TPD), is 0.006-0.010 mmol/g. Also, according to other exemplary embodiments of the present invention, provided are a method for manufacturing the support, and a catalyst for ammonia decomposition, comprising the support.

AMMONIA DECOMPOSITION SYSTEM

Resumen de: EP4825790A1

Provided according to exemplary embodiments of the present invention is an ammonia decomposition system capable of minimizing the generation of iron nitride, which is a byproduct.

METHOD FOR AMMONIA RECOVERY VIA PARTIAL LIQUEFACTION FROM AN AMMONIA CRACKER USING CRYOGENIC SEPARATION

Resumen de: EP4570744A1

0001 A method for producing hydrogen using a feed stream comprising ammonia is provided. The method can include the steps of: cracking a gaseous ammonia feed in an ammonia cracker to produce a cracked gas stream comprising hydrogen, nitrogen, and unreacted ammonia; cooling the cracked gas stream to a first temperature that is sufficient for condensing at least a portion of the unreacted ammonia to form a dual phase fluid; separating the dual phase fluid in an ammonia separator to produce a liquid ammonia stream and a top gas stream comprised predominately of hydrogen and nitrogen; removing additional ammonia from the top gas stream using a front-end purification system to form a purified top gas stream; further cooling the purified top gas stream to a second temperature that is sufficient for condensing at least a portion of the nitrogen within the top gas stream to form a dual-phase stream, wherein the second temperature is colder than the first temperature; introducing the dual-phase stream to a cryogenic hydrogen separator under conditions effective for separating hydrogen and nitrogen, thereby creating a liquid nitrogen stream and a hydrogen top gas; warming and vaporizing the liquid nitrogen stream to produce a gaseous nitrogen stream; warming the hydrogen top gas to produce a gaseous hydrogen product stream; and recycling the liquid ammonia stream produced by the ammonia separator to a point upstream the ammonia cracker.

AN ELECTROLYZER WITH A MULTI-PARAMETER MEASUREMENT SYSTEM

Resumen de: EP4570950A1

The present invention relates to an electrolyzer designed for the generation of hydrogen and oxygen through water electrolysis. The electrolyzer comprises a housing structure accommodating at least one electrolytic cell, which includes an anode, a cathode, and an ion-conducting membrane. A water inlet is provided to introduce water into the electrolytic cell, and an electrical power source is operatively connected to the anode and cathode to facilitate the electrolysis process. The electrolyzer also includes separate outlets for the efficient extraction of hydrogen and oxygen generated during electrolysis. A multi-parameter optical measurement system is integrated within the electrolyzer. This system features at least one optical fiber with multiple sensing points distributed along its length, each capable of detecting various operational parameters within the electrolyzer.

METHOD AND APPARATUS FOR SEPARATING RESIDUAL AMMONIA AND WATER FROM CRACKED AMMONIA

Resumen de: EP4570743A1

A method for producing hydrogen using a feed stream comprising ammonia is provided. The method may include the steps of: cracking a gaseous ammonia feed comprising ammonia and at least 0.15% water vapor in an ammonia cracker to produce a cracked gas stream comprising hydrogen, nitrogen, unreacted ammonia, and water vapor; cooling the cracked gas stream to a separation temperature that is sufficient for condensing at least a portion of the unreacted ammonia and the water vapor to form a dual phase fluid; separating the dual phase fluid in a separator that is configured to produce an aqueous ammonia stream and a vapor stream, the vapor stream comprising predominantly of hydrogen and nitrogen; wherein the separation temperature is below 0°C.

ELECTROCHEMICAL SYSTEM FOR RUNNING IN HOT IDLING MODE

Resumen de: EP4570956A1

The invention refers to an electrochemical system (1) suitable for hot idling comprising- at least one electrochemical module (11) comprising a fuel electrode section, an oxidant electrode section, and a membrane;- at least one fluid inlet line (10) leading to the electrochemical module (11), in particular to the fuel electrode section;- at least one fluid outlet line (12) exiting the electrochemical module (11);- a gas recirculation unit (15) to recirculate a gas or gas mixture exiting the electrochemical module (11) to the fuel electrode section.The system comprises an inert gas unit (3), preferably nitrogen unit, for supplying inert gas to the at least one fluid inlet line (10). The invention refers also to a method of performing electrolysis in a hot idling mode.

ELECTROLYSIS CELL AND ELECTROLYSIS DEVICE

Resumen de: EP4826134A1

0001 An electrolysis cell includes: an ion exchange membrane; a current collector provided on a surface of the ion exchange membrane and made of a plurality of fiber formed into a sheet; a binder layer covering a surface of each of the plurality of fibers; and an electrode catalyst layer containing catalyst particles at least partially protruding from a surface of the binder layer. At least a part of the catalyst particles protrudes from the surface of the binder layer. For this reason, a surface area of exposed portions of the catalyst particles increases, so that a contact area with an electrolyte can be increased.

CONDUCTING ELECTROLYSIS IN MULTIPLE PARALLEL ELECTROLYSIS CELLS AND SYSTEM FOR SUCH

Resumen de: EP4826125A1

0001 A system for conducting electrolysis for producing hydrogen from an electrolyte by conducting such in multiple parallel electrolysis cells, as well as a process for electrolysis using such system. More in particular, the system supplies multiple cells from a shared electrolyte source.

Integrated Green Energy Station for Electric and Hydrogen Vehicles

Resumen de: DK202530214A1

This invention discloses a modular, integrated energy station that supplies electric vehicle charging and hydrogen refueling services through a shared power and utility infrastructure. It uses a reversible fuel cell to switch between hydrogen production and electricity generation depending on market and operational signals. A smart control system governs all functions dynamically. Designed for rapid deployment and maximum flexibility, the invention reduces capital costs, increases grid stability, and offers an adaptable solution for urban, rural, and remote applications in both developed and emerging markets.

金属酸化物複合体、水の分解方法、水素の製造方法、一酸化炭素の製造方法、メタンの製造方法及びテトラサイクリン系化合物の分解方法

Resumen de: JP2026169730A

【課題】新規な金属酸化物複合体を提供する。【解決手段】少なくとも１種の第１２族元素の金属Ｍ１２の硫化物と、ＴｉＯ２と、が複合化している、金属酸化物複合体。【選択図】なし

グリーン水素製造システム及び方法

Resumen de: US20240392450A1

A system and method of making hydrogen from water. A cylindrical reaction vessel is provided with an outer shell, a central shaft, and one or more concentric inner tubes separated by annular spaces. Water is delivered to the annular spaces by a water pump through an inlet defined in the reaction vessel. The water courses along a tortuous flow path. That path begins at an inner annular space around a central shaft. It ends at an outer annular space. The water emerges from the reaction vessel through an outlet associated with a manifold. A high-frequency vibratory stimulus is applied to the reaction vessel and water. Water molecules are dissociated into hydrogen molecules and oxygen atoms. These reaction products are delivered through the manifold along an effluent flow path to a receiving pressure vessel before deployment to a sub-assembly for harnessing clean energy.

制氢用隔膜、使用其的碱性水电解部件、碱性水电解池、碱性水电解装置及氢的制造方法、以及制氢用隔膜的制造方法

Resumen de: WO2025205502A1

Provided are: a separator for hydrogen production, the separator containing a woven fabric support and a porous material that contains an organic polymer, wherein the calender ratio of the woven fabric support calculated by the formula below is 73% or less; an alkaline water electrolysis member, an alkaline water electrolysis cell, an alkaline water electrolysis device, and a method for producing hydrogen, each using the same; and a method for producing a separator for hydrogen production.　Calender ratio = (d2/(2 × d1)) × 100% In the formula, d1 represents the fiber diameter of the woven fabric support, and d2 represents the thickness of the woven fabric support.

熱エネルギーおよび基礎化学物質を生成するための方法および反応器

Resumen de: EP4529979A1

0001 Disclosed is a process for producing thermal energy and base chemicals and a reactor used for this process. The reactor contains a reaction space for oxidizing metal fuel with water and optionally other oxidants. The reaction space is connected at its outlet with a separation device for solids contained in the product gas leaving the reaction space. In the reaction space a first flame is generated which triggers the reaction of metallic fuel with oxidant to generate a second flame within the reaction space. The first flame is generated by using a fuel mixture which is introduced into the reaction space via one or more feed lines. At the end of this feed line(s) an ignition device acts on the fuel to ignite the first flame which in turn triggers the formation of the second flame. The thermal energy generated by the oxidation reaction is recovered by using one or more heat exchangers which may be placed at different lociations of the reactor. 0002 With the reactor and the process of this invention hydrogen and/or cabon monoxide is generated from metal fuel and water or CO<2>. When using water and carbon dioxide as oxidant a mixture of hydrogen and carbon monoxide is produced. These products can be used as base chemicals in various processes.

一种电解水制氢装置碱液循环加热装置

Resumen de: CN122918600A

本发明涉及电解水制氢技术领域，公开了一种电解水制氢装置碱液循环加热装置，包括碱液加热罐，还包括：涡流组件，安装在所述碱液加热罐内壁顶部，所述涡流组件底部安装有搅动组件，所述搅动组件底部活动安装有沉底拨动组件，所述涡流组件顶部安装有往复组件；本发明中，待加热碱液经进液管注入碱液加热罐，高速液流直接冲击涡流扇叶，使其在均液板顶部转动：一方面，涡流扇叶带动搅动组件的转动轴管及搅动叶同步转动，对罐内中部碱液持续搅动；另一方面，涡流扇叶带动顶部往复丝杆在轴套内转动，经螺纹传动驱使螺纹套带动安装架沿通槽上下往复移动，使电加热棒在碱液内同步升降，对不同高度的碱液均匀加热。

碱性电解槽用电解质溶液及其制备方法

Resumen de: CN122918579A

本发明公开的碱性电解槽用电解质溶液，按质量百分比由以下组分组成：氢氧化钾30%‑35%、五氧化二钒0.1%‑0.8%、钴酸镍0.1%‑0.8%，余量为去离子水或蒸馏水；本发明的碱性电解槽用电解质溶液的制备方法，将氢氧化钾加入到水中搅拌溶解得到氢氧化钾溶液；再加入五氧化二钒溶解；最后加入钴酸镍；可提高电解质溶液的电导率，降低水电解过程中析氢过电位、析氧过电位，同时可阻止析氢过电位、析氧过电位随着电解时间的增加而增大的趋势，降低电解质溶液的电阻，保障碱性电解槽的工作电压，降低因电解质溶液电阻产生的焦耳热，从而降低碱性电解槽的直流能耗，提高稳定性。

一种AEM电解水制氢膜电极及其制备方法

Resumen de: CN122918598A

本公开提出一种AEM电解水制氢膜电极及其制备方法，属于阴离子交换膜电解水制氢技术领域。其中，制备方法包括：在催化剂粉末中加入分散剂进行预分散处理，之后加入阴离子树脂溶液进行高速分散处理，得到催化剂浆料；将粘结剂与水‑乙醇溶剂混合，形成表面防脱层浆料；对气体扩散层待喷涂表面预处理，将所述催化剂浆料喷涂于所述气体扩散层的待喷涂表面，形成催化层；将所述表面防脱落浆料喷涂于所述催化层，在所述催化层上形成防脱层。本公开通过喷涂的方式在催化层表面增加一层表面防脱层，能增强催化剂层在气体扩散层上的粘结力，预防催化层脱落；且本公开所制备的催化剂浆料混合更均匀，更不易团聚。

一种制氢系统纯水罐负压脱气方法及装置

Resumen de: CN122912536A

一种制氢系统纯水罐负压脱气方法，其包括：纯水罐密封处理；将液位控制范围调整至1000~1500mm；抽真空建立负压；维持‑10kPa至‑20kPa微负压状态，使纯水中溶解的氮气解吸抽出；负压安全阀在负压低于‑45kPa时自动开启补气保护。本发明还公开了制氢系统纯水罐负压脱气的装置，包括纯水罐、真空泵及负压安全阀，纯水罐设有液位监控保护系统，包括液位变送器、高高液位开关、低低液位开关及DCS系统中的连续液位指示器、高液位报警器和低液位报警器。本发明能耗低、安全可靠，可解决氢气产品氮含量超标问题。

一种锰配合物及其制备方法和应用

Resumen de: CN122917105A

0001 本发明属于催化剂技术领域，具体涉及一种锰配合物及其制备方法和应用。该锰配合物的结构式如Mn‑1或Mn‑2、Mn‑3所示，可以用作水氧化催化剂，成本低廉，催化活性高；用于电解水产氢时，过电位低，产氢效率高。

一种水电解吸氢机

Resumen de: CN122918599A

本发明公开了一种水电解吸氢机，水箱下侧向内凹陷设置电解槽与水箱连通，且将气液分离器直接在水箱内一体成型设计，这样设计结构更加紧凑，体积更小，整体轻便，便于携带；同时，将气液分离器直接在水箱内一体成型，电解槽输出的氢气在经过气液分离器与水箱内的水发生热交换能更好的让混合的水蒸气冷凝分离，气液分离效果更好，且能减少设备管路配置，降低成本；水箱盖上设计分离件，旋钮件方便注水且方便更换滤芯浮子，方便用户使用，有利于家用推广；支撑架底部镂空空气流动腔配合后盖上多个散热孔一、外壳左右两端的下侧多个散热通孔二，左右进气，上端排气，保证电解槽工作的散热效率。

塩酸の回収方法及び塩酸の回収システム

Resumen de: JP2026169083A

【課題】塩化鉄を含む水溶液から低温で塩酸を効率的に回収する方法を提供する。【解決手段】塩化鉄（ＩＩ）を含む水溶液を１１０℃未満に加熱する第１工程と、次いで、水溶液に酸素を含むガスを導入して、塩化鉄（ＩＩＩ）及び水酸化鉄（ＩＩＩ）が生成する第２工程と、次いで、水溶液に加熱した水を添加して、塩化鉄（ＩＩＩ）と水との反応により水酸化鉄（ＩＩＩ）及び塩化水素が生成する第３工程と、次いで、水溶液から水酸化鉄（ＩＩＩ）を残渣として分離し、水溶液に塩化水素が溶解してなる塩酸を回収する第４工程と、を有する、塩化鉄（ＩＩ）を含む水溶液からの塩酸の回収方法。【選択図】図１

一种MoN/WN/CoMoO4/NF三相Mott-Schottky异质结电催化剂的制备及应用

Resumen de: CN122918629A

本发明公开了一种MoN/WN/CoMoO4/NF三相Mott‑Schottky异质结电催化剂的制备及应用，属于电催化、绿色制氢新能源材料技术领域，该催化剂以泡沫镍为导电基底，表面原位生长由CoMoO4半导体相与MoN、WN金属氮化物相组成的纳米棒阵列，利用功函数差异构筑Mott‑Schottky异质界面。其制备包括基底预处理、水热合成氧化物前驱体及高温氮化三步。该催化剂兼具高效HER和UOR双功能催化活性，在安培级大电流下表现出优异的长效稳定性，且无需贵金属、无粘结剂，适用于尿素辅助电解制氢体系，可同步实现节能制氢与含尿素废水处理，具有显著的工业化应用前景。

一种具有气泡定向传输功能的自呼吸析氢电极及其制备方法与应用

Resumen de: CN122918604A

0001 本发明属于电解水制氢和催化技术领域，公开了一种具有气泡定向传输功能的自呼吸析氢电极及其制备方法与应用，包括：将催化剂前驱体盐、络合剂及结构导向剂溶解于去离子水中，形成均匀混合溶液，进行水热反应，经洗涤、过滤及干燥处理，获得催化剂前驱体，通过热处理转化为析氢催化材料，并负载于导电基材表面，形成催化活性层；将不同粒径模板均匀沉积于催化活性层表面，去除模板，获得具有梯度孔径分布的导气层；通过激光扫描在导气层表面加工，形成仿生叶脉状导气通道网络并进行修饰处理，构建润湿性梯度结构，获得具有气泡定向传输功能的仿生自呼吸析氢电极。本发明显著降低了电极表面的气泡覆盖率，提高了催化活性位点利用效率。

一种智能调控型模块化制氢装置

Resumen de: CN122918590A

本发明涉及制氢设备技术领域，尤其涉及一种智能调控型模块化制氢装置，包括制氢箱，制氢箱一侧设置有安装座，安装座上安装有储氢罐，安装座两侧均固定连接设置有移动座，移动座中部转动连接设置有传动组件，移动座上转动连接设置有转动架，转动架两侧均转动连接设置有展开组件，展开组件上连接有拉伸架，拉伸架上固定连接设置有防护组件，通过在储氢罐两侧设置防护组件，在需要对储氢罐进行遮阳防护时，自动展开挡在储氢罐上方，有效遮挡太阳直射及紫外线，减少紫外线对储氢罐防腐涂层的老化侵蚀，缓解氢脆现象，降低储氢罐故障概率，适配模块化制氢装置室外长期部署的需求。

一种双原子锚定MXene、大分子多硫聚合物与支撑体的复合材料及其制备方法和应用

Resumen de: CN122918636A

本发明涉及电催化全水分解技术领域，具体涉及一种双原子锚定MXene、大分子多硫聚合物与支撑体的复合材料及其制备方法和应用。该复合材料的制备方法，包括如下步骤：（1）双原子锚定的MXene前驱体和大分子多硫聚合物的制备：制备双原子锚定的MXene前驱体；通过逆硫化法制备大分子多硫聚合物；（2）复合材料的制备：制备双原子锚定MXene、大分子多硫聚合物与支撑体的复合材料。本发明的复合材料在碱性条件下具有优异的电催化析氧析氢性能。

氢氧化铝焙烧系统及方法

Resumen de: CN122920815A

本发明公开了一种氢氧化铝焙烧系统及方法，涉及氧化铝生产技术领域，包括电解制氢装置、富氧空气配制系统和焙烧炉，所述电解制氢装置用于电解水以制取氢气和氧气；所述富氧空气配制系统的进气口与所述电解制氢装置的氧气出口连通；所述富氧空气配制系统用于将所述电解制氢装置制取的所述氧气与空气按照设定比例混合，以获取富氧空气；所述焙烧炉的进气口与所述电解制氢装置的氢气出口和所述富氧空气配制系统的富氧空气出气口均连接，所述焙烧炉用于焙烧氢氧化铝。本发明能够在保证物料充分悬浮所需气量的同时大幅减少烟气量。

一种基于磷化氢气相磷化制备的CoP/NiCoP电催化剂及其制备方法和应用

Resumen de: CN122918632A

0001 本发明公开了一种基于磷化氢气相磷化制备的CoP/NiCoP电催化剂及其制备方法和应用，涉及电催化材料制备技术领域。制备方法包括以下步骤：将镍源和钴源加入异丙醇中，加入甘油后经溶剂热反应、水热处理及氮气气氛热处理，得到Co/NiCo前驱体；将所述前驱体筛分后置于管式炉中，在磷化氢气氛下进行气相磷化处理，得到CoP/NiCoP电催化剂。本发明以可计量的低浓度磷化氢气体作为磷源，有利于减少固体磷源释磷不均或局部过磷化带来的影响，所得CoP/NiCoP电催化剂具有较高的磷化氢吸附转化容量以及良好的碱性水分解析氢/析氧活性，可用于磷化氢资源化转化及电催化水分解领域。

一种柔性自支撑FeS2-xSe/CoS@CC核壳多孔电催化剂的制备方法

Resumen de: CN122918623A

本发明涉及一种柔性自支撑FeS2‑xSe/CoS@CC核壳多孔电催化剂的制备方法，属于材料制备技术领域，包括以下步骤：S1、首先将铁盐、硫源、硒源和形貌控制剂溶于水中，加入亲水性碳布，转移至水热反应釜中进行水热反应；S2、然后再在设定温度下保持一定时间使得化合物进行水热法生长；S3、经冷却、洗涤和烘干后，浸至于钴盐与有机硫溶液中；S4、最后通过循环伏安法使得CoS与FeS2‑xSe形成异质结，烘干后得到柔性自支撑FeS2‑xSe/CoS@CC核壳多孔电催化剂。该柔性自支撑FeS2‑xSe/CoS@CC核壳多孔电催化剂的制备方法，通过Se掺杂对核心电子结构的调控以及核壳界面异质结对电荷转移的优化，展现出卓越的析氧反应催化活性和优异的长期稳定性。

具有双内建电场的层状ZnIn2S4/WO3/WS2异质结及其制备方法和在光催化产氢中的应用

Resumen de: CN122912880A

0001 本发明公开了一种具有双内建电场的层状ZnIn<2>S<4>/WO<3>/WS<2>异质结及其制备方法和在光催化产氢中的应用，属于光催化半导体材料领域。该异质结包括层状WO<3>/WS<2>载体，以及负载在层状WO<3>/WS<2>载体表面的ZnIn<2>S<4>，所述层状WO<3>/WS<2>载体包括层状WS<2>基底以及原位形成在层状WS<2>基底表面的WO<3>。本发明先通过将费米能级略低于ZnIn<2>S<4>的WS<2>与WO<3>复合，再将ZnIn<2>S<4>生长在WO<3>/WS<2>表面，通过阶梯互补能带结构，逐级减小能级差距，保持ZnIn<2>S<4>本征还原电位，提升异质结材料光催化还原H<2>热力学电势；并基于WO<3>、WS<2>、ZnIn<2>S<4>依次复合构筑串联内建电场，实现光电子的长程单向转移，避免因载流子快速复合，使光生电子能用于光催化产氢过程；本发明制备的异质结具有良好的结构稳定性与循环使用性能。

电解单元和电解装置

Resumen de: CN122918595A

0001 本申请提出了一种用于电解装置的电解单元，其包括：第一极板和第二极板；由阳极多孔传输层、阳极电极层、膜、阴极电极层和阴极多孔传输层沿着堆叠方向依次堆叠而形成的堆叠体，其被在堆叠方向上设置在第一与第二极板之间；以及密封件，其被在堆叠方向上设置在第一与第二极板之间，并且在与堆叠方向垂直的侧向方向上环绕堆叠体。第一极板包括第一磁吸部分，且第二极板包括第二磁吸部分。第一和第二磁吸部分彼此磁性吸引，以将第一和第二极板可拆卸地保持为一体结构，从而使得第一和第二极板将堆叠体和密封件保持在其间。本申请还提出了一种包括前述电解单元的电解装置。根据本申请的电解单元和电解装置易于制造、组装和维护。

一种电解水阳极及其制备方法和应用

Resumen de: CN122918671A

0001 本发明属于电解水领域，具体公开了一种电解水阳极及其制备方法和应用；所述电解水阳极包括电极材料和负载在所述电极材料表面的改性层；所述改性层的制备原料包括含羧基的化合物、金属盐中的至少一种。本发明的电解水阳极通过在电极材料表面设置改性层，其与电极材料表面金属中心相互作用，可微调电极材料表面金属的电子云密度与状态，优化其对析氧反应关键中间物种的吸附自由能，从而降低反应能垒，提升电催化活性。该改性层负载在电极材料表面如同一层“分子涂层”，可在阳极高电位、强碱性的苛刻工作环境中，抑制电极材料表面的过度氧化、非活性相变或有害的重构过程，有助于维持电极材料活性表面的完整性，延长电解水阳极的使用寿命。

一种含双氧空位的MoO3-x/Ov-CdMoO4异质结光催化剂及其制备方法和应用

Resumen de: CN122912837A

本发明公开了一种含双氧空位的MoO3‑x/Ov‑CdMoO4异质结光催化剂及其制备方法和应用，属于光催化材料技术领域。以金属钼粉为原料，通过过氧化氢辅助溶剂热法制备富氧空位MoO3‑x；随后利用Cd2+与MoO3‑x之间的界面重构反应，原位生成含氧空位CdMoO4（Ov‑CdMoO4），并与残余MoO3‑x形成紧密接触的异质结结构，获得同时含有MoO3‑x氧空位和CdMoO4氧空位的双氧空位复合光催化剂。该方法无需额外造孔剂或还原剂，工艺简单、条件温和。双氧空位与异质结结构的协同作用可有效促进光生载流子分离与迁移，增强可见光吸收能力，提高光催化产氢性能。

催化电极及其制备方法、电解水装置

Resumen de: CN122918615A

0001 本申请涉及电催化和纳米材料领域，尤其涉及催化电极及其制备方法、电解水装置。该催化电极包括基底、含铈的镍钴层状双氢氧化物，所述含铈的镍钴层状双氢氧化物负载于所述基底上；所述催化电极在1.0 mol/L KOH电解液中、以三电极体系测试时，在电流密度为500 mA/cm<2>下析氢过电位为270 mV~320 mV。该催化电极能够显著提升本征导电性与HER性能，降低水解离能垒与反应过电位，降低电解水制氢能耗。

一种基于CdZnS/MoS2的可降解抗生素废水并协同产氢的花球状S-型异质结制备方法

Resumen de: CN122912881A

0001 本发明公开了一种基于CdZnS/MoS<2>的可降解抗生素废水并协同产氢的花球状S‑型异质结制备方法，所述制备方法首先制备得到MoS<2>，然后在MoS<2>的基础上通过加入Cd源、Zn源和S源，进一步转化为CdZnS/MoS<2>，从而得到基于CdZnS/MoS<2>的花球状S‑型异质结可见光催化剂。本发明所制备的CdZnS/MoS<2>催化剂呈现出CdZnS纳米颗粒分散在MoS<2>纳米片组装成的花球上的形貌，可以高效地在可见光下催化水分解产氢和降解抗生素，且制备方法简单，成本低，适用大面积推广应用。

一种ZnCdS/La2O2CO3复合光催化材料及其制备方法

Resumen de: CN122912931A

0001 本发明提供了一种ZnCdS/La<2>O<2>CO<3>复合光催化材料及其制备方法，涉及光催化材料技术领域，该制备方法包括：制备La<2>O<2>CO<3>材料和ZnCdS前驱体溶液；将所述La<2>O<2>CO<3>材料和所述ZnCdS前驱体溶液混合均匀后，进行溶剂热反应，反应结束后，冷却至室温，收集沉淀物，进行洗涤和干燥处理，得到ZnCdS/La<2>O<2>CO<3>复合光催化材料。本发明所制备的ZnCdS/La<2>O<2>CO<3>复合光催化材料对太阳光的吸收和利用效率得到了较大幅度的提升，光催化分解水制氢性能显著优于单一ZnCdS和单一La<2>O<2>CO<3>材料。

一种泡沫镍负载FeCoRu-MOF褶皱纳米花状自支撑析氢阴极及其制备方法和应用

Resumen de: CN122918633A

0001 本发明提供一种泡沫镍负载FeCoRu‑MOF褶皱纳米花状自支撑析氢阴极及其制备方法和应用。所述自支撑阴极以泡沫镍为导电骨架，先在其表面原位生长FeCo‑MOF纳米花前驱体，再通过含钌源的二次溶剂热处理引入Ru物种，使FeCo‑MOF纳米花进一步转化为由褶皱纳米片/花瓣单元组装而成的FeCoRu‑MOF纳米花结构，并在纳米花瓣上形成小尺寸Ru颗粒/团簇。该结构中，泡沫镍提供连续导电通路和开放孔道，Fe、Co、Ni、Ru等金属中心之间的电子相互作用有利于调节析氢反应中间体吸附/脱附行为，褶皱纳米花结构有利于暴露活性位点、促进电解液浸润和氢气气泡释放。本发明还提供所述FeCoRu‑MOF@NF自支撑析氢阴极在碱性析氢反应和阴离子交换膜水电解器件中的应用。

一种电解水制氢用复合电极及其制备方法与碱水制氢的方法

Resumen de: CN122918609A

本发明涉及一种电解水制氢用复合电极及其制备方法与碱水制氢的方法。该电解水制氢用复合电极包括多孔镍基基底、惰性过渡层、催化层，所述惰性过渡层位于所述多孔镍基基底与所述催化层之间。本发明还提供了上述电解水制氢用复合电极的制备方法与基于该电解水制氢用复合电极的碱水制氢的方法本发明所制备的电解水制氢用复合电极是一种具有高活性且抗催化层脱落的碱水制氢复合电极。

一种类针状Pb催化剂及其制备方法和在电催化产砷烷的应用

Resumen de: CN122918611A

0001 本发明公开了一种类针状Pb催化剂及其制备方法和电催化产砷烷的应用，所述的催化剂通过原位电化学修饰，使载体表面原位生长纳米级类针尖Pb结构，该结构有利于提高催化剂的比表面积，增加与反应底物的吸附，表现出了较好的电催化产砷烷性能，同时该结构降低了砷阴极泥的产生，具有良好的稳定性。本发明的催化剂制备简单，过程绿色，反应溶液可以进行重复利用，避免废液排放带来的环境压力，因此也具有生产成本低的特点，对电催化砷烷的制备有重要的指导意义，具有较大的应用前景。

一种高电流密度双极性压滤式电解槽及方法

Resumen de: CN122918593A

本发明公开了一种高电流密度双极性压滤式电解槽及方法，电解槽包括成对相向布设端板，端板开设相互独立的电解液流道、氢气流道、氧气流道，端板外侧装配接线端子；阳极板、阴极板贴合端板内侧，多组结构环轴向堆叠夹装于阴阳极板之间，相邻结构环端面贴合；相邻构件对接端面设置密封圈，密封圈贯通孔与各流道对位连通；结构环内嵌膜电极组件，组件内叠装预电极、阳极、无机膜、阴极；相邻结构环间装配双极板，双极板两侧与膜电极极性贴合；紧固件贯穿两端端板轴向压紧全部叠装组件。本电解槽采用分层压滤堆叠密封结构，三路流道分区布置，装配紧凑稳定，气液分流无干扰，可适配高电流密度电解工况，实现低能耗、安全规模化制氢。

一种Pr掺杂的NiFeOOH析氧反应催化剂及其制备方法和应用

Resumen de: CN122918618A

0001 本发明公开了一种Pr掺杂的NiFeOOH析氧反应催化剂及其制备方法和应用，属于电催化材料技术领域。所述催化剂中Pr以Pr<3+>形式存在，Pr<3+>具有弱共价性结构和4f自旋极化结构，所述弱共价性结构使O‑2p能带中心抬升，所述4f自旋极化结构在Ni位和Fe位诱导形成不对称自旋重构；所述催化剂具有晶格氧机制催化析氧反应的活性位点。所述催化剂的制备方法包括：将预处理后的泡沫铁镍基底浸入含Pr盐、尿素和NH<4>F的前驱体溶液中，于160～190℃下水热反应10～14小时，洗涤、干燥，即得。该催化剂在1M KOH溶液中，10mA cm<‑2>下的析氧过电位≤200mV，Tafel斜率≤40mV dec<‑1>，且在500mA cm<‑2>下稳定运行≥200小时，法拉第效率≥97％，可用于碱性电解水析氧反应。

CONTROL CIRCUIT AND CONTROL METHOD FOR DUAL ELECTROLYZED WATER PREPARATION DEVICE BASED ON PARALLEL PREPARATION OF O3 AND H2O2

Resumen de: US20260317929A1

0000 The present invention discloses a control circuit and a control method for a dual electrolyzed water preparation device based on parallel preparation of O<3 >and H<2>O<2>. The key points of the technical solutions of the present invention are as follows: comprising: a touch key module interacting with an operator to output a start signal or a stop signal in response to an action of the operator; a load driving module connected to the touch key module for obtaining the start signal or the stop signal to start or stop a load; and a self-cleaning maintenance module connected to the load driving module for controlling output electrodes of the load driving module to perform polarity reversal and maintain normal operation of the load.

METHOD FOR GENERATING GAS MIXTURES COMPRISING CARBON MONOXIDE AND CARBON DIOXIDE FOR USE IN SYNTHESIS REACTIONS

Resumen de: US20260317933A1

A method for the generation of a gas mixture including carbon monoxide, carbon dioxide and optionally hydrogen for use in hydroformylation plants or in carbonylation plants, including mixing an optional steam with carbon dioxide in the desired molar ratio, feeding the resulting gas to a solid oxide electrolysis cell (SOEC) or an SOEC stack at a sufficient temperature for the cell or cell stack to operate while effecting a partial conversion of carbon dioxide to carbon monoxide and optionally of steam to hydrogen, removing some or all the remaining steam from the raw product gas stream by cooling the raw product gas stream and separating the remaining product gas from a liquid, and using the gas mixture containing CO and CO2 for liquid phase synthesis reactions utilizing carbon monoxide as one of the reactants while recycling CO2 to the SOEC or SOEC stack.

PHOTOELECTROCATALYST FOR WATER SPLITTING

Resumen de: US20260317923A1

0000 A photoelectrocatalyst that includes nanoparticles of manganese (Mn) and cobalt (Co) co-doped zinc oxide (ZnO) having a formula of MnCoZn<1−x−y>O, where 0

METHOD OF MINIMIZING DEGRADATION OF CELLS IN AN ELECTROCHEMICAL ENERGY CONVERTER

Resumen de: WO2026215235A1

The present invention relates to a method (100) of minimizing degradation of cells (300) in an electrochemical energy converter (200), wherein the cells (300) each have a membrane (307) and a nickel-containing storage layer (303), wherein the method (100) comprises: - operating (101) the energy converter (200) in an electrolysis operation, in which water is split into hydrogen and oxygen in the cells (300) by supplying electrical current, - ending (103) the electrolysis operation and - converting (105) oxygen stored in the storage layer (303) of the respective cells (300) by the electrolysis operation with hydrogen provided in the electrolysis operation to water and electrical current.

다수의 전해조 스택들을 통한 개별 캐소드액 및 애노드액 유동들의 제어 방법 및 다수의 개별 전해조 스택들을 포함하는 전해조 시스템

Resumen de: EP4617402A1

0001 A method for control of the individual catholyte and anolyte flows through a multitude of electrolyser stacks is provided wherein: a. each electrolyser stack (2) is adapted to perform electrolysis of water, and b. all electrolyser stacks (2) are served with an electric current and that, c. all electrolyser stacks (2) are served with anolyte flow (26), and d. all electrolyser stacks (2) are served with catholyte flow (27). 0002 It is preferred that e. differential pressure signals (28.1) at each electrolyser stack (2) is provided and, f. that catholyte control signals (43) and anolyte control signals (42) to each of a catholyte stack inflow valve actuator (44) and an anolyte stack inflow valve actuator (45) are provided for the regulation of each of an anolyte stack inflow valve (56) and a catholyte stack inflow valve (57). 0003 An electrolyser system is also provided.

POROUS TITANIUM SHEET AND MANUFACTURING METHOD AND USAGE THEREOF

Resumen de: US20260317922A1

0000 The porous titanium sheet has a thickness equal to or greater than 40 μm and equal to or less than 500 μm and porosity equal to or greater than 30% and equal to or less than 50%. A surface roughness of a first main surface of the porous titanium sheet is lower than a surface roughness of a second main surface opposing the first main surface. At a peripheral portion, a number of first protrusions protruding toward a side of the first main surface and having a height equal to or greater than 30 μm is equal to or less than a number of second protrusions protruding toward a side of the second main surface at the peripheral portion and having a height equal to or greater than 30 μm.

締付装置、電解槽、隣接する電解セルを開閉する方法、締付装置を遡及的に適用する方法

Resumen de: EP4534726A1

0001 The present invention relates to a tightening apparatus for selectively opening and closing respective adjacent electrolysis cells in an electrolyser. The tightening apparatus comprises: a movable member moveable in a first direction and a second direction, the first direction being a direction in which the cells are closed each other and the second direction being an opposite direction to the first direction; at least one main actuator configured to move the movable member selectively in the first and second directions; a pressure plate arranged on the first direction side with respect to the movable member; and a sub-actuator configured to move the pressure plate selectively in the first and second directions with respect to the moveable member.

締付装置、電解槽、隣接する電解セルを開閉する方法、締付装置を遡及的に適用する方法

Resumen de: EP4534727A1

The present invention relates to a tightening apparatus for selectively opening and closing respective adjacent electrolysis cells in an electrolyser. The tightening apparatus comprises: a movable member moveable in a first direction and a second direction, the first direction being a direction in which the cells are to be closed each other and the second direction being an opposite direction to the first direction; at least one actuator configured to move the movable member selectively in the first and second directions; a pressure plate arranged on the first direction side with respect to the movable member; and a spacer arranged between the pressure plate and the movable member.

지질학적 지층으로부터 수소를 생산하기 위한 시스템 및 방법

Resumen de: WO2025126076A1

A method may include injecting a fluid into a geological formation comprising an impermeable rock matrix, wherein the fluid reacts with the impermeable rock matrix resulting in production of hydrogen. A method may include accelerating hydrogen production by increasing a reactive surface area and/or adjusting a chemical composition of the fluid. A method may include receiving or recovering backflow fluid and produced hydrogen at a surface location.

MEMBRANE ELECTRODE ASSEMBLY, ELECTROCHEMICAL CELL, AND HYDROGEN PRODUCTION DEVICE

Resumen de: US20260317918A1

0000 A membrane electrode assembly includes: an anode; a cathode; and an electrolyte membrane provided between the anode and cathode. The anode includes: a porous and conductive anode conductive transport layer; and an anode catalyst layer provided between the anode conductive transport layer and the electrolyte membrane. The anode catalyst layer includes first sheet layers and first gap layers, each first sheet layer and each first gap layer being alternately stacked. The cathode includes a porous and conductive cathode conductive transport layer, and a cathode catalyst layer provided between the cathode conductive transport layer and the electrolyte membrane. The cathode catalyst layer includes second sheet layers and second gap layers, each second sheet layer and each second gap layer being alternately stacked. A porosity of the cathode conductive transport layer is higher than a porosity of the anode conductive transport layer.

GAS PYROLYSIS UNIT AND GAS PYROLYSIS APPARATUS

Resumen de: US20260317166A1

0000 The gas pyrolysis unit 2 according to the present invention includes: a honeycomb structure 20 having one or more honeycomb structure portions 24, each of the one or more honeycomb structure portions 24 having an outer peripheral wall 240 and partition walls 241 disposed inside the outer peripheral wall 240, the partition walls 241 defining a plurality of cells 241a each extending from one end face to the other end face to form a flow path; and an induction heating coil 21 disposed around an outer periphery of the honeycomb structure 20, wherein at least one of the one or more honeycomb structure portions 24 contains at least one conductor and/or magnetic material 25.

PLASMA-BASED HYDROGEN PRODUCTION APPARATUS

Resumen de: WO2026216729A1

The present invention relates to a plasma-based hydrogen production apparatus capable of significantly improving hydrogen production efficiency by using a means for selectively isolating only hydrogen ions in the process of introducing fine water particles to a plasma reactor and electrolyzing water molecules to separate ions. That is, the present invention is characterized by a plasma-based hydrogen production apparatus which introduces fine water particles to a plasma reactor to which power is applied and electrolyzes water molecules to separate ions, wherein: the plasma reactor includes a housing composed of a vertical tube of a certain length, a reduction electrode installed in the inner center of the housing to apply negative charges, a negative-ion separator installed on the outer circumference of the reduction electrode, an oxidation electrode installed between the negative-ion separator and an inner wall of the housing to apply positive charges, a particulate inlet installed under the housing to introduce the fine water particles to the reduction electrode, an oxygen outlet formed on an upper sidewall of the housing to discharge oxygen generated by the oxidation electrode, and a hydrogen outlet formed above the housing to discharge hydrogen generated while passing through the reduction electrode; and the power is applied to the plasma reactor by connecting the reduction electrode to a first electrical connection unit provided inside a first electrode cap and connectin

Verfahren zum Betreiben eines Elektrolysesystems

Resumen de: DE102025113916A1

Die vorgestellte Erfindung betrifft ein Verfahren (100) zum Betreiben eines Elektrolysesystems (200), das eine Vielzahl Zellstapel (201, 202, 203) umfasst, wobei das Verfahren (100) umfasst:- Betreiben (101) jeweiliger Zellstapel (201, 202, 203) des Elektrolysesystems (200) an einem vorgegebenen Betriebspunkt,- Ermitteln (102) eines Verhältnisses von Wasserstoffgas zu Sauerstoffgas auf einer Anodenseite eines jeweiligen Zellstapels (201, 202, 203) an dem vorgegebenen Betriebspunkt,- Ermitteln (103) eines spezifischen Kennwerts, der einen Zustand des jeweiligen Zellstapels angibt, anhand des ermittelten Verhältnisses von Wasserstoffgas zu Sauerstoffgas, und- Reduzieren (104) einer Spannung eines ersten Zellstapels, an dem von allen Zellstapeln (201, 202, 203) eine höchste Spannung anliegt, wenn eine dem Elektrolysesystem (200) bereitgestellte Menge an elektrischem Strom unter einen vorgegebenen Reduktionsschwellenwert fällt, wobei für den Fall, dass die Spannung des ersten Zellstapels auf einen Wert zu reduzieren ist, der zu einem Verhältnis von Wasserstoffgas zu Sauerstoffgas auf der Anodenseite des ersten Zellstapels führt, das kleiner ist als der spezifische Kennwert des ersten Zellstapels, statt der Spannung des ersten Zellstapels die Spannung eines weiteren Zellstapels der Vielzahl Zellstapel (201, 202, 203) reduziert wird.

METHOD OF ENERGY SELF-SUFFICIENT SODIUM SULFATE WASTE RECYCLING, AND SYSTEM THEREFOR

Resumen de: WO2026216834A1

A method of energy self-sufficient sodium sulfate waste recycling of the present invention comprises the step of: feeding sodium sulfate waste into a two-compartment electrolytic cell and applying electric current so as to generate caustic soda, sulfuric acid, hydrogen, and oxygen; adding the mixture of the generated sulfuric acid and unreacted sodium sulfate waste into a crystallizer so as to recrystallize the sodium sulfate waste and separating into sulfuric acid and sodium sulfate crystals; supplying the hydrogen and the oxygen to a hydrogen fuel cell; and recycling the sodium sulfate crystals as a feedstock for the two-compartment electrolytic cell wherein the two-compartment electrolytic cell has a structure including a first cathode, a first anode, and a cation exchange membrane (CEM) disposed between the first cathode and the first anode, the hydrogen fuel cell has a structure including a second cathode, a second anode, and a proton exchange membrane (PEM) disposed between the second cathode and the second anode, and electrical energy generated by the hydrogen fuel cell may be used as electric power for the two-compartment electrolytic cell.

APPARATUS FOR PROMOTING CHEMICAL REACTION OF A METAL OXIDE CATALYST USING MICROWAVE AND PLASMA AND A METHOD FOR PROMOTING CHEMICAL REACTION USING THE SAME

Resumen de: US20260316030A1

0000 Provided are an apparatus for promoting a chemical reaction of a metal oxide catalyst using microwaves and plasma and a method for promoting a chemical reaction using the same, which are capable of producing hydrogen by reducing and oxidizing a catalyst member, which is a metal oxide, and performing water splitting under a relatively low temperature.

POROUS TRANSPORT LAYER, WATER ELECTROLYSIS CELL COMPRISING THE SAME, AND METHOD FOR MANUFACTURING THE POROUS TRANSPORT LAYER

Resumen de: US20260317920A1

0000 The present disclosure relates to a porous transport layer, a water electrolysis cell including the same, and a method for manufacturing the porous transport layer. According to one aspect of the present disclosure, a porous transport layer including a porous substrate and a first coating layer disposed on one surface of the porous substrate and including platinum (Pt)-containing nanoparticles may be provided.

MULTI-LAYERED IRIDIUM CATALYST AND PEM WATER ELECTROLYSIS DEVICE COMPRISING SAME

Resumen de: WO2026216667A1

The present invention relates to a multi-layered iridium catalyst layer comprising a first layer and a second layer formed on one surface thereof, wherein the first layer is crystalline iridium or iridium oxide, and the second layer is amorphous iridium or iridium oxide.

USE OF CO2-RICH GAS AS A SWEEPING GAS IN A CHEMICAL PLANT

Resumen de: US20260317931A1

A plant, e.g. a syngas plant or hydrogen plant, or a combined syngas and hydrogen plant is provided. The plant comprises a reforming section, a CO2-removal section and a first electrolysis unit. A first portion of a first CO2-rich stream outputted from the CO2-removal section is arranged to be supplied to the anode of the first electrolysis unit as a sweeping gas for oxygen product gas. Certain streams, downstream the first electrolysis unit are arranged to be fed to the reforming section as at least a portion of an oxygen-rich feed. Various processes are also provided for the production of hydrogen and/or syngas in the plant.

Filter

Resumen de: US20260315960A1

The disclosure relates to a filter for treating process fluid, such as that arises during hydrogen electrolysis, having a first filter element and a second filter element, which encloses the first filter element with the formation of a flow space with a predefinable radial spacing, wherein each filter element has a filter medium through which the process fluid can flow in a flow-through direction. Seen in the flow-through direction, the one filter medium forms a first degassing stage, which is used to enlarge gas bubbles through coalescence and to remove same from the process fluid through separation caused by buoyancy, and the subsequent further filter medium forms a second degassing stage, which is used to remove very finely distributed gas bubbles remaining in the process fluid, again through coalescence and the Separation of same through rising caused by buoyancy.

Cell with Anisotropic Sealing Gaskets

Resumen de: US20260317928A1

The present invention relates to a divided cell for alkaline water electrolysis, where the separator is equipped with a gasket having anisotropic elastic properties and exhibiting reduced gasket deformation along the plane of the major surface of the separator when subject to a compression force perpendicular to that plane. The invention also relates to an electrolyser comprising a plurality of cells as hereinbefore described.

LIQUID FUEL PRODUCTION SYSTEM AND METHOD FOR PRODUCING LIQUID FUEL

Resumen de: US20260317644A1

0000 A liquid fuel production system 1 includes: an electrolytic reduction device for obtaining a mixed gas and an oxygen gas by an electrolytic reduction of carbon dioxide and water; a carbon dioxide separation device for separating the carbon dioxide from the mixed gas; a water separation device for separating water from the mixed gas; a cryogenic separation device for separating the mixed gas into ethylene, hydrogen, and a residual off-gas; a first reaction device for obtaining a first mixture by oligomerization of ethylene obtained in the cryogenic separation device; a first separation device for separating light hydrocarbons from the first mixture; a second reaction device for obtaining a second mixture containing liquid fuel by hydrocracking and hydroisomerizing the first mixture; and a second separation device for separating the second mixture into at least liquid fuel, cracked gas, and heavy hydrocarbons.

DEGASSING DEVICE FOR AN ELECTROLYSIS PLANT, AND ELECTROLYSIS PLANT

Resumen de: US20260317930A1

0000 An electrolysis plant for producing dihydrogen (H<2>) and dioxygen (O<2>) by electrolysis of water is provided. The plant includes a degassing device (1) which includes an opening for a first gas-liquid mixture supply pipe (11), an opening for a liquid discharge pipe (12) arranged below the level of the gas-liquid interface (15) of the chamber (14), and an opening for a gas discharge pipe (13) arranged above the level of the gas-liquid interface (15) of the degassing chamber (14). Furthermore, the device has one or more additional openings for one or more additional gas-liquid mixture supply pipes (21, 22), said one or more additional gas-liquid mixture supply pipes (21, 22) being arranged such that the jets of gas-liquid mixture introduced into the degassing chamber (14) via the supply pipes (11, 21, 22) intersect within the gas-lye mixture in the degassing chamber (14).

METHOD AND DEVICE FOR INTEGRATING HEAT INTO A DISTRICT HEATING NETWORK

Resumen de: US20260317912A1

An energy system and a method for operating an energy system, which includes a hydrogen production unit having at least one electrolyzer for water electrolysis, the electrolyzer being thermally coupled to a cooling water circuit; and a heat pump, the heat source side of which is thermally coupled to the cooling water circuit and the heat sink side of which is coupled via a heat exchanger to a district heat or useful heat circuit. A heat store is incorporated into the district heat or useful heat circuit, the return line of which is connected downstream of the heat exchanger and the feed line of which is connected upstream of the heat exchanger of the heat pump, such that heat from the heat store is used to raise the return temperature of the district heat or useful heat circuit.

METHOD OF PREPARING NIMO-MOO3-X POROUS NANORODS AND CATHODE CATALYST FOR WATER ELECTROLYSIS COMPRISING PREPARED NIMO-MOO3-X POROUS NANORODS

Resumen de: US20260317924A1

0000 A method of preparing a NiMo—MoO3−x porous nanorod catalyst based on a metal-organic framework and a non-precious metal alloy catalyst prepared by the method are disclosed. The method of preparing a non-precious metal alloy catalyst can prepare an alloy catalyst that combine alloys and oxides and form nanorods having porosity and high surface area, and possess excellent HER performance close to that of commercial platinum catalysts.

ELECTROLYTE MEMBRANE FOR SOLID POLYMER FUEL CELL, MEMBRANE ELECTRODE ASSEMBLY, SOLID POLYMER FUEL CELL, METHOD FOR PRODUCING SAME, AND ELECTROLYTE MEMBRANE FOR SOLID POLYMER WATER ELECTROLYSIS

Resumen de: US20260321694A1

0000 A purpose of the present invention is to provide: an electrolyte membrane for a polymer electrolyte fuel cell, said electrolyte membrane having excellent proton conductivity; a membrane electrode assembly that includes the electrolyte membrane for the polymer electrolyte fuel cell; a polymer electrolyte fuel cell that includes the membrane electrode assembly; methods for producing the electrolyte membrane for a polymer electrolyte fuel cell, the membrane electrode assembly, and the polymer electrolyte fuel cell; and an electrolyte membrane for solid polymer water electrolysis. 0000 The electrolyte membrane for a polymer electrolyte fuel cell according to the present invention contains fine fibrous cellulose that is derived from wood or plants, wherein the average fiber width of the fine fibrous cellulose that is derived from wood or plants is 50 nm or less, and the fine fibrous cellulose has a phosphorus oxoacid group.

An Electrolyser Cell Frame Assembly And An Electrolyser

Resumen de: US20260317919A1

0000 The present invention discloses an electrolyser cell frame assembly comprising a cell frame with an inner peripheral edge and an outer peripheral edge; a gasket with an inner peripheral edge and an outer peripheral edge; and a cell element with a peripheral edge compressed between the gasket and the cell frame. The gasket exhibits compressible characteristics whereas the cell frame exhibits rigid characteristics. The outer peripheral edge of the gasket extends outwards over the peripheral edge of the cell element in the direction of the outer peripheral edge of the cell frame such that the gasket overlaps a predefined part of the cell frame.

CARBON REDUCTION TYPE SAGD PLANT SYSTEM USING GREEN HYDROGEN

Resumen de: US20260317632A1

The present invention relates to a carbon reduction type SAGD plant system using green hydrogen, which substitutes for expanding solvent steam-assisted gravity drainage (ES-SAGD) which is a method using an additive (a solvent or the like) in order to reduce steam and natural gas and to lower a steam-oil ratio (SOR) having an influence on generation of environmental pollution, upon recovering an oil component from oil sands reserved under the ground, based on a steam-assisted gravity drainage (SAGD) technology most common among methods of recovering bitumen from oil sands, thereby being capable of recovering bitumen while greatly reducing greenhouse gas emissions conventionally pointed out as a most serious problem, using only a mixture of eco-friendly hydrogen produced through a water electrolysis device with natural gas and steam.

A Separator for Alkaline Water Electrolysis

Resumen de: US20260317926A1

0000 A catalyst coated separator for alkaline water electrolysis (1) comprising a porous support (100) and on at least side of the support, in order:—an optional porous polymer layer (200),—a non-porous alkali-stable polymer layer (300), and—a catalyst layer (400).

STAMPED BIPOLAR PLATE FOR PEM WATER ELECTROLYSIS HYDROGEN PRODUCTION, AND PEM ELECTROLYZER

Resumen de: WO2026213927A1

Provided in the present application is a stamped bipolar plate for PEM water electrolysis hydrogen production, the stamped bipolar plate comprising a plate body. One end of the plate body is provided with a first water port, and the other end of the plate body is provided with a second water port, wherein the first water port and the second water port are arranged diagonally. One side surface of the plate body is provided with a first bridging region, a second bridging region, a first distribution region, a second distribution region and a first reaction region, wherein the first bridging region is in communication with the first water port, and the first distribution region is disposed between the first bridging region and the first reaction region; the second bridging region is in communication with the second water port, and the second distribution region is disposed between the second bridging region and the first reaction region; and the first distribution region and the second distribution region each comprise a plurality of first bosses and first recesses which are alternately arranged. Further provided in the present application is a PEM electrolyzer. The present application has good mechanical strength and electrical conductivity, a flow field is uniformly distributed, and the sealing effect is good, such that the gas transmission efficiency is improved, thereby improving the overall electrolysis efficiency is improved.

SOC STACK COMPRISING CONNECTION PLATE

Resumen de: US20260321700A1

A Solid Oxide Cell stack has at least one connection plate between the solid oxide cell stack and an adjacent end plate, two adjacent end plates and/or between adjacent solid oxide cell sub-stacks.

PROCESS FOR AMMONIA SYNTHESIS USING GREEN HYDROGEN AND METHOD FOR REVAMPING AN AMMONIA PLANT

Resumen de: US20260317184A1

0000 Process for synthesis of ammonia wherein: ammonia make-up gas (containing hydrogen and nitrogen is reacted in an ammonia converter-under ammonia forming conditions thus obtaining an ammonia-containing effluent; a first hydrogen portion contained in the ammonia make-up gas is produced by reforming a hydrocarbon source in a reforming process; a second hydrogen portion contained in the ammonia make-up gas is produced separately from said reforming process, by using at least a renewable energy source; a part of said hydrogen produced in step (c) is stored in a hydrogen storage; hydrogen from said hydrogen storage is used to fully or partially replace said second hydrogen portion when said renewable energy source is fully or partially unavailable.

System and Method for Renewable Energy Based EV Charging and Hydrogen Fueling

Resumen de: US20260316612A1

0000 A system for electric vehicle charging and hydrogen fueling leverages existing infrastructure of a localized renewable energy microgrid and utilizes excess generated energy to power an electrolyzer to produce hydrogen gas on site that is compressed and stored in a pressure vessel. A first portion of the stored hydrogen gas may be used for hydrogen fueling of a fuel cell electric vehicle (FCEV) via a hydrogen fuel dispenser that is provided at a charging station. A second portion of the stored hydrogen gas may be converted into electricity through use of one or more fuel cells. The generated electricity may be used for charging a battery of a battery electric vehicle (BEV) via an electric vehicle charging dispenser that is also provided at the charging station.

岩石から水素及び磁鉄鉱を生成する方法

Resumen de: WO2023007466A1

Systems and methods for sequestering carbon, evolving hydrogen gas, producing iron oxide as magnetite, and producing magnesium carbonate as magnesite through sequential carbonation and serpentinization/hydration reactions involving processed olivine- and/or pyroxene-rich ores, as typically found in mafic and ultramafic igneous rock. Precious or scarce metals, such nickel, cobalt, chromium, rare earth elements, and others, may be concentrated in the remaining ore to facilitate their recovery from any gangue material.

Electrolysis cell and method of use

Resumen de: AU2026242110A1

A method for hydrogen and/or oxygen generation from water in a solid/semi-solid state, using a hydrogel membrane. The method may include the steps of evaporating water to produce a water vapour, and subsequently separating hydrogen and oxygen from the evaporated water. An apparatus for hydrogen and/or oxygen generation from water in a solid/semi-solid state, using a hydrogel membrane. The apparatus may include a pair of electrodes separated by a membrane, with the membrane being hydrated with water such that the membrane forms a source of hydrogen and oxygen. ep e p

METHOD OF PURIFYING HELIUM FROM MIXED GAS

Resumen de: US20260315998A1

0000 In an aspect, a hydrogen separation unit includes an electrochemical cell stack that includes a separator stack located in between an anode side and a cathode side; a mixed gas conduit for receiving a mixed gas stream to the anode side; an anode removal conduit for removing a helium rich stream from the anode side; and a cathode removal conduit for removing a hydrogen rich stream from the cathode side. The separation stack includes a plurality of electrochemical cells, each of which includes a proton exchange membrane located in between an anode and a cathode. The proton exchange membrane can include a cation. The separation stack can be a cascading separation stack.

HYDROGEN PRODUCTION SYSTEM

Resumen de: WO2026216168A1

A hydrogen production system (1) has a steam electrolysis device (3) and a steam supply unit (2) for supplying steam to the steam electrolysis device (3). The steam supply unit (2) has: a heat exchanger (21) for heating liquid water (w) to generate first steam (v1) which is wet saturated vapor; and an electric heater (22) for heating the first vapor (v1) to generate second vapor (v2) having a higher degree of dryness than the first vapor (v1).

膜

Resumen de: WO2025068713A1

The specification describes bilayer electrolyte membrane comprising: a first layer comprising a polymer electrolyte having particles of a recombination catalyst dispersed therein; and a second layer comprising a polymer electrolyte not having any recombination catalyst dispersed therein; wherein the thickness of the bilayer electrolyte membrane is 40-60 µm; the concentration of recombination catalyst in the first layer is 1-100 µg/cm2; and the bilayer electrolyte membrane is a single coherent polymer film. Also described is a method for preparing the bilayer electrolyte membrane, a catalyst coated membrane for an electrochemical device comprising the bilayer electrolyte membrane, and a fuel cell comprising the catalyst coated membrane.

オフグリッド型ハイブリッド電解水素製造システム

Resumen de: CN119710757A

0001 The off-grid hybrid electrolysis hydrogen production system provided in this application includes a new energy power generation unit and an energy storage unit. A power conversion unit converts the electrical energy output from the new energy power generation unit and the energy storage unit into electrical energy suitable for hydrogen production. The electrolysis unit includes a proton exchange membrane hydrogen production module and a solid oxide electrolysis module, used for hydrogen production after the introduction of electrical energy. The controller uses the charge and discharge control of the energy storage unit to track the fluctuation value of the electrical energy output from the new energy power generation unit, ensuring that the total electrical energy fluctuation value output by the new energy power generation unit and the energy storage unit is within a set range. The above-mentioned solution provided in this application can improve the hydrogen production efficiency of the entire hydrogen production system, ensure that the hydrogen production system can operate off-grid, and, by keeping the total electrical energy fluctuation of the new energy power generation unit and the energy storage unit within a set range, this application eliminates the impact of power generation fluctuations from the new energy power generation unit on the hydrogen production effect.

MEMBRANE ELECTRODE ASSEMBLY

Resumen de: EP4822062A1

0001 Provided is a membrane electrode assembly capable of suppressing hydrogen crossover. A membrane electrode assembly for polymer electrolyte membrane water electrolysis which comprises an anode having a catalyst layer, a cathode having a catalyst layer and a polymer electrolyte membrane provided between the anode and the cathode wherein at least one of the catalyst layer in the anode and the catalyst layer in the cathode comprises a fluorinated polymer having ion exchange groups and comprising units having a cyclic ether structure.

METHOD OF PREPARING A CELL REPEAT UNIT FOR USE IN AN ELECTROCHEMICAL CELL STACK

Resumen de: WO2025119499A1

The invention relates to a method of preparing a cell repeat unit (18) for use in an electrochemical cell stack (10), the method comprising providing an electrochemical cell unit (28), said cell unit (28) having an inner fluid volume (44) and a cell opening (60) for transporting fluid between said inner fluid volume (44) and the exterior of the cell unit, providing a gasket being configured to surround the cell opening, and attaching said gasket to said cell unit by a hot melt adhesive dose (80). The invention also relates to a cell repeat unit and an electrochemical cell stack.

ELECTROCHEMICAL CELL ASSEMBLY

Resumen de: WO2025119497A1

The invention relates to an electrochemical cell assembly (10) comprising an end plate (14, 18), a stack (20) comprising a plurality of cell units (22) that are stacked upon one another along a stacking direction (24), and an insulating plate (32) that is interposed between the end plate and the stack, wherein the cell units each comprise a periphery (52) and a central portion (54), wherein at least one cut-out (76) is provided in the insulating plate, said cut-out extending through the insulating plate along the stacking direction, and wherein at least one inset (78) is positioned in said cut-out such that, seen along the stacking direction, the inset and the central portion overlap each other, said inset being formed from a ceramic material.

HYDROGEN PRODUCTION PLANT AND HYDROGEN PRODUCTION METHOD

Resumen de: EP4822059A1

0001 The purpose of the present invention is to improve the safety of a hydrogen production plant. This hydrogen production plant (1) comprises: a solid oxide electrolysis cell (SOEC) (10) which produces a hydrogen-containing gas; and a discharge stack (30) into which the hydrogen-containing gas produced by the SOEC (10) is introduced and which discharges the introduced hydrogen-containing gas to air. The discharge stack (30) has a spray unit (32) which supplies, to the hydrogen-containing gas introduced therein, cooling water for cooling the hydrogen-containing gas.

SYSTEMS AND METHODS FOR ELECTROCHEMICAL GENERATION OF SYNGAS AND OTHER USEFUL CHEMICALS

Resumen de: EP4821585A2

Processes and apparatus for electrocatalytically converting carbon dioxide emissions and/or ambient carbon dioxide into useful chemicals are described. The process may include: removing carbon dioxide from ambient air through a carbon capture technique, supplying a carbonate or bicarbonate aqueous solution as cathode feed to a cathode of an electrolytic cell comprising a membrane electrode assembly which includes a bipolar membrane separating an anode from the cathode, and applying an electrical potential difference between the cathode and the anode of the membrane electrode assembly to electrocatalytically reduce the carbonate or bicarbonate aqueous solution to carbon monoxide or another useful chemical.

AMMONIA CRACKING UNIT

Resumen de: EP4821882A2

0001 Die Erfindung betrifft eine Ammoniak-Cracking-Anlage (200, 300), umfassend mindestens einen Cracking-Reaktor (202, 302) mit einem Fluideingang (204, 304) und einem Fluidausgang (206, 306), eingerichtet zum Generieren von Wasserstoff, basierend auf über den Fluideingang (204, 304) zugeführtem Ammoniak, mindestens einen Brennraum (212, 312), eingerichtet zum Bereitstellen von Wärme für den Cracking-Reaktor (202, 302) durch Verbrennen mindestens eines Brennstoffs, wobei die Ammoniak-Cracking-Anlage (200, 300) mindestens einen Elektroerhitzer (230, 330, 340, 388) umfasst, eingerichtet zum Bereitstellen von Wärme für den Cracking-Reaktor (202, 302) durch Umwandeln von elektrischen Energie in Wärme.

A METHOD FOR OPERATING AN ELECTROLYSIS SYSTEM, RELATED CONTROLLER, POWER SUPPLY AND ELECTROLYSIS SYSTEM

Resumen de: EP4822938A1

0001 A method for operating an electrolysis system (2) is provided. The method comprises an electrolyzer (6), a transformer (3), and a rectifier (4, 5), wherein the transformer (3) receives an electrical AC power from an electrical grid (104) and provides an AC power (AC) output to the rectifier (5), wherein the rectifier (5) converts the AC power output (AC) into a DC power input (P1) for the electrolyzer (6), the method further comprising i), identifying begin-of-life (BOL) parameters for an electrolyzer stack (6) based on a measurement, wherein a linear dependency between a DC voltage (Udc) and a related DC current (Idc) is determined, ii), identifying end-of-life (EOL) parameters for the electrolyzer stack (6) based on a theoretical assumption, wherein a linear dependency between a DC voltage (Udc) and the related DC current (Idc) is determined, and iii) deriving a polarization curve of an actual ageing status (M) of the electrolyzer stack based on the identified parameters (BOL, EOL), wherein the derived polarization curve is used for determining of a new DC power input (P2) based on a new AC power setpoint requested from a grid operator. Moreover, a related power supply, a controller, a computer program and a related electrolyzer system are provided.

水蒸気電解システム

Resumen de: JP2026165594A

【課題】生成された水素の純度が低下することを抑制する水蒸気電解システムを提供する。【解決手段】水蒸気から水素を生成する燃料極２１、空気が流通される空気極２２、および、燃料極２１と空気極２２との間に配置される固体電解質２３を備える電解セルスタック２と、水蒸気含有ガスを燃料極２１に供給する水蒸気供給ライン３と、水素を含む生成ガスを導出する水素導出ライン４と、空気極２２に空気を供給する空気供給ライン５と、空気極２２で生成された酸素を含む排出空気を排出する空気排出ライン６と、水素導出ライン４に配置されるとともに、燃料極２１で水素が生成される状態で、燃料極２１に面する空間内の圧力が空気極２２に面する空間内の圧力よりも大きくなるように調整する少なくとも１つの圧力調整弁７と、を備える水蒸気電解システム１ａ。【選択図】図１

水電解システム

Resumen de: JP2026167173A

0001 【課題】複数の水電解スタックにそれぞれ流れる電流の差分を小さくすることができる技術を提供する。 【解決手段】水電解システムは、主電源ユニットと、主電源ユニットに対して互いに並列に接続された複数の並列回路と、複数の並列回路にそれぞれ配置された複数の水電解スタックと、副電源ユニットと、を備える。副電源ユニットは、複数の並列回路のうち、一部の並列回路上へ電気的に配置可能に構成されている。 【選択図】図２

水電解システム

Resumen de: JP2026167286A

【課題】水電解セルの劣化を抑制しつつ、エージング効果を奏する水電解システムを提供する。【解決手段】水電解セルで水電解を行う水電解システムであって、エージング処理として酸素極側に対して、低電圧側は１．４８Ｖ以下、高電圧側は１．８５Ｖ以下となるサイクル電圧を印加する。【選択図】図４

ELECTROLYTIC CELL STACK, ELECTROLYTIC CELL CARTRIDGE, ELECTROLYTIC CELL MODULE, AND METHOD FOR MANUFACTURING ELECTROLYTIC CELL STACK

Resumen de: EP4822060A1

0001 The purpose of the present disclosure is to provide an electrolytic cell stack capable of increasing the amount of product generated by electrolysis while suppressing the temperature rise of the cell stack. An electrolytic cell stack (101) according to the present disclosure comprises: an electrolysis unit cell (105) that has a hydrogen electrode containing Ni, an oxygen electrode, and a solid electrolyte membrane and is formed in the circumferential direction of a base tube; and an interconnector that electrically connects a plurality of electrolysis unit cells arranged in the axial direction of the base tube. When the distance between the ends of the oxygen electrode, oriented in the axial direction of the base tube, in each electrolysis unit cell is defined as the width W of the electrolysis unit cell, and the area on the base tube in which the plurality of electrolysis unit cells are arranged is divided into a first end portion (10), a central portion (11), and a second end portion (12) along the axial direction, the widths W1, W3 of the electrolysis single cells (105b, 105c) positioned in the first end portion and/or the second end portion is 1.5 to 3 times greater than the width W2 of the electrolysis unit cell (105a) positioned in the central portion.

WATER ELECTROLYSIS-BASED HYDROGEN PRODUCTION SYSTEM COMPRISING A BALANCING CONDUIT CONNECTING TWO GAS SEPARATORS

Resumen de: EP4822058A1

The invention relates to a water electrolysis-based hydrogen production system (1) comprising a stack (2) comprising at least one electrolytic cell, the stack (2) being traversed by a first electrolyte circuit (Circ(H2)) to collect hydrogen gas (G_H2) and a second electrolyte circuit (Circ(O2)) to collect oxygen gas (G_O2); a first separator (3a) disposed in the first electrolyte circuit (Circ(H2)) for separating hydrogen gas (G_H2) from the electrolyte, the first separator (3a) comprising a first vessel (Va) presenting a bottom (Ba); a second separator (3b) disposed in the second electrolyte circuit (Circ(O2)) for separating oxygen gas (G_O2) from the electrolyte, the second separator (3b) comprising a second vessel (Vb) having a bottom (Bb); a balancing conduit (4) fluidly connecting the first separator (3a) and the second separator (3b), the balancing conduit (4) presenting a first end (4a) opening into the first vessel and a second end (4b) opening into the second vessel. The first end (4a) and the second end (4b) of the balancing conduit (4) are positioned, respectively, at a first level (7a) above the bottom (Ba) of the first vessel and at a second level (7b) above the bottom (Bb) of the second vessel to prevent the complete drainage of electrolyte from the first separator (3a) or from the second separator (3b) through the balancing conduit (4).

双极板、其制造方法、板组件和电化学系统

Resumen de: WO2025223617A1

The invention relates to a bipolar plate (1) for use in an electrochemical system (10), formed from a metal sheet having an anode side (1a) and a cathode side (1b), wherein an edge region (6) of the bipolar plate (1) defines a reference plane (EE) and, in the edge region (6), there are ports (7, 8) for input and output of media to or from an active field (9), in the region of which electrochemical reactions take place in the electrochemical system (10), and wherein, in the active field (9), structuring (12) of the bipolar plate (1) is designed such that an active field base plane (EA) formed by two-dimensional material of the bipolar plate (1) is offset in a parallel spaced-apart manner from the reference plane (EE), namely in the direction toward the cathode side (1b), and individual embossed elements (13, 22) present in the active field (9) all project from the active field base plane (EA) in the direction of the anode side (1a). The invention further relates to a method of producing the bipolar plate (1), to a plate assembly (11) and to an electrochemical system (10).

H2 I2 HI HYDROGEN IODIDE HI PRODUCTION BY REACTION OF HYDROGEN H2 WITH IODINE I2 DISSOLVED IN A SOLVENT

Resumen de: US2020377366A1

A process for the manufacture of hydrogen iodide (HI) from hydrogen (H2) and elemental iodine (I2) dissolved in a suitable solvent with use of at least one catalyst selected from the group of platinum, palladium, nickel, cobalt, iron, nickel oxide, cobalt oxide, and iron oxide.

一种制氢储氢系统及方法

Resumen de: CN122898896A

0001 本公开实施例提供了一种制氢储氢系统及方法，所述系统包括：控制子系统、制氢子系统和储氢子系统；制氢子系统，包括至少一个电解池和水电解循环管路；用于利用所述至少一个电解池对水进行电解制备氢气；储氢子系统，包括气态储氢罐、液态储氢罐和固态储氢罐；用于基于需求条件选择合适的储氢罐对氢气进行储存；控制子系统与制氢子系统和储氢子系统通信连接，用于对制氢子系统和储氢子系统的运行进行调控。通过控制子系统与高效的电解水制氢及先进的储氢技术相结合，实现了从水电解到氢气储存再到能量转换的全流程优化，提升了系统的整体性能和经济效益，推动了清洁能源的有效利用。

一种超薄碳层包覆二元金属硫化物电极的制备方法及应用

Resumen de: CN122898923A

0001 本发明属于电催化材料领域，公开了一种超薄碳层包覆二元金属硫化物电极的制备方法及应用，电极的制备方法包括以下步骤：将金属源、碳源和硫源加入溶剂中混合均匀，得到混合溶液，将电极基底放入混合溶液中进行水热反应，即得所述超薄碳层包覆二元金属硫化物电极。本发明通过一步水热法制备超薄碳层包覆二元金属硫化物电极，从而提高电极的活性比表面积，促进活性位点的暴露，进而增强催化电极的电化学性能。不仅能够解决目前电解水制氢领域的电化学活性差以及在大电流密度下稳定性差的技术问题，而且还能通过电解海水制氢耦合提镁实现氢气和氢氧化镁联产，大幅提升电解海水制氢技术的经济效益。

一种用于电解水制氢的铜基催化剂、其制备方法和应用与电解水制氢方法

Resumen de: CN122898907A

本发明属于电化学催化剂技术领域，具体涉及一种表面结构可调的铜基催化剂、其制备方法和应用与电解水制氢方法。所述铜基催化剂为表面具有粗糙缺陷的铜箔；或者，所述铜基催化剂为表面原位重构出致密堆叠的均匀纳米颗粒层的铜箔，所述均匀纳米颗粒层中颗粒平均粒径为22‑26nm。本发明巧妙地采用室温化学溶液（L‑乳酸和碱液）浸泡的策略在纯铜箔表面原位溶出并重构形成一种特殊的粗糙缺陷结构。在电解测试中，特别是在‑1.0 V vs.RHE的较低工作电位下，该特定表面可使电催化HER反应转化为绝对主导的目标反应，其氢气法拉第效率高度接近100%，成功实现了低能耗、高效率的电催化纯析氢。

石墨烯气凝胶负载NiFeMoRu多金属析氧反应电催化剂及其制备方法和应用

Resumen de: CN122898912A

本发明属于析氧电催化领域，具体涉及石墨烯气凝胶负载NiFeMoRu多金属析氧反应电催化剂及其制备方法和应用。本发明通过将Ni、Fe、Mo、Ru前驱体溶液浸渍石墨烯气凝胶并进行两阶段焦耳热处理，使多金属活性组分在三维导电多孔骨架上原位形成并分散负载，降低局部富集和团聚风险。所得催化剂具有较好的析氧反应活性、电荷传输能力和运行稳定性，适用于阴离子交换膜水电解膜电极和器件。

一种铱掺杂二氧化钌酸性析氧电催化剂及制备方法

Resumen de: CN122898922A

本发明涉及一种铱掺杂二氧化钌酸性析氧电催化剂及制备方法，将可溶性钌盐和形貌调控剂按比例混合，经pH调控、水热反应制备得到二氧化钌基体，再通过可溶性铱盐浸渍掺杂和高温退火处理，制得目标电催化剂。该催化剂通过构筑微观纳米结构，增大材料比表面积，充分暴露催化活性位点，实现铱均匀掺杂；通过铱掺杂调节二氧化钌电子结构，优化电子传输效率，改善酸性析氧反应动力学，所得催化剂在强酸性条件下的催化活性与稳定性明显优于纯相二氧化钌；该催化剂制备工艺参数可控、流程稳定、设备要求低，适用于酸性析氧反应，可广泛应用于高效电解水制氢、二氧化碳还原等系统，具备良好的应用潜力。

一种小尺寸二氧化钌纳米粒子及其制备方法和应用

Resumen de: CN122898916A

0001 本发明公开了一种小尺寸二氧化钌纳米粒子及其制备方法和应用，涉及催化剂技术领域。制备方法为：将氯化钌前驱体盐溶解到去离子水中，加入碳载体，搅拌得到均匀的溶液，将混合溶液通过旋蒸仪去除水溶液，获得干燥的负载在碳载体上的氯化钌材料；研磨为松散的粉末后在还原气氛下进行煅烧，获得负载在碳载体上的金属钌纳米颗粒；随后在空气气氛下进行煅烧，去除碳载体；最后进行研磨，获得分散均匀的二氧化钌纳米粒子材料。本发明制备工艺流程简单，无需复杂辅助体系，具有可控性强、重复性好的优势，适合规模化生产。所得产物为高分散、粒径均一的小尺寸纯相二氧化钌纳米颗粒，可作为一种高性能催化剂，适用于酸性电解水析氧催化反应。

一种中空非晶态高熵氧化物自支撑电极材料的制备方法及其应用

Resumen de: CN122898908A

本发明公开一种中空非晶态高熵氧化物自支撑电极材料的制备方法及其应用，是以碳纸为导电基底，利用氧化锌纳米棒作为牺牲模板，设计出一种空心、自支撑的非晶态ZnFeCoNiCu氧化物（H‑ZFCNC‑O），该空心结构实现了双侧电解质扩散通道。同时非晶基体消除了长程扩散障碍，多元素协同作用则形成了多路径重构机制。因此，H‑ZFCNC‑O表现出加速的重构动力学，形成高活性相，通过结构非晶化克服扩散迟缓效应，使高构型熵更有效地驱动电化学重构，为调控高熵电催化剂的结构演化提供了一种新策略。

一种差压式海水/污水原位制氢耦合系统

Resumen de: CN122898900A

本发明公开了一种差压式海水/污水原位制氢耦合系统，涉及电解水制氢技术领域，解决常压转相系统与高压电解制氢系统耦合时转相膜承受高压、系统需配置减压泵等主动降压装置、结构复杂等问题。该系统包括压力型电解制氢系统、压力缓冲系统和转相系统。压力缓冲系统通过增压泵将碱液从一级碱液储罐加压后输送至压力型电解制氢系统，气液分离系统分离后的碱液无需经过任何主动降压设备（如减压泵），仅依靠压力型电解制氢系统与二级碱液储罐之间的固有压差被动自动回流，形成差压驱动的碱液循环回路。该系统能够实现转相膜组件常压运行、高压直接制氢，省去减压泵等主动降压设备，简化系统结构，降低设备成本，提高系统运行可靠性。

一种具有二维片状结构的自支撑镍镓合金析氢电极及其制备方法与应用

Resumen de: CN122898918A

本发明公开了一种具有二维片状结构的自支撑镍镓合金析氢电极及其制备方法与应用，制备方法包括以下步骤：将镍网浸没于液态金属镓中，在惰性气氛保护下，以2‑10 ℃/min的升温速率升温至350‑550 ℃后进行保温处理，保温结束后进行骤冷处理，随后采用碱性溶液进行处理，经清洗、干燥后得到所述自支撑镍镓合金析氢电极。本发明制备流程简洁，无需复杂设备以及繁复的化学合成工序，并且工艺可直接放大实现大面积电极制备，拥有良好的规模化应用潜力。本发明制得的具有二维片状多孔结构的自支撑镍镓合金析氢电极作为电催化剂，在电解水析氢反应中展现出优异的催化能力。

一种钌基催化剂及其制备方法和应用

Resumen de: CN122898920A

本发明涉及电催化分解水技术领域，具体涉及一种钌基催化剂及其制备方法和应用。本发明提供的一种钌基催化剂，包括核与包覆所述核的壳，所述核的材料包括金属钌，所述壳的材料包括钌氧化物。本发明得到的核壳结构中RuO2壳层与金属核之间呈现择优取向，并暴露特定晶面(101)，在用于质子交换膜电解水阳极催化剂时，具有更多反应位点，催化活性高，稳定性更强。

一种压力型水电解制氢槽用非金属极框

Resumen de: CN122898903A

本发明公开了一种压力型水电解制氢槽用非金属极框，属于水电解制氢设备技术领域，旨在解决传统金属极框易腐蚀、现有非金属极框在压力型工况下密封可靠性不足及极框厚度偏大等问题。极框主体由非金属工程塑料制成；两侧交替设置拉紧螺栓孔和气液通孔；内部小室流道轴线与极框主体表面呈倾斜角度设置，实现极框薄型化；内侧设O形圈密封凹槽；外侧配置C型包边结构外密封垫片；与双极板密封区域对应位置设密封凹槽；阳极侧设下沉反应区；阴极侧设蛇板结构。本发明通过倾斜流道、交替孔位排布及多层次密封结构协同配合，实现极框免电镀镍、密封可靠、结构薄型化，适用于压力型碱性水电解制氢槽。

一种电解槽结构优化设计方法及装置

Resumen de: CN122904766A

0001 本发明公开一种电解槽结构优化设计方法及装置，本发明首先优化电解槽进出口歧管管径分布，均衡各个电解小室的电解液流量；选取膨胀网作为核心流道结构，优化其几何参数匹配系统设计电流密度，同步改善流动均匀性、压降损耗与界面传质效果。在电解小室径向布置多组进出口并配套导流区，促使电解液由点源均匀铺满流道整体宽度。沿介质流向将小室划分为入口区、中间活性区、出口区，对三区结构参数差异化设计，并与膨胀网流道协同匹配。本发明通过歧管、流道、进出口、分区结构多维度一体化优化，有效实现电解液全域均匀分布，同时加快电解产生的气液两相分离，降低能耗，全面提升电解系统反应效率与运行稳定性。

一种用于碱性水电解的聚苯硫醚/细菌纤维素/聚苯硫醚复合膜的制备方法

Resumen de: CN122898019A

0001 本发明公开了一种聚苯硫醚/细菌纤维素/聚苯硫醚三层对称复合隔膜的制备方法，涉及碱性电解水制氢用隔膜技术领域。所述复合隔膜利用液相原位聚合法在细菌纤维素膜两侧原位生长聚苯硫醚层，并通过低温短时热压定型获得。本发明利用细菌纤维素表面羟基与聚苯硫醚单体的氢键相互作用，诱导聚苯硫醚在细菌纤维素膜面定向沉积、成核生长，形成聚苯硫醚薄层。通过原位聚合实现双侧对称包覆，配合低温短时热压工艺，在避免细菌纤维素中间层过度压缩的前提下，实现聚苯硫醚表层致密化调控与界面机械互锁，制备得到具有对称结构的三层复合隔膜。该隔膜在碱性水电解过程中表现出高泡点压力、超低面电阻及超高氧纯度，且长期运行稳定性优异。

一种MIL-101(Cr)/In2S3复合光催化剂及其制备方法与应用

Resumen de: CN122895048A

0001 本发明公开了一种MIL‑101(Cr)/In<2>S<3>复合光催化剂及其制备方法与应用。属于复合光催化材料技术领域。该复合光催化剂由八面体结构的MIL‑101(Cr)与花状微球结构的In<2>S<3>经物理复合而成，MIL‑101(Cr)锚定在In<2>S<3>的片层结构表面及片层间，二者之间形成异质界面。制备方法包括分别水热合成MIL‑101(Cr)和In<2>S<3>，再将二者按比例室温搅拌复合。本发明通过将MIL‑101(Cr)与In<2>S<3>进行物理复合，构建了具有紧密异质界面的复合光催化剂。得益于二者能带结构的高度匹配，在可见光激发下，光生电子可快速从In<2>S<3>转移至MIL‑101(Cr)，抑制了光生载流子的复合，显著提高了光量子效率。该复合光催化剂在可见光下可高效降解四环素，当MIL‑101(Cr)与In<2>S<3>质量比为0.5:0.375时，180min内对四环素的降解率达94.8%，且稳定性优异；同时具有良好的光催化产氢性能，4h产氢量达1753.16μmol。

一种抗电源分钟级以下的快速波动电极及制备方法、应用

Resumen de: CN122898919A

0001 本公开提出一种抗电源分钟级以下的快速波动电极及制备方法、应用，属于电解水制氢技术领域。快速波动电极包括：泡沫镍基底；复合催化剂涂层，涂覆于泡沫镍基底表面，复合催化剂涂层包括镍铁合金与石墨烯，且该复合催化剂涂层具有多级孔道结构；铱涂层负载于复合催化剂涂层。通过将镍铁合金和石墨烯作为复合催化剂涂层，镍铁合金具有一定的催化活性，石墨烯具有优异的导电性，两者协同导电，有利于提升电极的导电性，同时，复合催化剂涂层具有多级孔道结构，能够提升导电性和抗波动性。此外，通过在复合催化剂涂层表面修饰铱，显著提升电极在电源快速波动下的抗腐蚀性和反应动力学稳定性，解决传统电极因动态工况导致的寿命短、效率低等问题。

一种界面硫耦合的析氢催化剂及其制备方法和应用

Resumen de: CN122898909A

0001 本发明提供了一种界面硫耦合的析氢催化剂及其制备方法和应用，属于催化材料技术领域。本发明的析氢催化剂包括多孔镍基底、负载在所述多孔镍基底上的硫化镍纳米片和负载于所述硫化镍纳米片上的Pt纳米团簇；所述硫化镍纳米片与Pt纳米团簇之间通过硫桥键连接。硫桥键能同时调控电子结构、削弱界面水分子氢键网络、降低气液界面张力促进气泡快速释放并有效抑制Ca<2+>和Mg<2+>引发的氢氧化物沉积，提高复杂天然海水环境中催化剂的活性与稳定性。本发明提供的界面硫耦合的析氢催化剂在碱性海水和天然海水体系中均表现出优异的催化活性，可长久稳定运行200h，具有优异的稳定性。

一种电解槽辅助紧固装置和紧固方法

Resumen de: CN122879731A

本发明提供了一种电解槽辅助紧固装置和紧固方法，一种电解槽辅助紧固装置，包括：外围支架，用于为辅助紧固装置提供支撑；施力组件，设置于所述外围支架上，用于对电解槽的中心区域施加压力；所述施力组件包括单侧托盘、单侧压块或双侧压块中的至少一种；驱动组件，与所述施力组件连接，用于驱动所述施力组件移动以调节施加在所述电解槽上的压力大小；本发明的有益效果是：本发明操作简易、可行性高，可直接兼容至现有装配工艺，利用辅助紧固装置及方法，对电解槽的非螺栓紧固区域（中心区）进行压力补偿，从而实现整个电解槽的有效压力加载，维持端板、极板等部件不变形、不失效。

电极隔膜单元、制备方法、电解槽单元及能源制氢设备

Resumen de: WO2025179506A1

The present disclosure relates to an electrode separator unit, a preparation method, an electrolytic cell unit, and a device for hydrogen production from a renewable energy. The electrode separator unit of the present disclosure comprises a membrane electrode assembly arranged in a center area of the electrode separator unit and comprises a sealing frame arranged around the outer peripheral wall of the membrane electrode assembly, wherein the inner peripheral wall of the sealing frame is fixedly connected to the outer peripheral wall of the membrane electrode assembly by means of material connection. In the solution of the present disclosure, by using the sealing frame and fixedly connecting the inner peripheral wall of the sealing frame to the outer peripheral wall of the membrane electrode assembly by means of material connection, no gaps generated by traditional packaging are present in the electrode separator unit. In addition, the contact area between the sealing frame and an adjacent functional component during fixed connection is increased, so that the clamping force for packaging an electrolytic cell device is more concentrated, and thus the sealing effect of the electrode separator unit is firmer, thereby further improving the hydrogen production efficiency. In addition, the present disclosure further reduces the number of parts, reduces the production cost, and improves the production efficiency.

一种无膜电解槽、其使用方法和应用

Resumen de: CN122879725A

本发明提供了一种无膜电解槽、其使用方法和应用，所述无膜电解槽包括：基体，所述基体内部开设有反应腔；至少一组阳极和阴极；各组中，所述阳极和所述阴极固定于所述基体上且至少部分位于所述反应腔内；所述阳极和所述阴极在垂直于电解液流动方向所在的竖平面上的正投影互不重叠；所述基体连接有阳极侧进料流道、阳极侧气液出口流道、阴极侧进料流道与阴极侧气液出口流道；且所述阳极侧进料流道与所述阴极侧进料流道、所述阳极侧气液出口流道与所述阴极侧气液出口流道分别独立设置；所述阳极侧进料流道与所述阳极侧气液出口流道、所述阴极侧进料流道与所述阴极侧气液出口流道各自相对设置在所述基体的两端，且均连通各自对应的反应腔区域。

一种Ru-Pd前驱界面调控Pt沉积的Ru-Pd-Pt/C催化剂及其制备方法与应用

Resumen de: CN122879757A

0001 本发明涉及电催化技术领域，具体是一种Ru‑Pd前驱界面调控Pt沉积的Ru‑Pd‑Pt/C催化剂及其制备方法与应用。该方法先在碳载体上依次负载并还原Ru前驱体和Pd前驱体，形成含Ru‑Pd邻近结构的前驱催化剂；随后将前驱催化剂分散于含甲酸的反应介质中，加入Pt前驱体，使Pt前驱体在甲酸直接还原以及Ru‑Pd邻近结构促进甲酸活化所提供的局部还原性物种共同作用下发生速率调控沉积，得到Ru、Pd和Pt紧密相邻分布的三金属纳米催化剂。碳载体优选为竹隔经预碳化和KOH活化制得的分级多孔碳。该制备方法能够提高Pt沉积效率，抑制颗粒过度生长，并构建有利于氢相关中间体生成、迁移和复合脱附的多金属邻近结构。所得催化剂适用于酸性析氢反应、质子交换膜电解水阴极催化层及膜电极组件。

铱钌基高熵金属氧化物电催化剂、制备方法和应用

Resumen de: CN122879739A

0001 本发明属于电催化剂合成技术领域，涉及一种铱钌基高熵金属氧化物电催化剂、制备方法和应用。包括以下步骤：（1）将重金属盐和基体盐研磨，得到金属盐混合物，重金属盐为钌盐、铱盐、锰盐、锡盐和铬盐的组合，基体盐为氯化钠；将金属盐混合物中球磨1hr后，加入氢氧化钠溶液，继续球磨1hr，得到锡掺杂铱钌固溶体氧化物前驱体；（3）将锡掺杂铱钌固溶体氧化物前驱体进行热处理，获得含有氯化钠的铱钌基高熵金属氧化物；（4）将含有氯化钠的铱钌基高熵金属氧化物进行水洗，获得铱钌基高熵金属氧化物电催化剂。本发明显著提升了材料的耐久性和使用寿命。

一种CoZn双金属有机框架/泡沫镍自支撑电极的制备方法及应用

Resumen de: CN122879744A

0001 本发明涉及新能源‑电解水制氢技术领域，公开一种CoZn双金属有机框架/泡沫镍自支撑电极的制备方法及应用，包括：S1、将泡沫镍裁剪为适当尺寸，依次在盐酸溶液、无水乙醇和去离子水中超声清洗，去除表面氧化层和油污干燥备用；S2、将六水合硝酸钴和六水合硝酸锌溶解于甲醇中得到金属盐溶液；另将2‑甲基咪唑溶解于甲醇中得到有机配体溶液；S3、将有机配体溶液加入金属盐溶液中混合均匀，将预处理后的泡沫镍竖直浸入混合溶液中，室温下静置生长24 h，在泡沫镍表面原位结晶生长；S4、取出泡沫镍，分别用甲醇和去离子水洗涤，去除表面残余前驱体，真空干燥得到CoZn MOF/泡沫镍自支撑电极。本发明以泡沫镍为导电基底，室温静置法得到无需粘结剂的自支撑电极。

一种耦合海上风电制氢的固态储氢系统及方法

Resumen de: CN122879724A

本发明涉及固态储氢技术领域，公开了一种耦合海上风电制氢的固态储氢系统及方法，包括海水电解制氢组件、储氢组件、反应釜、合金粉末储存罐、搅拌稳定组件与固态储氢材料储存罐；海水电解制氢组件与储氢组件相连通，反应釜顶部设有第一进口和第二进口，第一进口与储氢组件相连通，第二进口与合金粉末储存罐相连通，反应釜与搅拌稳定组件相连接，搅拌稳定组件与固态储氢材料储存罐相连接，各组件协同构成完整的固态储氢体系；该结构彻底摒弃了现有海上平台普遍采用的高压气态储氢技术所需的高强度、大体积储氢容器及严苛的密封与检测体系，从根本上解决了现有高压气态储氢设备成本高、工艺复杂度高的问题。

碱性电解槽的温度串级控制方法、装置和制氢系统

Resumen de: CN122879759A

0001 本公开的实施例提供一种碱性电解槽的温度串级控制方法，包括以下步骤：获取碱性电解槽出口处的碱液实际温度；基于碱液实际温度和碱液设定温度，采用模糊控制算法计算被碱液冷却器冷却后的碱液理论流量；获取碱液冷却器碱液出口处的碱液实际流量；基于碱液实际流量和碱液理论流量，控制碱液冷却器的冷却液流量。通过采用模糊计算的方法，利用规则对温度信息进行处理，提高处理大滞后、非线性的问题的能力，提高碱性电解槽温度控制的相应速度和适应性，使碱性电解槽的温度控制更加平滑，在负载条件变化较大时，实现快速且准确的温度调节。

水素化マグネシウムと塩化マグネシウム水溶液との反応で水酸化マグネシウムが晶出しないように塩化マグネシウム水溶液にクエン酸或いはグルコン酸と云ったハイドロオキシカルボン酸を使用した塩化マグネシウム水溶液から製造したクロロマグネシウムプラズマを安全に増産する方法

Resumen de: JP2026164588A

0001 【要約】 【課題】水素化マグネシウムと塩化マグネシウム水溶液との反応でクロロマグネシウムプラズマを生産する方法において、水酸化マグネシウムが晶出しないようにする方法を提供する。 【解決手段】水素化マグネシウムと塩化マグネシウム水溶液との反応で水酸化マグネシウムが晶出しないように、塩化マグネシウム水溶液にクエン酸或いはグルコン酸と云ったハイドロオキシカルボン酸を使用した、塩化マグネシウム水溶液から製造したクロロマグネシウムプラズマを安全に増産する方法が提供される。 【選択図】なし

ろう材、接合体、燃料電池、および水電解セル

Resumen de: JP2026163585A

【課題】接合体の耐久性を向上させるろう材を提供すること。耐久性が向上した接合体を提供すること【解決手段】ろう材は、９５重量％以上９９．９重量％以下の銀（Ａｇ）と、０．１重量％以上５重量％以下のスズ（Ｓｎ）と、任意成分として０重量％以上３重量％以下のクロム（Ｃｒ）と、残部が不可避不純物と、からなる。スズ（Ｓｎ）の含有量は、１．０重量％以上であってもよい。上記ろう材は、大気ろう付において用いられてもよい。接合体は、金属材料およびセラミック材料のうちの１つを含む第１部材と、上記ろう材を用いて第１部材と接合される第２部材と、を含む。【選択図】図１

スラリーおよびその利用

Resumen de: JP2026162874A

【課題】優れた触媒性能と触媒粒子の分散性を両立した触媒インクを作製することができるスラリーを提供すること。【解決手段】ここに開示される技術は、触媒粒子と、水溶性有機溶剤と、を含むアニオン交換膜型水電解装置用の触媒インクの作製に用いられるスラリーに関する。上記触媒粒子は、ニッケル粒子と、該ニッケル粒子の表面に付着した分散剤と、を備え、上記分散剤の水‐オクタノール分配係数は２．５以上８以下であり、上記触媒粒子の表面から深さ方向に、ＳｉＯ２換算でのスパッタ深さ３．３ｎｍまでＸ線光電子分光法による測定を行ったとき、上記スパッタ深さ３．３ｎｍにおける、Ｃ原子とＯ原子とＮｉ原子の合計に対するＣ原子濃度が２２ａｔ％以上５５ａｔ％以下である。【選択図】図１

一种基于引射器的电解水制氢除水系统及方法

Resumen de: CN122879727A

本发明涉及氢能制备与气体净化技术领域，且公开了一种基于引射器的电解水制氢除水系统及方法，其中基于引射器的电解水制氢除水系统，包括电解槽、氢气处理单元、氧气处理单元、引射回收单元、碱液回收单元及集中控制系统；所述氢气处理单元与氧气处理单元流程对称且物理、电气完全隔离；除水效率大幅提升：引射器协同干燥器实现气体的循环再处理，使氢气含水量可降至10ppm以下，满足燃料电池等高纯氢应用标准；氢气回收率显著提高：再生排气中的氢气被有效回收，系统整体氢气收率从传统工艺的95–97%提升至99.5%以上，大幅提升经济性；能耗明显降低：引射器以系统自身高压气体为动力，无需外接压缩机或鼓风机，干燥器再生气耗减少30%以上。

水電解装置

Resumen de: JP2026164197A

【課題】浄水器の劣化をおさえながら、水電解用の水を冷却および浄化し、十分な量を水電解セルに供給すること。【解決手段】水電解装置は、水電解反応により水素および酸素を生成する水電解セルと、前記水電解セルで使用された水を貯蔵する水タンクと、前記水タンクに接続され前記水タンクから供給された水を冷却する熱交換器と、前記熱交換器に接続され前記熱交換器で冷却された水を浄化する浄水器と、前記水タンクから供給された水が前記水電解セルを介して前記水タンクに流れる第１水回路と、前記水タンクから供給された水が前記熱交換器および前記浄水器を介して前記水タンクに流れる第２水回路と、を備える。【選択図】図１

氧掺杂与氮空位共修饰氮化钨负载钌/碳纸Ru/O-WN1-x/CP催化剂及其制备方法和应用

Resumen de: CN122879742A

本公开涉及氧掺杂与氮空位共修饰氮化钨负载钌/碳纸Ru/O‑WN1‑x/CP催化剂及其制备方法和应用，属于电解水制氢技术领域。针对Ru催化剂的本征HER活性不足和稳定性差的问题，本发明以氧掺杂与氮空位共修饰氮化钨纳米线为载体，通过液相浸渍法和氩气/氢气混合气还原法将超细Ru纳米颗粒锚定在其表面。O‑WN1‑x纳米线不仅能够抑制Ru纳米颗粒的生长与团聚，显著增加催化剂的比表面积，而且与Ru纳米颗粒存在强电子相互作用，有效调控Ru的电子结构，提高Ru的本征活性。本发明制备的Ru/O‑WN1‑x/CP催化剂在碱性电解液中表现出优秀的HER性能，在达到10 mA cm‑2和1A cm‑2的电流密度下所需过电位分别为为4.27mV和137.8mV。制备工艺简单、重复性好，可大规模应用于电解水制氢领域。

流体処理システム及び流体処理システムの設計方法

Resumen de: JP2026162522A

【課題】流動状態の安定化が可能であり、かつ小型化が可能な流体処理システム及びその設計方法を提供する。【解決手段】本発明によれば、流体処理システムであって、処理槽と、生成物ヘッダー配管と、生成物枝配管と、気液分離器とを備え、前記処理槽は、気体生成物を生成するように構成され、前記生成物枝配管は、前記処理槽から排出される前記気体生成物と、液体とを含む気液混相体を、前記生成物ヘッダー配管へ流通可能に構成され、前記生成物ヘッダー配管は、前記生成物枝配管から導入された気液混相体を、前記気液分離器へ流通させるように構成され、前記気液分離器は、前記生成物ヘッダー配管から導入された気液混相体を、気体成分と液体成分とに分離可能に構成され、前記生成物ヘッダー配管は、前記気液分離器に接続される第１端部を有し、少なくとも一部に前記気液分離器に向かって下る勾配が設けられる、流体処理システムが提供される。【選択図】図３

一种碱性水电解制氢系统及控制方法

Resumen de: CN122879726A

本发明涉及碱性水电解制氢技术领域，提供了一种碱性水电解制氢系统及控制方法，该系统包括多个标准化电解槽模块、电解液主管路和含气电解液主管路。各模块相对于主管路呈几何对称布置，且各模块的电解液入口至电解液主管路的管路长度、管径及局部阻力系数相同，以消除模块间的流量分配不均。该系统还包括旁路自平衡流量保持装置，当任一模块停运时，该装置使停运模块所对应的旁通流路的流阻与其正常运行时的流阻相匹配，以维持并联系统的总流阻恒定。本发明提供的碱性水电解制氢系统，解决了模块化电解槽系统中模块间偏流以及模块停运时需依赖循环泵调节导致的系统稳定性差的问题，显著提升了系统运行的稳定性和可靠性。

一种碱性电解水析氢反应催化剂及其制备方法

Resumen de: CN122879749A

本申请涉及电解水催化剂技术领域，尤其涉及一种碱性电解水析氢反应催化剂及其制备方法。制备方法包括以下步骤：将锌盐、过渡金属盐溶于水，再加入pH缓冲剂和络合剂，得到沉积液；然后通过电沉积法在金属基底上沉积锌和过渡金属的合金；将电沉积后的金属基底浸泡于碱性溶液中进行脱合金‑自腐蚀处理，得到前驱体；用磷化氢对所述前驱体进行磷化处理，得到碱性电解水析氢反应催化剂。本申请采用脱合金‑自腐蚀法合成的氢氧化物层由金属原位生长形成，原位生长形成的致密氢氧化物层与金属层结合紧密，从而使得磷化处理得到的磷化层具有与基底具有强界面结合力，制备的过渡金属磷化物催化剂在电解水中表现出优异的催化活性和更好的稳定性。

一种晶格限域铱单原子和团簇耦合的催化剂及制备方法

Resumen de: CN122879743A

本发明涉及催化剂技术领域，具体公开了一种晶格限域铱单原子和团簇耦合的催化剂及制备方法。该催化剂以具有多级孔道结构和氧空位结构的花状分级二氧化钼为载体，使铱单原子与铱团簇共存并形成耦合活性结构。制备时先获得钼基有机前驱粉末，经热处理形成花状二氧化钼载体，再与铱前驱盐混合分散，并在惰性气氛下进行退火处理，得到目标催化剂。该催化剂能够作为碱性电解水析氢反应的阴极催化剂，有利于提高铱活性物种的分散程度和结构稳定性，促进水分子活化及氢中间体转化，具有较好的析氢活性和运行稳定性。

一种采用并联结构的电解水制氢系统

Resumen de: CN122879722A

本发明公开了一种采用并联结构的电解水制氢系统，包括：复合可再生能源供电模块，用于为系统供电；分布式电能转换模块，用于实现电流的分散转换；多元储能抑波模块，用于实现电流波动抑制；电解槽模块，用于电解水制氢；智能协同控制模块，用于系统的协同运行、实时调控和故障诊断。本发明通过复合可再生能源供电、分布式DC/DC电能转换、多元储能抑波、智能协同控制的一体化技术方案，实现可再生能源的高效转化与稳定制氢。

一种钛基锡掺杂钌氧化物涂层阳极及其制备方法和应用

Resumen de: CN122879735A

一种钛基锡掺杂钌氧化物涂层阳极及其制备方法和应用，涉及电解水析氧反应用阳极材料技术领域。包括钛基底、负载于所述钛基底表面的锡锑氧化物中间层以及负载于所述锡锑氧化物中间层表面的锡掺杂钌氧化物活性层；锡锑氧化物中间层由含锡源和锑源的电沉积液经脉冲电沉积和热退火形成；锡掺杂钌氧化物活性层由含锡源和钌源的前驱体溶液经滴涂和热退火形成。本发明提供的钛基复合阳极可广泛应用于酸性析氧反应相关电化学过程，特别适用于酸性水电解制氢、质子交换膜电解水、电化学氧化处理及工业电解等领域，具有良好的实用价值和产业化应用前景。

一种钴钌氧化物电极及其制备方法与应用

Resumen de: CN122879741A

本发明公开了一种钴钌氧化物电极及其制备方法与应用，属于电解水制氢催化技术领域。以导电材料为支撑基底，以钴钌氧化物为催化层，通过将钴前驱体、钌前驱体与柠檬酸配制成前驱体溶液，涂覆于支撑基底表面，恒温干燥，再经空气气氛煅烧，于支撑基底表面原位合成了富含氧空位且具有强异金属耦合作用的钴钌氧化物催化层，所制得的钴钌氧化物电极可直接作为碱性电解水析氢电极使用。本发明的催化剂制备方法简单可控，所制得的钴钌氧化物电极凭借独特的Co‑Ru协同与氧空位结构，在碱性介质中表现出超低的析氢过电位、优异的高电流密度活性和长达数千小时的稳定性，为阴离子交换膜电解水制氢的工业化提供了新的材料支撑。

一种专为电解槽高精度堆叠的码垛抓手

Resumen de: CN122877574A

本发明属于电解槽装配技术领域，具体地说是一种专为电解槽高精度堆叠的码垛抓手，包括中心框架、侧面刻线拍照检测机构、弹性磁体抓手机构。本发明通过采用工业相机的侧面刻线拍照检测机构的设置，可用于对码垛抓手相对电解槽小室的位置进行实时检测和纠偏，实现对电解槽小室的关键刻线特征的高精度定位与堆叠质量检测。本发明的弹性磁体抓手机构可进一步增强码垛抓手的适应性，使其能够自动补偿工件表面的微小不平整，提供稳定、可靠且柔性的抓取力，特别适用于搬运和堆叠对精度和完整性要求较高的电解槽部件。本发明可满足电解槽小室的高精度、高效率、高兼容性堆叠需求，进而有效提升电解槽产品气密性与使用寿命。

基于管壳分离架构的质子交换膜电解槽和系统

Resumen de: CN122879730A

0001 本发明涉及电化学工程技术领域，具体涉及一种基于管壳分离架构的质子交换膜电解槽和系统，该电解槽包括：耐压外壳，设置有壳体流体入口、第一壳体流体出口和第二壳体流体出口；至少一个管式电解单元，设置于耐压外壳内部，包括同轴设置的内导筒和外导筒以及之间的膜电极组件；内导筒和外导筒用于作为电解槽的阴极集流体和阳极集流体；耐压外壳与外导筒之间形成壳侧空间，分别与壳体流体入口和第一壳体流体出口导通，用于容纳电解介质和非目标反应产物及换热；内导筒内部形成管侧流道，与第二壳体流体出口导通，用于容纳和传输目标反应产物，或反应产物互换容纳传输空间。如此，实现承压、反应、换热的解耦，且可模块化串并联拓扑。

基于梯度浓度镉空位诱导有序体相极化电场的硫化镉光催化剂及制备方法与应用

Resumen de: CN122875253A

0001 本发明涉及光催化材料技术领域，具体涉及基于梯度浓度镉空位诱导有序体相极化电场的硫化镉光催化剂及制备方法与应用；在碱性条件下通过水热法将镉源和硫源的混合液制备成硫化镉纳米片前驱体；在含硫惰性气体氛围下对硫化镉纳米片前驱体进行热处理，然后进行第一次恒温退火；然后于惰性气体氛围下进行第二次恒温退火，且退火温度与第一次恒温退火的温度相同；最后在惰性气体氛围下进行两段式冷却处理，得到具有梯度浓度Cd空位的硫化镉纳米片材料；构建了强度较高的有序极化电场，能够有效对抗库伦引力，促进体相光生电子‑空穴的分离与传输，实现高效光催化分解水产氢活性、高稳定性和循环性的效果。

一种MoS2/Mn-MOF@NF复合电极及其制备方法

Resumen de: CN122879756A

0001 本发明涉及电解水制氢电催化材料领域，提出一种MoS<2>/Mn‑MOF@NF复合电极及其制备方法，该方法通过：对泡沫镍进行预处理；配置前驱体溶液A；通入惰性气体以排除空气后进行第一步水热反应，使MoS<2>纳米片与石墨烯原位复合生长于泡沫镍表面；加入硼氢化钠进行化学还原处理，以去除泡沫镍表面的氧化钼并增加硫空位；配置前驱体溶液B；通入惰性气体以排除空气后进行第二步水热反应，使Mn基MOF原位生长于MoS<2>表面形成异质结构，得到泡沫镍负载MoS<2>/MOF复合材料。本发明能够使MOF纳米颗粒紧密锚定于MoS<2>表面形成清晰异质结界面，有效促进界面电子转移并产生协同催化效应。

生产包含氢气的气体的方法

Resumen de: EP4640623A1

0001 The invention relates to a process (100) for producing a hydrogen product (81) from an endothermic cracking reaction of an ammonia feed (4), comprising the following steps: - providing (S10) the ammonia feed to a cracking unit (210), - in said cracking unit, performing (S20) the endothermic cracking reaction of the ammonia feed, thereby producing a cracked gas (80) containing hydrogen (81), nitrogen (82) and unconverted ammonia (83), - in said cracking unit, combusting the separated unconverted ammonia in a combustion step (S40) to provide heat to the endothermic cracking reaction, - reducing (S50) a cracking temperature (Tc) of the endothermic cracking reaction, thus increasing the amount of unconverted ammonia in the cracked gas and to be combusted to provide heat to the endothermic cracking reaction, - controlling (S60) the flow of the ammonia feed directed to the cracking unit to produce a desired amount of hydrogen product (Psp).

烃制造方法

Resumen de: WO2022138910A1

This hydrocarbon production method comprises a first production step of using carbon dioxide contained in a source material gas to produce carbon monoxide, and a second production step of using hydrogen and carbon monoxide contained in a source material gas to produce a hydrocarbon. Each of the source material gases contains at least one among carbon dioxide, carbon monoxide, and hydrogen, which are not from fossil fuel origin.

一种氟功能化氢键有机框架材料及其制备方法和应用

Resumen de: CN122878565A

本发明公开了一种氟功能化氢键有机框架材料及其制备方法和应用，所述氟功能化氢键有机框架材料以芘环为电子给体、苯环为π桥、羧基为电子受体的D‑π‑A构型四羧酸单体分子为有机构筑基元，通过羧基‑羧基氢键和π‑π堆积作用自组装而成；所述四羧酸单体分子的苯环上具有至少一个氟原子取代基。本发明中，氟原子的强吸电子效应可促进光生电荷分离迁移，降低析氢能垒；氟功能化HOF材料均与母体HOF‑101保持相同的晶体结构和孔道特征，实现了电子效应的系统调控，建立了明确的氟取代位置、数量与光催化性能之间的构效关系；氟功能化HOF的光催化析氢活性显著高于未修饰的HOF‑101；且循环稳定性优异，制备方法简便，在光催化制氢领域具有广阔应用前景。

PLASMONICALLY DRIVEN ELECTROCHEMICAL CATALYST STRUCTURE

Resumen de: WO2026212178A1

The present application relates to: a plasmonically driven electrochemical catalyst structure; and an ammonia oxidation system and a wastewater electrolysis system, each comprising same. The electrochemical catalyst structure according to embodiments of the present application and the ammonia oxidation system comprising same may provide an environment favorable for ammonia oxidation reaction (AOR) activity, as plasmonic activity regulates the arrangement of interfacial water molecules and alters the hydrogen-bonding network.

ASSEMBLY COMPRISING A BIPOLAR PLATE OF AN ELECTROLYTIC CELL AND A SEALING GASKET

Resumen de: WO2026209443A1

The present invention relates to an assembly comprising a bipolar plate (100) for an electrolytic cell (10, 10', 10'',...) of an electrolyser stack (1), which has a right cylindrical overall shape with a longitudinal axis X, the bases of the cylinder each having a recess (44, 45), having a right 5 cylindrical shape of height h and the same axis X, a periphery (43) circumscribing the recesses (44, 45), the periphery (43) being provided with channels (40, 41) which pass through the periphery (43) from a first opening (46) arranged on one face of the periphery (43) to a second opening (47) arranged on the opposite face of the periphery (43), the channels (40, 41) being configured to allow the recess (44, 45) to be supplied with an electrolytic fluid, or a mixture of 0 electrolytic fluid and electrolysis gases to be discharged from the recess (44, 45), at least one of the openings (46, 47) being circumscribed by a groove (42), and a sealing gasket (48). According to the invention, the sealing gasket (48) rests in the groove (42).

REACTOR FOR AMMONIA DECOMPOSITION REACTION AND AMMONIA DECOMPOSITION METHOD USING SAME

Resumen de: WO2026212273A1

The present invention relates to a reactor for an ammonia decomposition reaction and an ammonia decomposition method using same, wherein, during an ammonia decomposition reaction in which ammonia is decomposed into hydrogen and nitrogen by using a catalyst, molten salt is accommodated between the inner surface of a shell and the outermost surface of a multi-tube structure including a reaction tube and a preheating tube, and an inlet through which ammonia is introduced is connected to one end of the preheating tube so as to communicate with each other, so that heat transfer is achieved, thereby eliminating a temperature gradient, and the temperature of the reactor can be uniformed without cold spots by setting the specific heat and the mass flow rate of the ammonia and the molten salt in the reactor.

Pressure control system for electrolysis arrangement

Resumen de: FI20253122A1

The present invention relates to a pressure control system (2) for an electrolysis arrangement comprising at least one sensor (22) configured to determine a pressure difference (Δp) between two fluid pathways comprising respective resultant fluids produced by an electrolysis stack (4) in use. At least one valve (20) configured to allow fluid flow therethrough to control pressure in the at least one of the fluid pathways. A controller (24) is configured to determine if said pressure difference (Δp) exceeds a threshold pressure difference (p*) and to control the valves (20) to reduce said pressure difference by continuously and/or in real-time adjusting the valve (20).

Verfahren zur Herstellung einer Elektrolysezelle, Elektrolysezelle

Resumen de: DE102025113113A1

Vorgeschlagen wird ein Verfahren zur Herstellung einer Elektrolysezelle (1), umfassend zwei Elektroden (2, 3) mit einem dazwischen angeordneten Separator (4). Dabei wird zur Ausbildung zumindest einer Elektrode (2, 3) ein Elektrodenmaterial (5) auf eine poröse Transport- (6) und/oder Gasdiffusionslage (7) aufgebracht. Erfindungsgemäß wird vor dem Aufbringen des Elektrodenmaterials (5) eine perforierte Metallfolie (8) auf die poröse Transport-(6) und/oder Gasdiffusionslage (7) aufgebracht. Beim anschließenden Aufbringen des Elektrodenmaterials (5) auf die Oberfläche (8) der perforierten Metallfolie (8) werden Bereiche der porösen Transport- (6) und/oder Gasdiffusionslage (7), die durch die perforierte Metallfolie (8) freigelassenen werden, gezielt ausgespart.Darüber hinaus betrifft die Erfindung eine Elektrolysezelle (1).

Elektrolysesystem, Verfahren zum Betreiben eines Elektrolysesystems

Resumen de: DE102025113548A1

Die Erfindung betrifft ein Elektrolysesystem (1), umfassend mindestens einen Elektrolysestack (2) mit einer Anode (3) und einer Kathode, wobei der Anode (3) über einen Anodenkreislauf (4) ein Elektrolyt, insbesondere Wasser, zuführbar ist und wobei in den Anodenkreislauf (4) mindestens ein Gas-Flüssigkeitsseparator (5) zur Aufbereitung des Elektrolyten integriert ist. Erfindungsgemäß sind in den Anodenkreislauf (4) mindestens zwei Gas-Flüssigkeitsseparatoren (5, 6) integriert, die hydraulisch parallelgeschaltet sind, wobei mindestens einer der Gas-Flüssigkeitsseparatoren (5, 6) über ein einlassseitiges erstes Ventil (7) und ein auslassseitiges zweites Ventil (8) vom Anodenkreislauf (4) trennbar ist.Die Erfindung betrifft ferner ein Verfahren zum Betreiben eines Elektrolysesystems (1).

DIHYDROGEN PRODUCTION USING GEOTHERMAL ENERGY

Resumen de: WO2026209361A1

System (1) comprising a dihydrogen production installation (3), a geothermal installation (2) and an installation (4) configured to transfer heat from a geothermal fluid (9) supplied by the geothermal installation (2) to an inlet stream (8) feeding the dihydrogen production installation (3). Method for implementing this system (1).

A ZERO-EMISSION AND HIGH-EFFICIENCY, ON-DEMAND GENERATED OXYHYDROGEN BOILER

Resumen de: WO2026210551A1

A zero-emission and high-efficiency boiler using oxyhydrogen generated on demand through electrolysis of water, comprising a final boiler heat exchanger (33) traversed by boiler water comprising means for connection to hydraulic circuits of external user systems (35; 37), and an oxyhydrogen generator (1) comprising an electrolytic cell (3) comprising a plurality of electrically conductive plates arranged side by side in a row, mutually spaced, and a positive pole and a negative pole connected to two of the plates; at least one of these plates is affected by a groove that cuts one of its faces with or without passing through its entire thickness; and comprising burner-heat exchanger assemblies (27, 27') in connection with the oxyhydrogen generator (1) and the final boiler heat exchanger (33) and comprising direct-flame burners and heat exchangers comprising internal passages for the boiler water, arranged above the burners (FIG.1).

ELECTRODE MATERIAL FOR WATER ELECTROLYSIS

Resumen de: WO2026211328A1

The purpose of the present invention is to provide an electrode material for water electrolysis, with which a higher current density than that with conventional electrode materials for water electrolysis is rendered possible. This electrode material for water electrolysis comprises at least one compound (A) selected from the group consisting of iron-containing oxides and iron-containing hydroxides and at least one metal-containing component (B) selected from the group consisting of nickel, cobalt, and oxides of these, wherein the standard deviation of the weight ratio between the iron element of the compound (A) and the metallic element of the metal-containing component (B), as determined by the following calculation method, is 3 or less. The electrode material is examined with a scanning electron microscope (SEM) at a magnification of 10,000 times, and any 10 fields of view are subjected to element mapping and surface analysis with an EDS detector. The weight ratio of the metallic element of the metal-containing component (B) to the iron element of the compound (A) is determined with respect to each field of view, and the standard deviation for the 10 fields of view is determined.

ELECTROLYSER MODULES AND STRUCTURAL PLATES FOR ELECTROLYSER MODULES

Resumen de: WO2026207635A1

An electrolyser module is provided comprising a plurality of stacked structural plates. Each structural plate has opposite end faces and an outer rim. Each structural plate defines a cell chamber opening and at least first and second degassing chamber openings extending though said structural plate between opposite end faces. The structural plates are stacked between opposite end pressure plates to form at least first and second degassing chambers and a series of cell chambers. The electrolyser module may further comprise at least one external reinforcing structure extending about the periphery of at least one of said structural plates to mechanically support said structural plates against stress induced by an internal pressure of said electrolyser module. Structural plates for electrolyser modules are also provided.

複極式電解槽用電解枠、アルカリ水電解槽及び水素の製造方法

Resumen de: JP2026161444A

【課題】本発明の目的は、高電流密度運転時の電解槽内圧の変動を抑制し、時間当たりの水素製造量が増加し、再生可能エネルギー等の変動電源への対応が可能な電解枠を提供することにある。【解決手段】本発明の複極式電解槽用電解枠は、陽極室及び陰極室と、前記陽極室と前記陰極室との間に設けられた隔壁と、電極室の上側に設けられ且つ前記電極室の上側の全長にわたって延びる気液分離室と、を備え、気液分離室が、吐出口と孔を有し、有孔底部壁と、仕切壁と、を備え、前記仕切壁は、前記有孔底部壁の有孔域の上に形成された第１通路Ａと、前記有孔底部壁の非有孔域の上に形成された第２通路Ｂとに、前記気液分離室を仕切っており、前記仕切壁は、前記気液分離室が延びる方向に前記一端に対して反対側にある端の近傍に隙間を有する、ことを特徴とする。【選択図】図４

CONTINUOUS PRODUCTION SYSTEM AND METHOD FOR SYNTHETIC NATURAL GAS

Resumen de: WO2026212402A1

According to the present invention, a continuous production system for synthetic natural gas may be provided in a continuous process system for converting carbon dioxide into synthetic natural gas. The continuous production system for synthetic natural gas comprises: an electrochemical reactor which receives carbon dioxide and water and generates synthetic gas through an electrochemical reaction; and a thermochemical reactor which receives the generated synthetic gas from the electrochemical reactor and generates methane through a thermochemical reaction. The electrochemical reactor includes a negative electrode containing a silver (Ag) or gold (Au)-based catalyst and reduces carbon dioxide to carbon monoxide. The electrochemical reactor generates synthetic gas having a ratio of carbon monoxide to hydrogen of 1:2.90 to 1:3.54.

ELECTROCHEMICAL CELL, ELECTROCHEMICAL CELL WITH SEPARATOR, ELECTROCHEMICAL CELL STACK, HOT MODULE, AND HYDROGEN PRODUCTION DEVICE

Resumen de: WO2026211779A1

The purpose of the present disclosure is to suppress the occurrence of cracks in an air electrode (29). An electrochemical cell (20) has a fuel electrode (21), a solid electrolyte layer (24), a reaction prevention layer (25), the air electrode (29), and interconnectors (AC1, FC1). The air electrode (29) has a first region (R1) having a contact region (S1) that is in contact with the interconnector (AC1), and a second region (R2) having a non-contact region (S2) that is not in contact with the interconnector (AC1). The included percentage of an auxiliary component in a first volume of the first region (R1) in the air electrode (29) is smaller than the included percentage of the auxiliary component in a second volume of the second region (R2) in the air electrode (29).

ELECTROCHEMICAL OXYGEN REDUCTION CATALYST

Resumen de: US20260312075A1

0000 Provided is an electrochemical oxygen reduction catalyst in which a decrease in catalytic activity is suppressed. The present disclosure relates to an electrochemical oxygen reduction catalyst, a manufacturing method thereof, and a fuel cell and a water electrolysis system using the electrochemical oxygen reduction catalyst. The electrochemical oxygen reduction catalyst comprises a catalyst metal having an oxygen reduction activity and an additive that modifies the catalyst metal. The additive contains a nitrogen-containing cyclic organic compound having a triazine skeleton, a polymer thereof, or a cation thereof. In the nitrogen-containing cyclic organic compound, the polymer thereof, or the cation thereof, a total number of functional groups that substitute hydrogen atoms of melamine and functional groups that substitute amino groups of melamine is 3.79 or more and 5.51 or less per molecule of the nitrogen-containing cyclic organic compound.

BIMETALLIC CATALYSTS SUPPORTED ON LANTHANUM MANGANITE (LaMnO3) FOR AMMONIA DECOMPOSITION

Resumen de: US20260307984A1

A method of ammonia (NH3) decomposition includes flowing hydrogen (H2) through a reactor containing a catalyst to reduce the catalyst and flowing an NH3 mixture through the reactor at a temperature of 100 to 800 degrees Celsius (° C.) to decompose the NH3. The catalyst is a metal-doped lanthanum manganite material (LaMnO3) including cobalt (Co) and nickel (Ni) each in an amount of 0.1 to 2.0 percent by weight (wt. %) based on a total weight of the metal-doped LaMnO3 material. The NH3 mixture includes NH3 and helium in a volumetric ratio of 5:95 to 15:85. At least 99 wt. % of NH3 is decomposed to form H2 and N2 at a temperature of 550° C. based on an initial amount of the NH3.

Electrolysis drain system

Resumen de: FI20253120A1

The present disclosure relates to an electrolysis apparatus drain (2) system comprising a storage vessel (16) configured to receive an extracted fluid and a pressure regulation valve (28) fluidly connected to the storage vessel (16) and provided downstream of the storage vessel (16). A drain valve (30) is configured to control flow of the extracted fluid from the storage vessel (16) and provided downstream of the pressure regulation valve (28). An upstream side of the pressure regulation valve (28) is provided at the same pressure environment as the storage vessel (16) and a downstream side of the pressure regulation valve (28) provides a predetermined pressure at the drain valve (30).

Photokatalysevorrichtung, Photokatalyseverfahren, Wärmeenergieerzeugungsvorrichtung und Wärmeenergieerzeugungsverfahren

Resumen de: DE102025113773A1

Die vorliegende Erfindung betrifft eine Photokatalysevorrichtung mit wenigstens einem Photokatalysereaktor. Die Erfindung betrifft darüber hinaus ein Photokatalyseverfahren, bei dem Wasserdampf und/oder Wasser wenigstens einem Photokatalysereaktor zugeführt wird/werden, in dem der Wasserdampf und/oder das Wasser photokatalytisch in Wasserstoff und Sauerstoff aufgespalten wird/werden. Erfindungsgemäß weist der wenigstens eine Photokatalysereaktor jeweils einen Innenraum mit wenigstens einem Wasserdampf- und/oder Wassereinlass und wenigstens teilweise eine dem Innenraum des jeweiligen Photokatalysereaktors zugewandte Innenbeschichtung auf und ist bis auf seine Medienein- und auslässe nach außen dicht, wobei an oder um eine(r) Außenseite des Photokatalysereaktors wenigstens eine Erwärmungseinrichtung oder eine Abwärmezufuhr angeordnet ist, wobei die Innenbeschichtung ein keramisches, einen Katalysator für eine Photokatalyse ausbildendes Funktionsmaterial aufweist und in dem Innenraum des jeweiligen Photokatalysereaktors ein Wasserstoffkanal ausgebildet ist, dessen Kanalwandung zumindest teilweise als eine für Wasserstoff durchlässige, aber für Sauerstoff, Stickstoff und Wasser undurchlässige Membran ausgebildet ist.

ELECTRODE COMPOSITION FOR PROTON EXCHANGE MEMBRANE WATER ELECTROLYSIS, ELECTRODE FOR PROTON EXCHANGE MEMBRANE WATER ELECTROLYSIS, ANODE, MEMBRANE-ELECTRODE ASSEMBLY, AND PROTON EXCHANGE MEMBRANE WATER ELECTROLYSIS CELL

Resumen de: US20260308785A1

0000 Provided is an electrode composition for proton exchange membrane water electrolysis comprising a binder, a catalyst, and a solvent, wherein the binder comprises a polar group-free binder. The electrode may comprise a binder, a catalyst, and a solvent, wherein the binder may comprise a polar group-free binder. The binder may further comprise a polar group-containing binder. Also provided is an anode comprising the electrode composition for proton exchange membrane water electrolysis. Also provided is a membrane-electrode assembly comprising the electrode for proton exchange membrane water electrolysis. Also provided is a proton exchange membrane water electrolysis cell comprising the electrode for proton exchange membrane water electrolysis.

SCALABLE AUTOMATED OXYHYDROGEN-PRODUCTION, STORAGE, AND UTILIZATION SYSTEM

Resumen de: US20260308773A1

The system produces, stores, and utilizes Oxyhydrogen gas in scalable quantities for direct or indirect use in multiple applications where process automation and safety features provide continuous duty with a maximum level of safety and a minimum of maintenance. In an embodiment, the system generates Oxyhydrogen Gas using a generator/electrolyzer, a reservoir, a control module, a compression process, flash back arrestor with thermal indication, storage, safety release module, and a utilization burner module and/or a combustion module. In and embodiment There are an additional sub-systems and their components that support production including distilled water, caustic solution, heat exchange, vacuum pump, and De-Foamer.

Verfahren zum Minimieren einer Degradation von Zellen in einem Zellstapel eines Elektrolysesystems

Resumen de: DE102025113540A1

Die vorgestellte Erfindung betrifft ein Verfahren (100) zum Minimieren einer Degradation von Zellen in einem Zellstapel (201) eines Elektrolysesystems (200), wobei das Verfahren (100) umfasst:- Betreiben (101) des Elektrolysesystems (200) in einem Elektrolysebetrieb, bei dem Wasser in den Zellen durch Zufuhr von elektrischem Strom in Wasserstoff und Sauerstoff gespalten wird,- Beenden (103) des Elektrolysebetriebs und- Verdrängen (105) zumindest eines Teils eines in dem Zellstapel (201) befindlichen Elektrolyten durch ein Austauschfluid aus dem Zellstapel (201), nachdem der Elektrolysebetrieb beendet wurde.

Elektrolyseur und Verfahren und Betrieb eines Elektrolyseurs

Resumen de: DE102025113543A1

Die Erfindung betrifft einen Elektrolyseur (1) zur Erzeugung von Wasserstoff (H2) und Sauerstoff (O2) als Produktgase, mit einem Elektrolysemodul (3) und mit einem Gas-Separator (5), der zur Phasentrennung des Produktgases von Wasser ausgelegt ist, bei der das Elektrolysemodul (3) über eine Produktstrom-Leitung (7) für das Produktgas an den Gas-Separator (5) angeschlossen ist, und bei dem eine Rückführleitung (9) mit einer Förderpumpe (13) für das abgetrennte Wasser vorgesehen ist, die den Gas-Separator (5) mit dem Elektrolysemodul (3) verbindet. Dabei ist ein Schwungradspeicher (13) vorgesehen, der mit der Förderpumpe (11) gekoppelt ist, so dass bei Störung der Energieversorgung ein Weiterbetrieb der Förderpumpe (11) über die im Schwungradspeicher (13) gespeicherte Rotationsenergie sichergestellt ist.Die Erfindung betrifft weiterhin ein Verfahren zum Betrieb eines Elektrolyseurs (1) mit einem Elektrolysemodul (3). Bei einer Störung der Stromversorgung wird ein unterbrechungsfreier Weiterbetrieb der Förderpumpe (11) dadurch erreicht, dass im Schwungradspeicher (13) gespeicherte Rotationsenergie als elektrische Energie zurückgewonnen und zum Weiterbetrieb der Förderpumpe (11) eingesetzt wird.

GAS DIFFUSION SUBSTRATE, ELECTROLYTIC CELL ELECTRODE AND CARBON DIOXIDE ELECTROLYSIS DEVICE INCLUDING SAME, AND METHOD FOR MANUFACTURING SAME

Resumen de: WO2026211917A1

The present invention addresses the problem of providing: a gas diffusion substrate used for electrolyzing carbon dioxide gas, the gas diffusion substrate suppressing the generation of a side reaction product (H2) over time (the ratio (C2H4/H2) of a main reaction product to the side reaction product is maintained over a long period of time); a method for manufacturing the same; an electrolytic cell electrode including the gas diffusion substrate; and a carbon dioxide electrolysis device including the electrolytic cell electrode. Provided are: a gas diffusion substrate which is used for electrolyzing carbon dioxide gas and is obtained by laminating a water-repellent porous layer (MPL) on at least one surface of a porous carbon electrode substrate (GDL), the gas diffusion substrate having a gas permeability in the through-plane direction from the GDL side of 1.0-3.0 mL/cm2·hr·Pa and a liquid permeation resistance from the MPL side of 180 min or more; a method for manufacturing the same; an electrolytic cell electrode including the gas diffusion substrate; and a carbon dioxide electrolysis device including the electrode for an electrolytic cell.

SYSTEM AND PROCESS FOR HYDROGEN PRODUCTION

Resumen de: WO2026210344A1

The present invention relates to a system (100) for the production of hydrogen by liquid-phase water hydrolysis at temperatures even exceeding 100 °C and to its use in a hard-to-abate plant, namely a cement, steel, chemical, or petrochemical plant, or in a geothermal or solar plant, by utilizing the waste heat from said plant. The present invention also relates to a process for the production of hydrogen by water electrolysis and to a plant configured to use the waste heat from said plant as heating means of a system (100) for the production of hydrogen by electrolysis of water.

ELECTROLYZER SYSTEM FOR HYDROGEN PRODUCTION FROM A WASTEWATER FEEDSTOCK AND METHOD FOR OPTIMIZING SAME

Resumen de: WO2026207618A1

An electrolyzer system and associated design and optimization methods are disclosed for producing hydrogen gas from an impure wastewater feedstock. Electrode temperature mapping and analysis of thermoelectric phenomena, including Joule/Thomson effects in homogeneous conductive electrodes such as 316L stainless steel, are used to identify localized oxidation and reduction regions and correlate them with gas bubble nucleation and detachment. These findings, together with electrode material characteristics and operating conditions, are incorporated into computational fluid dynamics modeling of two-phase gas–liquid flow to predict electrode and flow-field configurations that improve bubble removal, reduce overpotential and resistive losses, and enhance heat and mass transfer. In some embodiments, optimized electrodes include microchannel networks configured to direct electrolyte toward preferential reaction sites and promote gas disengagement. The resulting systems can achieve energy consumption and hydrogen production rates using contaminated wastewater comparable to systems operating on purified, demineralized water.

WATER ELECTROLYSIS SYSTEM, WATER ELECTROLYSIS FACILITY, AND HIGH-PERFORMANCE PURIFYING METHOD

Resumen de: WO2026210989A1

A water electrolysis system (50) comprises: a water electrolysis device (11); a first heat exchanger (16b) that cools hydrogen generated in the water electrolysis device (11) and performs dehumidification; a second heat exchanger (51a) that exchanges heat between the hydrogen after dehumidification in the first heat exchanger (16b) and hydrogen reaching the first heat exchanger (16b) from the water electrolysis device (11); and a catalyst (51b) that removes oxygen contained in the hydrogen, which has increased in temperature due to the heat exchange in the second heat exchanger (51a).

DETECTION OF DAMAGE TO COMPONENTS WITHIN AN ELECTROLYZER STACK DURING OPERATION

Resumen de: US20260308789A1

An electrolyzer producing hydrogen. According to an aspect, the electrolyzer contains a stack producing a first fluid containing oxygen and a second fluid containing hydrogen upon application of voltage across the stack. A first pipe carries the first fluid away from the stack. A sensor is operable to send vibration signals representing a measure of vibrations of the first pipe when carrying the first fluid away from the stack, and a detection system operates to detect damage to one or more components within the stack based on the vibration signals.

MANAGEMENT DEVICE

Resumen de: WO2026211543A1

A management device (7) comprises: a unit price determination unit (11) that determines whether or not a unit price of electric power is at least a prescribed value; a control unit (13) that outputs a control command for controlling an electrolysis device (3) which generates hydrogen gas and oxygen gas by operating on the basis of electric power, and a hydrogen storage and supply device (4) which is capable of storing and supplying hydrogen gas; and a boiler operation determination unit (12) that determines whether or not it is necessary to operate a hydrogen boiler (5) that burns hydrogen gas and oxygen gas to heat a water tube and generate steam. When it is determined that a first condition is satisfied, the first condition being that the unit price is less than the prescribed value and operation of the hydrogen boiler (5) is unnecessary, the control unit (13) outputs the control command so as to bring about a first state in which a portion of the hydrogen gas generated in the electrolysis device (3) is supplied to hydrogen-using equipment (6) and a portion of the hydrogen gas generated in the electrolysis device (3) is stored in the hydrogen storage and supply device (4). When it is determined that a second condition is satisfied, the second condition being that the unit price is equal to or greater than the prescribed value and operation of the hydrogen boiler (5) is necessary, the control unit (13) outputs the control command so as to bring about a second state in which

LEAKAGE DETECTION METHOD, LEAKAGE DETECTION DEVICE, AND HYDROGEN PRODUCTION FACILITY

Resumen de: WO2026211560A1

Provided is a leakage detection method for an electrolytic solution from a water electrolysis device. The water electrolysis device includes an electrolytic cell for storing the electrolytic solution, a gas-liquid separator to which a gas generated in the electrolytic cell is guided, and a circulation line for circulating the electrolytic solution between the electrolytic cell and the gas-liquid separator. The method comprises: a step for acquiring an integrated estimated value, which is an integrated value from a reference time point of an estimated value of a supply amount of pure water to the electrolytic solution; a step for acquiring an integrated measured value, which is an integrated value from the reference time point of a measured value of the supply amount of pure water to the electrolytic solution; and a leakage detection step for detecting leakage of the electrolytic solution from the water electrolysis device on the basis of a comparison between a threshold value determined on the basis of the integrated estimated value and the integrated measured value.

WATER ELECTROLYSIS SYSTEM, WATER ELECTROLYSIS FACILITY, AND METHOD FOR CONSTRUCTING WATER ELECTROLYSIS FACILITY

Resumen de: WO2026210986A1

This water electrolysis system (10) comprises: a hydrogen-side device that includes a water electrolysis device (11) disposed in a housing (C1); a partition wall (17) that demarcates a predetermined region (R) in which the hydrogen-side device is disposed; and an exhaust device (18a) that is disposed in the upper part of the predetermined region (R) and that performs ventilation by discharging a gas in the predetermined region (R) to the outside of the housing (C1). The upper end of the partition wall (17) reaches the ceiling surface of the housing (C1), at least a part of the lower end of the partition wall (17) is separated from the floor surface of the housing (C1) to communicate the inside and the outside of the predetermined region (R) with each other, and the amount of ventilation by the exhaust device (18a) is set on the basis of a planar cross-sectional area obtained by horizontally cutting the predetermined region (R) and a ventilation speed satisfying a dilution degree condition related to ventilation performance.

POWER SUPPLY SYSTEM FOR HYDROGEN ELECTROLYZER MODULE AND CONTROL METHOD THEREOF

Resumen de: WO2026209152A1

A power supply system (100) for an electrolyzer module (201) is provided. The electrolyzer module (201) comprises at least two electrolyzers (1, 2) connected in series and operated with a main current provided by a main converter (10) comprised in the power supply system (100). The power supply system (100) further comprises a first partial power circuit (21) coupled to a first electrolyzer (1) of the at least two electrolyzers (1, 2); a second partial power circuit (22) coupled to a second electrolyzer (2) of the at least two electrolyzers (1, 2); and a controller (30) configured to operate at least one of the first partial power circuit (21) and the second partial power circuit (22) to adjust the main current flowing through at least one of the first and second electrolyzers (1, 2), based on respective degrees of performance degradation of the first and second electrolyzers (1, 2).

STEAM ELECTROLYSIS APPARATUS AND METHOD FOR OPERATING THE SAME

Resumen de: WO2026211282A1

Provided is a steam electrolysis apparatus capable of heating a cell stack so as to have a desired temperature distribution. The steam electrolysis apparatus includes: a cell stack group (101G) in which electrolysis cells composed of a hydrogen electrode, an electrolyte, and an oxygen electrode are electrically connected via an interconnector; and a heating tube (3) that heats the cell stack group (101G). A portion of the heating tube (3) is heated by a high-temperature heat medium and the other portion is heated by a heat medium having a lower temperature than the high-temperature heat medium so as to approach a target temperature distribution (T1) that is a target of the cell stack group (101G).

CONTROL METHOD FOR ADJUSTING THE UTILISATION OF AN ELECTROLYSIS SYSTEM

Resumen de: WO2026209255A1

The present invention relates to a control method for adjusting the utilisation of an electrolysis system (1) by means of a central system controller (5), wherein the system controller (5) is designed such that at a time t0, a maximum available capacity Lplant of the electrolysis system (1) can be set, within the physical limits Lmin to Lmax of the electrolysis system (1), as a first target value for first discrete time periods of a time interval t1 to t2, and such that at time t0, the utilisation of the electrolysis system (1) Splant can be set within the maximum available capacity Lplant, as a second target value for second discrete time periods of a time interval ta to t2 wherein t2 > t1 ≥ t0, and wherein an electrical power or an amount of hydrogen is specified to the system controller (5) as the first and the second target value.

WATER ELECTROLYSIS SYSTEM AND METHOD FOR OPERATING WATER ELECTROLYSIS SYSTEM

Resumen de: AU2025258654A1

This water electrolysis system uses an alkaline aqueous solution as an electrolytic solution, and is provided with: a cell stack to which the electrolytic solution is supplied; a storage unit in which the electrolytic solution is stored; an annular flow path that connects the storage unit and the cell stack; a pump unit that is provided on the annular flow path; a scale removal unit that is provided on the annular flow path and is capable of removing a scale contained in the electrolytic solution; and a scale component removal unit that is capable of removing scale components dissolved in the electrolytic solution at a saturation concentration or less.

REACTOR, SYSTEM AND PROCESS FOR CRACKING AMMONIA

Resumen de: US20260307985A1

An ammonia cracking reactor including one or more reaction tubes containing ammonia cracking catalyst; one or more fuel combustion elements for combusting fuel in a fuel combustion zone surrounding the one or more reaction tubes to provide heat energy to support the cracking of ammonia in the one or more reaction tubes; and one or more electrically powered heating elements to provide heat energy to support the cracking of ammonia in the one or more reaction tubes, wherein the one or more fuel combustion elements and the one or more electrically powered heating elements are provided in the same reactor for supporting the cracking of ammonia in the same reaction tubes and together form an electrically assisted fuel burning ammonia cracking reactor.

HYDROGEN PRODUCTION DEVICE

Resumen de: US20260307034A1

0000 A hydrogen production device includes a reactor that produces hydrogen by thermally decomposing a hydrocarbon gas, which is a feed gas, using a catalyst including fine metallic particles. The feed gas is introduced into the reactor through a lower portion of the reactor such that a fluidized bed of the catalyst is formed inside the reactor. The reactor is configured to be supplied with activated catalyst.

POLYMERIZABLE COMPOSITION, ION EXCHANGE RESIN, ION EXCHANGE MEMBRANE, MEMBRANE ELECTRODE ASSEMBLY, AND HYDROGEN PRODUCTION DEVICE

Resumen de: US20260308295A1

0000 Provided are: a polymerizable composition containing a quaternary ammonium salt represented by formula (I), a polymerizable monomer, a linear or branched C1-4 alkylene glycol, and at least one hydroxyl group-containing compound selected from the group consisting of a C4-15 primary alcohol, a C4-15 secondary alcohol, and a C5-15 diol which has a hydroxy group bonded to a secondary carbon atom; an ion exchange resin; an ion exchange membrane; a membrane electrode assembly; and a hydrogen production device.

OXYGEN EVOLUTION REACTION CATALYST AND METHOD FOR ITS PREPARATION

Resumen de: US20260308786A1

0000 The specification describes a process for preparing an oxygen evolution reaction catalyst, comprising the steps of: (i) combining iridium powder and a peroxide salt to produce a powder mixture; (ii) carrying out thermal treatment on the powder mixture; (iii) dissolving the product from (ii) in water to produce a solution; (iv) reducing the pH of the solution from (iii) to affect a precipitation and form a solid and a supernatant; (v) separating the solid from the supernatant; and (vi) drying the solid. An oxygen evolution catalyst obtainable by the process is also described.

Gas generator for a tool, usage of the gas generator and a tool with a gas generator

Resumen de: US20260308772A1

0000 A gas generator 20 for a tool including an electrolytic cell 30 for producing oxyhydrogen gas with a hollow cell body 31 and an electrode pair 32 with a first electrode 33 and a second electrode 35. The first electrode 33 and the second electrode 35 are separated by a non-conductive separator 37 in the hollow cell body 31. A gas extraction tube 55 is arranged in the hollow cell body 31. A usage of such a gas generator in a tool and a tool with such a gas generator is also provided.

ADDITIVES FOR IMPROVED ELECTROLYZER DURABILITY

Resumen de: US20260308776A1

The disclosed technology relates to a composition for mitigating hydrogen cross-over and for mitigating polymer oxidation by adding radical scavenging organic inhibitors within a proton exchange membrane (“PEM”) electrolyzer.

AMMONIA CRACKER

Resumen de: US20260308771A1

0000 Provided herein is an ammonia cracker comprising: an anolyte reservoir housing an anolyte comprising alkali and ammonia; at least one catholyte reservoir housing at least one catholyte, wherein the at least one catholyte comprises acid or alkali; and an electrolysis cell, the electrolysis cell comprising: an anode chamber housing an anode; at least one cathode chamber housing a cathode; and an ion exchange membrane separating the anode chamber and the cathode chamber. Also provided herein is a method of producing hydrogen, the method comprising: (i) feeding an anolyte comprising ammonia and alkali to an anode chamber housing an anode; and (ii) feeding an acid or alkali catholyte to a cathode chamber housing a cathode; wherein an ion exchange membrane separates the anode chamber and the cathode chamber. Further provided herein is hydrogen produced by the method disclosed herein.

A MEMBRANE ELECTRODE ASSEMBLY AND A METHOD FOR THE MANUFACTURE THEREOF

Resumen de: US20260312109A1

0000 There is provided a membrane electrode assembly (MEA) for an electrochemical devices, such as for fuel cells and electrolyzers, particularly for polymer electrolyte membrane (PEM) fuel cells, said membrane electrode assembly comprising a composite electrolyte membrane comprising a reinforced electrolyte layer comprising at least one porous support, the porous support being at least partially imbibed with a first ion exchange material; and a first electrode comprising a reinforced electrode layer comprising a porous support, the porous support being at least partially imbibed with a first catalyst and a second ion exchange material, wherein the composite electrolyte membrane is in contact with the first electrode. Also provided is a composite electrolyte membrane, which can be used in the manufacture of the membrane electrode assembly and a fuel cell and electrolyzer comprising such a membrane electrode assembly. A method for the manufacture of the membrane electrode assembly, and a membrane electrode assembly obtainable by such a method are also disclosed.

PRIME LOCATION OF UNIPOLAR ELECTROLYSIS PLANTS ON THE ELECTRICITY GRID

Resumen de: US20260312101A1

An apparatus for generating electrical energy is disclosed. The apparatus comprises an electrolytic hydrogen generator configured to receive electricity from at least one renewable electricity generating source and produce hydrogen and oxygen from water. The apparatus also comprises a hydrogen storage unit configured to store hydrogen produced by the electrolytic hydrogen generator and a plurality of hydrogen fuel cells in fluid connection with the hydrogen storage unit and a source of oxygen or air, each hydrogen fuel cell configured to generate electricity from hydrogen supplied from the hydrogen storage unit and oxygen or air supplied from the source of oxygen or air.

CO2 AND H2O CO-ELECTROLYSER SYSTEM

Resumen de: US20260308775A1

A water and carbon dioxide co-electrolyser system (1) comprising an anion exchange membrane (AEM) electrolyser (2) having at least one AEM electrolyser cell (2c) comprising a cathode (8), an anode (12) and an AEM membrane (16) separating the cathode from the anode, and an anolyte circuit (18) in which an anolyte flows connected to the anode (12) via an anolyte inlet (14i) and anolyte outlet (140) of the anode (12). The CO2 and H2G co-electrolyser system further comprises a mineralization system (3) including a mineralization unit (27) connected to the anolyte circuit (18) and containing a mineralization metal configured to react with the carbonate and bicarbonate ions circulating in the anolyte circuit (18) to form a metal carbonate.

HYDROGEN PRODUCTION CONTROL SYSTEM AND METHOD

Resumen de: AU2025375145A1

Provided is a hydrogen production control system for producing hydrogen with different environmental impacts. A hydrogen production control system 20 causes a hydrogen production apparatus 10 to produce hydrogen. The hydrogen production apparatus inputs, to a water electrolysis device 13, a power amount from a renewable energy generation device 12 or a power amount from a power grid 30, and causes the water electrolysis device to electrolyze water to thereby produce hydrogen with different environmental impacts. The hydrogen production apparatus comprises: a renewable energy variation amount prediction unit which predicts variation in the power amount from the renewable energy power generation device; and a type-specific hydrogen production planning unit which creates a type-specific hydrogen production plan for producing hydrogen with different environmental impacts by the hydrogen production apparatus, on the basis of a prediction result from the renewable energy variation amount prediction unit. The type-specific hydrogen production planning unit creates a production plan for producing a first type of hydrogen with a small environmental impact among hydrogen with different environmental impacts by using a power amount in a first case where the power amount from the renewable energy generation device is predicted to be supplied stably.

호흡 검출 기능을 갖는 수소 발생기

Resumen de: CN120830110A

A hydrogen generation device with a breath detection function comprises an electrolytic cell, a gas pipeline, a sensor, a valve switch and a controller, the electrolytic cell is used for electrolyzing water to generate hydrogen-containing gas, the gas pipeline is communicated with the electrolytic cell and provided with a gas outlet, and the gas pipeline is used for receiving the hydrogen-containing gas and outputting the hydrogen-containing gas through the gas outlet. The sensor is used for sensing breathing of a user to generate a breathing signal, the valve switch is arranged in the gas pipeline, the controller is electrically connected with the valve switch and the sensor, and the controller opens the valve switch according to the inspiration signal and closes the valve switch according to the expiration signal; therefore, the hydrogen-containing gas is provided, the hydrogen-containing gas is not provided in the expiration state, the pressure of the breathing tube can be prevented from being too large, the hydrogen-containing gas can be prevented from rapidly flowing to the user when the user inhales again, and then the practicability and the use experience are improved.

HYDROGEN GENERATION DEVICE

Resumen de: US20260307031A1

A hydrogen generation device includes a hydrogen generator body, a secondary coil, an eddy current generating unit, and at least one support member. The hydrogen generator body includes a chamber. One end part of the hydrogen generator body is provided with a first inlet for allowing a first substance to enter the chamber and a second inlet for allowing a second substance to enter the chamber. The other end part of the hydrogen generator body is provided with an outlet and an exhaust port. The secondary coil is wound around the exterior of the hydrogen generator body. The eddy current generating unit is disposed in the chamber at a position corresponding to the secondary coil. The support member has plural holes and is disposed in the chamber. The eddy current generating unit penetrates through the support member and is arranged in the chamber by the support member.

OFF-GRID OFFSHORE ENERGY ISLAND SYSTEM FOR HYDROGEN PRODUCTION AND OPERATION CONTROL METHOD

Resumen de: WO2026208158A1

An off-grid offshore energy island system for hydrogen production, comprising wind turbine modules (1), a semi-submersible anti‑motion platform (2), and an energy storage module (3), a seawater desalination module (4), a water electrolysis hydrogen production module (5), hydrogen storage modules (6), a hydrogen liquefaction module (7), and an intelligent control module (8) which are arranged on the semi-submersible anti‑motion platform (2). The system realizes large-scale development of deep-sea wind energy by means of the floating wind turbine modules (1). The design of the semi-submersible anti‑motion platform (2) effectively solves the problem of structural stability under complex marine conditions in the deep sea, and significantly improves wind power capture efficiency in cooperation with the multi‑wind turbine parallel operation technology. An energy-resource synergistic conversion system is achieved. A full-chain coupling system of "wind power, energy storage, freshwater, green hydrogen, and liquid hydrogen" is pioneered, the electric energy conversion efficiency is improved, the intelligent control module (8) realizes dynamic matching of loads of various modules under wind power fluctuations, the overall energy utilization efficiency of the system is greatly improved, and zero-consumption water resource recycling is achieved. Further comprised is an operation control method.

HYDROGEN PRODUCTION SYSTEM AND HYDROGEN PRODUCTION METHOD

Resumen de: AU2025243755A1

The purpose of the present invention is to improve the energy efficiency of a hydrogen production system as a whole. A hydrogen production system (1) produces hydrogen. The hydrogen production system (1) is provided with: an SOEC (10) that is supplied with an oxidizing gas and steam and generates hydrogen by electrolyzing the supplied steam; a steam generation unit (20) that generates the steam supplied to the SOEC (10) by heating feed water; and a power supply device (40) that supplies power to the SOEC (10) so that the SOEC (10) operates at an operation point exceeding a thermal neutral point. The steam generation unit (20) uses heat generated in the SOEC (10) to heat the feed water, and generates the steam without using heat supplied from outside of the hydrogen production system (1).

INTEGRATED SYSTEM FOR CH4 AND NH3 SYNTHESIS

Resumen de: AU2025244398A1

The disclosure presents an integrated system consisting of a wastewater production unit, e- methane reactor, an electrolyzer for producing hydrogen, a cryogenic separation unit and an ammonia production unit, where e-methane is produced by reaction of carbon dioxide obtained from direct air capture/biogenic CCh/captured industrial CO2 emissions/oxidized solid carbon, and from CO2 separated from biogas obtained from wastewater treatment, and hydrogen gas from electrolysis of water. The hydrogen gas is also reacted with nitrogen obtained from the cryogenic unit for the synthesis of ammonia, where heat from ammonia synthesis is transferred to e-methane reactor for energy efficiency. By integrating these units and reactors, the disclosure provides a system for efficient use of energy and by-products.

ELECTROCHEMICAL CELL

Resumen de: AU2025246818A1

An electrochemical cell according to the present invention comprises an anode part, a cathode part, and an electrolyte membrane. The anode part has a first flow field that forms a space through which a first fluid including water flows so as to contact a first surface of the electrolyte membrane. The cathode part has a second flow field that forms a space through which a second fluid including a hydrogenated substance flows so as to contact a second surface of the electrolyte membrane. The second flow field comprises a porous layer formed of a conductive material, and the compressive strain of the porous layer in the cathode part is 0.3-0.8.

NICKEL MOLYBDENUM CATALYSTS AND THEIR METHODS OF PREPARATION

Resumen de: US20260312078A1

The present invention relates to method for the synthesis of a transition metal catalyst consisting of electrodeposition on a substrate electrode from an electrolyte solution comprising at least one transition metal precursor, wherein the electrodeposition takes places at a deposition current density of 500 to 2000 mA/cm2. The present invention further relates to a transition metal catalyst characterised in that it is stable for at least 30 minutes at a current density of at least 400 A/cm2 on the substrate electrode.

Casing Structure Design for Electrolytic Cells

Resumen de: US20260308779A1

The present invention concerns composite casing structures for electrolytic cells wherein each casing structure is made of a plurality of casing components, optionally made of at least two different materials, which are subsequently joined together to form a structure suitable to house one or more of the following elements: electrodes, separators, bipolar elements, elastic elements and/or current collectors. The casing structure may be advantageously employed in electrolysers for high pressure alkaline water electrolysis.

MEMBRANE ELECTRODE ASSEMBLY AND PREPARATION METHOD THEREFOR, ELECTROLYTIC CELL, AND SYSTEM FOR HYDROGEN PRODUCTION BY WATER ELECTROLYSIS

Resumen de: WO2026208386A1

The present application provides a membrane electrode assembly and a preparation method therefor, an electrolytic cell, and a system for hydrogen production by water electrolysis. The membrane electrode assembly comprises a support layer and a membrane electrode which are stacked, wherein the material of the support layer is a porous metal mesh, the porous metal mesh is formed by interweaving metal wires, and the wire diameter of the metal wires is 0.5-5.5 mm. The support layer is used for supporting the membrane electrode, can provide additional mechanical support for the membrane electrode, and reduces deformation of the membrane electrode under pressure. In addition, the support layer can effectively disperse external pressure, reduce local stress concentration in the membrane electrode, and reduce the risk of damage to the membrane electrode.

PLANE PARALLEL CONVERGING GAS FLOW ELECTROLYZER, CELL AND USE THEREOF

Resumen de: US20260308787A1

0000 An electrolyzer for generating hydrogen from water including electrodes and an electrically non-conductive separator layer extending in a substantially vertical plane including macroscopic through holes. The electrodes themselves include an anode and a cathode. The electrodes are each disposed at opposite faces of the separator. The electrodes each comprise a plurality fins. Each fin of the plurality of fins projects outwardly from the layer for restricting the upward movement of electrode generated bubbles to a bubble stream that is substantially parallel to the vertical plane.

AMMONIA CRACKING SYSTEM AND METHOD FOR CRACKING AMMONIA

Resumen de: US20260309325A1

0000 An ammonia cracking system includes a first line that is provided with ammonia, a cracker that is provided in the first line and that generates cracked gas containing hydrogen from the ammonia, and a second line that is fluidly connected to the first line at a position downstream of the cracker, the second line supplying liquid ammonia to the cracked gas flowing through the first line to generate mixed gas.

STEAM ELECTROLYSIS APPARATUS

Resumen de: WO2026211281A1

The present invention provides a steam electrolysis apparatus capable of heating a cell stack as uniformly as possible. The steam electrolysis apparatus comprises: a cell stack group (101G) including a plurality of cell stacks arranged side by side, each cell stack including electrolysis cells electrically connected via interconnectors, each electrolysis cell comprising a hydrogen electrode, an electrolyte, and an oxygen electrode; and a heating tube (3) provided outside the cell stack group (101G) and through which a heating medium flows. The heating tube (3) is provided at a position spaced apart from the cell stack group (101G) by a predetermined distance. The heating tube (3) is provided helically around the cell stack group (101G).

ELECTROCHEMICAL CELL, ELECTROCHEMICAL CELL WITH SEPARATOR, ELECTROCHEMICAL CELL STACK, HOT MODULE, AND HYDROGEN PRODUCTION DEVICE

Resumen de: WO2026211776A1

The purpose of the present disclosure is to suppress the occurrence of cracks in an air electrode (29). An electrochemical cell (20) comprises a fuel electrode (21), a solid electrolyte layer (24), a reaction prevention layer (25), an air electrode (29), and interconnectors (AC1, FC1). The air electrode (29) has a first region (R1) having a contact region (S1) in contact with the interconnector (AC1), and a second region (R2) having a non-contact region (S2) not in contact with the interconnector (AC1). The content of an accessory component in a first volume of the first region (R1) of the air electrode (29) is greater than the content of the accessory component in a second volume of the second region (R2) of the air electrode (29).

OXYGEN REDUCTION CATALYST AND USE THEREOF

Resumen de: US20260312080A1

An oxygen reduction catalyst may include a catalyst metal having oxygen reduction reaction activity and a modified layer comprising an organic nitrogen compound having a triazine ring structure represented by the following formula (I) or a cation thereof:In the formula (I), R1, R2, R3, R4, R5, and R6 each independently represent a hydrogen atom, a group represented by R7OCH2—, or a group represented by —X—*, wherein R7 represents a hydrogen atom or an alkyl group having 3 to 8 carbon atoms, X represents a methylene group (—CH2—) or a methyleneoxy group (—O—CH2—), and * represents a bond. However, at least one of R1, R2, R3, R4, R5, and R6 is a group represented by R—OCH2— (where Rz is an alkyl group having 3 to 8 carbon atoms).

SYSTEM AND METHOD FOR WATER TREATMENT

Resumen de: EP4818127A1

The present invention relates to an electrochemical system and method for water treatment and regeneration, with the simultaneous recovery of valuable by-products, particularly hydrogen. The system is designed to efficiently remove organic matter from wastewater streams while enabling the production and recovery of hydrogen and optionally other useful compounds.

PROCESS FOR THE PRODUCTION OF HYDROGEN FROM AMMONIA

Resumen de: EP4563523A1

The invention relates to a process (100) for the production of hydrogen from ammonia comprising the following steps:- providing a water feed stream to a water electrolyzer (101);- performing a water electrolysis (102) of the water feed stream in the electrolyzer, producing an oxygen product stream and an electrolysis hydrogen stream;- providing an ammonia feed stream to an ammonia cracking reactor (103);- providing an oxidant stream (105) and performing a combustion reaction (106) with said oxidant stream, thereby generating heat;- in the ammonia cracking reactor, performing an endothermic reaction of ammonia cracking (104) of the ammonia feed stream with said generated heat;characterized in that the oxidant stream comprises at least a portion of the oxygen product stream produced by the water electrolysis of the water feed stream.

FLEXIBLE SHEET FOR ELECTROCHEMICAL CELLS FOR HYDROGEN PRODUCTION

Resumen de: EP4818385A1

0001 Die vorliegende Erfindung betrifft ein Verfahren zur Herstellung eines leitfähigen Vliesstoffs bzw. einer Gasdiffusionsschicht für einen Elektrolyseur mit einer geringen plastischen Verformbarkeit und guten elastischen Eigenschaften sowie einen mit dem Verfahren erhältlichen leitfähigen Vliesstoff.

ELECTROCHEMICAL HYDROGEN PURIFICATION AND COMPRESSION CELL COMPRISING ASYMMETRIC GAS DIFFUSION LAYER AND MANUFACTURING METHOD THEREFOR

Resumen de: KR20260145233A

본 발명의 일 실시예에 따른 전기화학적 수소 정제 및 압축 셀은, 애노드 측 가스 확산층; 캐소드 측 가스 확산층; 상기 애노드 측 가스 확산층과 상기 캐소드 측 가스 확산층 사이에 배치된 전해질막; 상기 애노드 측 가스 확산층과 상기 전해질막 사이에 배치된 애노드 측 촉매층; 및 상기 캐소드 측 가스 확산층과 상기 전해질막 사이에 배치된 캐소드 측 촉매층;을 포함하고, 상기 애노드 측 가스 확산층은 친수성 고분자 물질로 코팅될 수 있다. 따라서, 본 발명에 따르면, EHPC의 전류 밀도를 측정하였을 때 기존 문제였던 Membrane drying으로 의한 전류밀도 감소 문제를 해결할 수 있다.

AIC AIC-based real-time controlled water electrolysis system and a highly efficient hydrogen generation method using it

Resumen de: KR20260145211A

0001a 본 발명은 챔버내의 전극에 고전위에서 미세 전류와 펄스전압을 각각 제공하되, AIC 모듈이 펄스 전압을 정밀 제어함으로써 전류 효율을 높이고, 반응 계면의 활성화를 유도함으로써 수소생산효율을 향상시킬 수 있는 AIC 기반 실시간 제어 수전해시스템 및 이를 이용한 고효율 수소생산방법에 관한 것이다. 본 발명은 전해액이 충전되어 있는 챔버; 상기 챔버 내에 일정 간격을 두고 설치되는 제1 및 제2 전극막; 상기 제1 전극막에 연결되어 고전위 미세 전류를 공급하는 고전위 미세전류 발생기; 상기 제2 전극막에 연결되어 펄스전압을 인가하는 팔스전압 발생기; 및 상기 고전위 미세전류값과의 최적화된 조합패턴을 형성하기 위하여 상기 펄스전압 발생기에서 인가되는 펄스전압을 제어하는 AI 펄스 제어수단을 포함하되, 상기 AI 펄스 제어수단은 미세전류와 펄스 전압의 조합패턴이 수소 분자의 공명 주파수와 동기화되어 분해 반응을 고효율로 유도할 수 있도록 제어하는 것을 특징으로 하는 AIC 기반 실시간 제어 수전해시스템 및 이를 이용한 고효율 수소생산방법을 제공한다.

COMPONENTS FOR ELECTROLYTIC APPARATUS AND ELECTROLYTIC APPARATUS

Resumen de: EP4818371A1

0001 The present application provides for a component for an electrolytic apparatus, comprising: a stack formed by a first porous transmission layer, a first electrode layer, a membrane, a second electrode layer, and a second porous transmission layer stacked in sequence along a stacking direction; a seal disposed about the stack in a lateral direction perpendicular to the stacking direction; and a first electrode frame comprising a first retaining portion and a second electrode frame comprising a second retaining portion. The first and second retaining portions mate with each other to maintain the first and second electrode frames as an integral structure, such that the first and second electrode frames retain the stack and the seal therebetween. The first porous transmission layer is at least partially disposed in the opening of the first electrode frame. Aside edge of the first porous transmission layer and the interior wall of the opening mate with each other in a shape-locked manner such that the first porous transmission layer is retained by the first electrode frame. The present application also provides an electrolytic apparatus comprising the aforementioned component. The component and the electrolytic apparatus according to the present application are easy to manufacture, assemble, and maintain.

METHOD OF REGENERATION OF METAL BORATE TO METAL BOROHYDRIDE USING GASEOUS HYDROGEN AND MECHANICAL PROCESSING

Resumen de: EP4818113A1

The present invention relates to a method of regenerating a metal borate to the corresponding metal borohydride by mechanical processing of said metal borate with the addition of gaseous hydrogen. In addition, the present invention relates to a metal borohydride obtained, preferably directly obtained, by the method according to the invention.

Porous Membrane for Alkaline Water Electrolysis Comprising a Surface-Modified Layer and Method for Producing the Same

Resumen de: KR20260146257A

0001a 본 발명은 PVA 코팅층을 포함하는 과불소계 이오노머를 포함하는 다공성 분리막 및 제조 방법에 관한 것으로서, 구체적으로, (a) 폴리아릴렌술폰계 고분자 및 퍼플루오로술폰산계(PFSA) 고분자를 포함하는 고분자 바인더 및 세라믹 나노입자를 포함하는 다공성 구조층, (b) 상기 다공성 구조층이 코팅되는 폴리페닐렌설파이드(PPS) 다공성 지지체, 및 (c) 다공성 분리막의 표면에 형성된 폴리비닐알코올(PVA) 코팅층을 포함하는, 알칼라인 수전해용 다공성 분리막, 및 비용매 유도 상분리(NIPS) 공정을 이용한 이의 제조방법에 관한 것이다. 본 발명에 따르면, 본 발명의 알칼라인 수전해용 다공성 분리막은 폴리술폰계 고분자의 일부를 퍼플루오로술폰산(PFSA) 고분자로 대체함으로써, 세라믹 나노입자와 술폰산 고분자와의 상호 작용(수소결합) 등을 바탕으로 나노입자를 결착시켜 지르코니아 소실을 막고 과대 기공의 발생을 억제하고 균일한 기공 형성을 유도할 수 있다. 또한, 본 발명의 알칼라인 수전해용 다공성 분리막은 PFSA 고분자의 첨가를 통해, 점도를 감소시키고 친수성을 향상시킬 수 있고 이에 따라 표면 기공을 형성하게 하고, 다공층 내부 기공형성까지 영향을 미칠 수 있고, 다공층내 PSf(물흡수율 0.6%이하) 대비 PFSA(Nafio

水電解システム

Resumen de: JP2026158176A

【課題】水電解の停止後のセル雰囲気を把握することができる。【解決手段】水電解システムであって、電解質膜、酸素極および水素極を含み、水電解により酸素極にて酸素を生成しつつ水素極にて水素を生成する水電解セルと、水電解セルの内部全体の雰囲気であるセル雰囲気の判定を行う判定部と、判定の結果を報知する報知部と、を備え、判定部は、水電解の停止後に水電解セルの電圧であるセル電圧が０Ｖに収束するとき、セル電圧が正電圧から０Ｖに収束した場合、停止後のセル雰囲気は水素雰囲気であると判定し、セル電圧が負電圧から０Ｖに収束した場合、停止後のセル雰囲気は酸素雰囲気であると判定する。【選択図】図１

ELECTROCHEMICAL CELL COMPRISING A COMPOSITE PROTON EXCHANGE MEMBRANES WITH INTERLAYER STRUCTURE

Resumen de: EP4818367A1

The development of more cost-effective and efficient proton exchange membrane (PEM) water electrolysis cells requires the use of thinner membranes with extended lifetimes and reduced gas crossover. The inventive approach to address these challenges involves the incorporation of radical scavengers to mitigate radical-induced ionomer degradation, along with gas recombination catalysts to promote the conversion of crossover hydrogen and oxygen to water inside the PEM. Each of the two catalyst types has its distinct chemical reaction characteristics, to which the design of the composite membrane is tailored through rational considerations. In various embodiments of the present invention, the positioning effects of Ce_0.5Zr_0.5O₂ and Pt interlayers in composite membranes for their respective roles in radical scavenging and gas recombination were investigated. Results reveal that placing a radical scavenger interlayer near the cathode notably reduces the ionomer degradation rate, compared to its placement near the anode, evidenced by a 61% ± 7% reduction in fluoride release rate. This is likely due to reactive oxygen species in the cell being predominantly generated at the cathode, which is closer to the radical scavenger interlayer in the former case. The Ce content in cerium-zirconium oxide was further optimized using an ex-situ Fenton test, with Ce_0.25Zr_0.75O₂ demonstrating the highest radical scavenging activity.

A GREEN HYDROGEN PRODUCTION ARTIFICIAL INTELLIGENCE (AI) ASSISTANT

Resumen de: EP4818960A1

0001 A green hydrogen production system uses an AI operator assistant. Electrolysis sensors collect operating conditions of an automated electrolysis system (102). An artificial intelligence (AI) electrolysis prediction engine (112) uses the operating conditions to model electrolysis. The AI electrolysis prediction engine (112) models electrolysis using a both first principles model (304) and machine learning models of one or more degradation factors, such as electrolyzer degradation or electro-osmatic drag. The AI electrolysis prediction engine (112) hybridizes the models to generate initial set point scenarios for the electrolysis process. An AI operator assistant receives process characteristics from the operator, which are used to select a set point scenario. An automation control processor (106) then controls electrolysis in accordance with the selected settings. An AI observer engine (114), an AI reasoning engine (116), and an AI error minimization engine (118) perform different aspects of a process to observe the process, determine deviations, and predict further optimization.

MULTIPOWERED ELECTROLYSIS FACILITY

Resumen de: EP4818363A1

0001 A multipowered electrolysis facility (2) having a power balance unit (6) that receives incoming power from a power source (4) and manages electron flow (8) from the power source (4); a first electrolysis unit (10) that receives the managed electron flow (8) from the power balance unit (6), and is individually attuned and cooperatively integrated to operate at a first power range of 10-500 MW; a second electrolysis unit (12) that receives the managed electron flow (8) from the power balance unit (6), and is individually attuned and cooperatively integrated to operate at a second power range of 10-500 MW; a cooling/heating unit (20) operatively connected to the electrolysis units (10, 12) to provide coolant/heated flow from the cooling/heating unit (20) to the electrolysis units (10, 12) for efficient electrolysis within the electrolysis units (10, 12); and a fluid purification unit (30) operatively connected to the electrolysis units (10, 12) to provide purified fluid flow from the purification unit (30) to the electrolysis units (10, 12) for efficient electrolysis within the electrolysis units (10, 12), whereby the electrolysis units (10, 12) produce hydrogen (40) and oxygen (42) that each may be made use of, stored, transported, discarded or otherwise.

An Eco system MAR

Resumen de: GB2705217A

A process for climate-positive operation of a power generation system. A hydrogen H and natural gas HG fuel and compressed oxygen O are provided to a combustion chamber 303 to generate and provide a high temperature and high-pressure gas flow to drive a shaft 275 by expansion of the exhaust gas. A flow of expanded exhaust gas is provided to a heat recovery steam generator 201 to generate steam to drive a steam turbine 270. A flow of steam is provided from the heat recovery steam generator to a first electrolyzer 230 to produce hydrogen and oxygen gases. A flow of exhaust gas is provided from the heat recovery steam generator to a membrane separation system 281 for separation of residual gases, such as sulphur-dioxide, nitrogen-oxides and particulates, and a flow of carbon-dioxide gas and water vapor is provided from the membrane separation system to a second electrolyzer 701 to produce hydrogen gas, oxygen gas and magnesium carbonate. A flow is provided from the second electrolyzer to a gas monitoring system 298. Figure 10

ELECTROLYZER, USE, OPERATION AND A METHOD OF PRODUCTION THEREOF

Resumen de: WO2025113761A1

An electrolyzer stack (17) wherein each of the electrode compartments (5, 6) is delimited by the ion-transporting separator (15) and a bipolar plate (14) as well as a gasket (25) that is surrounding the electrode compartments (5, 6). An electrolyte manifold (27) extends along the stack (17) and through an opening (20) in each of the bipolar plates (14). The electrolyte manifold (27) is formed by multiple serially connected flow restrictors (28), of which one flow restrictor (28) is provided per cell (1) and inserted between neighbouring gaskets (25) and comprises a flow canal (30) having a canal inlet (30 A) and a canal outlet (30B), wherein the canal inlet (30 A) is provided in the throughput opening and fluid-flow connected to the electrolyte manifold (27) and the canal outlet (30B) is fluid-flow connected to one of the cells (1) for supply of electrolyte from the electrolyte manifold (27) to the respective cell (1). The canal is narrow and long for reducing shunt currents and for providing a pressure drop larger, for example at least 10 times higher, than a pressure drop along the electrolyte manifold (27).

アンモニア原料流から水素生成物及び窒素生成物を生成するためのプロセス

Resumen de: EP4527790A1

The invention relates to a process (100) for producing a hydrogen product and a nitrogen product from an ammonia feed stream, comprising the following steps:• In a reactor, performing an endothermic cracking reaction of the ammonia feed stream (101) into a cracked gas comprising hydrogen and nitrogen,• In a main separation unit, performing a main separation (102) of said cracked gas stream, thus producing:- the hydrogen product,- a main separation unit tail gas comprising nitrogen and a residual portion of hydrogen,• In a secondary separation unit, performing a secondary separation (104) of the main separation unit tail gas into a secondary separation unit tail gas as the nitrogen product and a nitrogen depleted fuel stream• Routing (115) said fuel stream to a furnace to provide heat to the endothermic cracking reaction.

POROUS CARBON SHEET AND WATER ELECTROLYSIS DEVICE

Resumen de: EP4818374A1

0001 An object of the present invention is to provide a low-cost porous carbon sheet that has a high compression deformation ratio when a water electrolysis cell is formed, has no problem of penetration or short circuit, and is also excellent in conductivity, and the present invention relates to a porous carbon sheet that is a sheet-shaped structure having a porous structure in which carbon fibers are bound with a binder, wherein a thickness d0 under an applied pressure of 0.15 MPa is 1.8 to 3.0 mm, a thickness d1 under an applied pressure of 1.0 MPa is 85% or more of the thickness d0 under an applied pressure of 0.15 MPa, and a thickness d2 under an applied pressure of 4.5 MPa is 75% or less of the thickness d0 under an applied pressure of 0.15 MPa.

HYDROGEN GENERATION APPARATUS

Resumen de: EP4818112A1

0001 A hydrogen generation apparatus includes a hydrogen generator, a primary coil circuit, a hydrogen compressor, and a hydrogen storage cylinder. The hydrogen generator includes a hydrogen generator body, a secondary coil, and an eddy current generating unit. The hydrogen generator body has a chamber, and is configured with a first inlet for introducing a first substance, a second inlet for introducing a second substance, an outlet and an exhaust port. The secondary coil is wound around the hydrogen generator body. The eddy current generating unit is disposed in the chamber corresponding to the secondary coil. The primary coil circuit is coupled to the secondary coil to induce the secondary coil to generate a high-voltage alternating current, thereby causing the eddy current generating unit to generate an eddy current and produce high temperature. A thermal cracking reaction is induced by the high temperature to generate hydrogen gas.

System for controlling water electrolysis operation linked to Renewable Energy generation power

Resumen de: WO2026127464A1

The present invention relates to a water electrolysis operation control system linked to power produced from solar energy, and, to a water electrolysis operation control system linked to solar-generated power for maximizing hydrogen production relative to renewable energy generation. The present invention comprises: a water electrolysis system (100) that is supplied with power from a solar power system and produces hydrogen; and a control unit (200) that controls an output of the water electrolysis system, wherein the control unit adjusts the output of the water electrolysis system according to the variability of the amount of solar power generation, by controlling the output of the water electrolysis system, controlling regular time intervals, controlling regular output intervals, and combining the control of the regular time intervals and the control of the regular output intervals, thus having the effect of reducing ESS capacity and increasing hydrogen production efficiency by means of a water electrolysis operation method that actively responds to the variability of renewable energy.

Electrolyser and method for operation thereof

Resumen de: GB2705198A

An electrolyser and a method for operating the electrolyser for producing hydrogen is described, The electrolyser and associated method mitigate performance degradation commonly resulting during shutdown periods. The electrolyser comprises a stack of electrolysis cells, a primary power supply and a secondary power supply. During periods Of operation the electrolyser is adapted to produce hydrogen when an electrical voltage from the primary power supply is applied to the stack, and during periods of non-operation, the secondary power supply is configured to apply an electrical voltage to the stack sufficient to inhibit degradation of the stack. The secondary power supply may be a battery or a capacitor configured to supply a voltage from 0.8-1.8V Figure 3

METHOD FOR PRODUCING AN ELECTRODE HAVING A NOBLE METAL CATALYST FOR ALKALINE WATER ELECTROLYSIS

Resumen de: WO2025162752A1

A method is disclosed for producing an electrode (4) having a noble metal catalyst for alkaline water electrolysis. The method comprises: (S1) providing the electrode substrate (1); (S2) providing a matrix material (2) and a catalyst material (3) as starting materials for the coating; (S3) mixing the matrix material (2) and the catalyst material (3); and, (S4) coating the substrate (1) with the mixture of matrix material (2) and catalyst material (3) by means of high-velocity oxygen fuel spraying (HVOF). A correspondingly produced electrode (4), an electrochemical cell (10) comprising said electrode, and an electrolyser (20) are also specified.

PROCESS FOR MANUFACTURING SUPPORTED IRIDIUM OXYGEN EVOLUTION REACTION CATALYST, A PRODUCT THEREOF AND ITS USE

Resumen de: WO2025114700A1

A process for preparing an oxygen evolution reaction (OER) catalyst comprises an oxygenated iridium component supported on a particulate solid support, which process comprising the steps of: (i) forming an aqueous mixture comprising a particulate solid support and a solution of a halide-free metal iridate; (ii) reducing the pH of the aqueous mixture to ≤ 5.0 to precipitate an oxygenated iridium component onto the particulate solid support; and (iii) isolating the product of step (ii).

WATER-ELECTROLYSER ANODE, PEM WATER ELECTROLYSER, METHOD OF MANUFACTURE AND METHOD OF WATER ELECTROLYSIS

Resumen de: WO2025114716A1

A water-electrolyser anode for a proton exchange membrane (PEM) water electrolyser comprises: a transition metal oxychalcogenide catalyst having the formula ABxOy, wherein A is a transition metal and B is a chalcogenide, and wherein 0 < x < 2 and 0 < y < 2. Also provided are a proton exchange membrane (PEM) water electrolyser, a method of water electrolysis, use of a transition metal oxychalcogenide as a catalyst in an oxygen evolution reaction under acidic conditions, and a method of manufacturing an anode for an electrolyser.

METHOD FOR OPERATING AN ELECTROLYSIS PLANT AND CORRESPONDING ELECTROLYSIS PLANT

Resumen de: EP4818365A1

0001 The invention relates to a method for operating an electrolysis plant (200) for producing hydrogen from water, wherein the electrolysis plant comprises electrolysis cells, the method comprising: Providing current operating parameter values (260) of plant operating parameters; Providing performance information (280), wherein the performance information comprises information about a performance of at least one component of the electrolysis plant; Determining, based on the performance information (280), a remaining service life (282) of the at least one component of the electrolysis plant; Determining operating setpoints (262) for the stack assemblies, based on: the current operating parameter values (260), the remaining service life of the at least one component of the electrolysis plant, and operating limits (284) of the stack assemblies or parts thereof, which exceed given respective operating limits; and Providing the operating setpoints (262) for operating the electrolysis plant.

光半導体粒子の製造方法、光半導体粒子、光触媒粒子の製造方法、フラックス組成物、水素及び／又は酸素の製造方法、並びに水素及び／又は酸素の製造装置

Resumen de: JP2026157283A

【課題】非腐食性フラックスを用いてＭＴＯＳ光触媒粒子を合成する技術を提供する。【解決手段】本開示の一態様に係る光半導体粒子の製造方法は、下記の一般式（Ｉ）で示される組成の光半導体粒子の製造方法であって、ＭａＴｉｂＯｃＳｄ…（Ｉ）前記光半導体粒子の原料とフラックス成分との混合物を焼成する工程を含み、前記フラックス成分が、以下の（ａ）～（ｄ）からなる群から選択される少なくとも１種である：（ａ）Ｐｂ酸化物、Ｂｉ酸化物、Ｂ酸化物、Ｖ酸化物及びＭｏ酸化物からなる群から選択される少なくとも１種の酸化物；（ｂ）ホウ酸塩無水物及びメタバナジン酸塩の少なくとも一方；（ｃ）Ｌｉ酸化物、Ｎａ酸化物、Ｋ酸化物及びＢａ酸化物からなる群から選択される少なくとも１種の酸化物と、前記（ａ）の酸化物との混合物；及び（ｄ）Ｌｉ酸化物、Ｎａ酸化物及びＫ酸化物からなる群から選択される少なくとも１種の酸化物と、Ｗ酸化物との混合物。【選択図】なし

電解メタネーションシステム

Resumen de: JP2026156303A

0001 【課題】プロセス出口のメタン純度を高く保ち、熱量の安定化やスケールアップを可能にする電解メタネーションシステムの提供。 【解決手段】水蒸気及び二酸化炭素を電気分解して水素、一酸化炭素、水蒸気及び二酸化炭素を含むガスを生成する共電解部５と、水蒸気を電気分解して水素と水蒸気を含むガスを生成する水蒸気電解部９と、共電解部５のカソード極に供給する水蒸気及び二酸化炭素の各流量、水蒸気電解部９のカソード極に供給する水蒸気の流量を制御する流量制御手段と、共電解部５及び水蒸気電解部９の後段に水を分離する水分離部と、目的ガス合流部８と、目的ガス合流部８により集約されたガスをメタン化触媒に通じてメタネーションを行う統合メタン合成反応部７と、を備える電解メタネーションシステム１であって、水蒸気電解部９のカソード極の出口から統合メタン合成反応部７の出口までの経路に二酸化炭素を注入する二酸化炭素注入部１１を有する。 【選択図】図１

水電解装置

Resumen de: JP2026157077A

0001 【課題】水の使用量やエネルギー消費を抑え、装置構成を簡素化すること。 【解決手段】水電解装置１は、水電解セル１０の酸素排出口１０ｂ側にポンプ３２を設け、ポンプ３２により酸素を吸引することで、水電解セル１０内に水が供給される。 【選択図】図１

共電解ガス合成装置

Resumen de: JP2026156302A

0001 【課題】プロセス出口の生成ガスのメタン純度を高く保ち、熱量の安定化やスケールアップを可能にする共電解ガス合成装置の提供。 【解決手段】水蒸気と二酸化炭素を電気分解し合成ガスを生成する２以上の共電解部５－１、５－２と目的ガス合流部８と統合ガス合成反応部７と制御手段とを備える共電解ガス合成装置１であって、各共電解部５－１、５－２はカソード極に供給する水蒸気と二酸化炭素の流量を制御する流量制御手段と、水蒸気と二酸化炭素の合計流量に対する電気分解により生成される水素と一酸化炭素の合計流量の比率を電解利用率（α）として算出する電解利用率検知手段と水分離部と切替弁とを有し、制御手段は、電解利用率（α）に基づき各共電解部５－１、５－２に供給する水蒸気と二酸化炭素の流量比、流量のうち少なくとも１つを決定し、切替弁は合成ガスをベント排気ラインに通過する状態と目的ガス合流部８に通流する状態との切替が可能である。 【選択図】図１

水素生成装置

Resumen de: JP2026154519A

【課題】異常放電の発生を抑制する。【解決手段】水素生成装置は、交流電圧を供給する電源および接地線の一方に接続された一対の第１の電極板と、一対の第１の電極板の間に設けられ、電源および接地線の他方に接続され、水素透過膜を含む一対の第２の電極板と、一対の第１の電極板と一対の第２の電極板との間に設けられ、第１の電極板と第２の電極板との間に印加される電圧に応じて発生する放電により水素原子を含む原料ガスが分解される一対の放電室と、一対の第２の電極板の間に設けられ、原料ガスを分解することにより生成される水素が第２の電極板を介して取り出される水素収集室と、一対の第１の電極板と一対の放電室との間に設けられた一対の誘電体板と、を有する平板型スタックを具備する。【選択図】図３

洋上合成燃料製造設備

Resumen de: JP2026154649A

0001 【課題】海洋上の再生可能エネルギーを利用して、貯蔵や輸送が容易な合成燃料を製造するシステムを装備した海洋構造物を提供する 【解決手段】本発明の洋上合成燃料製造設備１は、洋上に浮かぶ浮体２に、水素を発生させる水電解システム３と二酸化炭素を空気中から直接回収する二酸化炭素回収システム４とを装備し、前記水電解システム３で得られた水素と前記二酸化炭素回収システム４で得られた二酸化炭素を原料として合成燃料を製造する合成燃料製造システム５を装備し、海洋上の再生可能エネルギーに由来する電力を電源とすることで合成燃料を製造する。 【選択図】図１

水素生成装置および水素生成方法

Resumen de: JP2026154548A

【課題】異常放電の発生を抑制する。【解決手段】水素生成装置は、第１の電極と第２の電極との間に設けられ、第１の電極と第２の電極との間に印加される電圧に応じて発生する放電により水素原子を含む原料ガスが分解される、放電室と、第２の電極に含まれる水素透過膜で囲まれ、原料ガスを分解することにより生成される水素が第２の電極を介して取り出される、水素収集室と、水素収集室に接続され、水素収集室からの水素のガスが流れる水素収集管と、を具備する。水素収集管は、放電を遮る誘電体を収容する。【選択図】図１

MnO电催化剂及其制备方法和应用

Resumen de: CN122856239A

本发明涉及催化剂技术领域，尤其涉及一种MnO电催化剂及其制备方法和应用，MnO电催化剂的制备方法，包括以下步骤：采用电沉积法在碳布基底的表面生长Mn(OH)2，得到前驱体；在惰性气体氛围中，采用热磷还原法将前驱体中的Mn(OH)2还原为MnO，得到MnO电催化剂。本发明的制备方法成本低、操作简便，能够实现工业化生产。

一种电解制氢系统及其动态控制方法

Resumen de: CN122856202A

0001 本申请涉及电解水制氢技术领域，公开了一种电解制氢系统及动态控制方法，包括电解、分离、换热、驱动和控制模块，控制模块基于结构气含率本征常数生成电流密度流量控制映射表；依据运行电流计算变化斜率；当变化斜率大于预设突变阈值时，下发流量脉冲指令控制驱动模块使流量跃升后回落至基础设定流量；当变化斜率不大于预设突变阈值时，依据温差数据与阻抗数据计算实际气含率偏差并生成流量补偿数据叠加至基础设定流量；在流量补偿数据积分值大于预设衰减阈值时，计算硬件衰减调节系数更新前述映射表。本申请监控电流斜率下发脉冲流量并融合电热数据微调，同时根据补偿积分更新映射表，自适应产气波动并补偿硬件流阻衰退。

一种分区梯度极化电场诱导的类p-i-n叠层光催化剂及其制备方法

Resumen de: CN122850197A

本发明涉及光催化技术领域，具体涉及一种分区梯度极化电场诱导的类p‑i‑n叠层光催化剂及其制备方法，制备本征硫化镉纳米片；对硫化镉纳米片的第一表面进行掩膜保护，仅暴露出第二表面；将样品置于还原性气氛中进行升温退火处理，使第二表面的表层产生硫空位；随后切换至惰性气氛中继续进行热扩散，形成从第二表面向内部硫空位浓度逐渐降低的n型梯度区；去除第一表面的掩膜保护，对第二表面进行掩膜保护，暴露出第一表面；将样品置于含硫气氛中进行升温退火处理；切换至惰性气氛中继续进行热扩散，形成从第一表面向内部镉空位浓度逐渐递减的p型梯度区；处理完成后去除对第二表面的掩膜保护，得到叠层光催化剂。

用于AEM电解制氢的补水流量自动调控方法及系统

Resumen de: CN122856275A

本发明涉及水电解制氢的流体供给与自动控制技术领域，具体涉及用于AEM电解制氢的补水流量自动调控方法及系统。所述方法包括获取氢分离器的氢侧液位和氧分离器的氧侧液位；根据所述氢侧液位在氢侧启动条件与氢侧恢复条件之间的状态保持关系生成氢侧补水需求状态。本发明通过氢分离器液位计、氧分离器液位计与两条补水支路切断阀的配合，形成两侧补水需求并把需求组合转换为支路通断状态；共用补水泵在至少一条所需支路开放后运行，一侧达到恢复条件时该侧支路退出而另一侧保持供水。该特征组合使进入氢侧、氧侧的补水流量随液位状态改变，保持两侧液位分别受到反馈调节，减少同步补水造成的单侧补水过量或另一侧补水不足。

一种海上风电制氢系统及制氢方法

Resumen de: CN122856272A

0001 本发明涉及海上风电制氢技术领域，且公开了一种海上风电制氢系统，包括风电制氢总控系统端，所述风电制氢总控系统端通过数据信号分别连接有风电调频控制端、储能协同调度端、制氢运行调控端、风电制氢安全预警端以及在线状态监测端，与现有的技术相比，本发明的系统通过分级协同调频平抑电网频率波动，结合储能动态平抑风电功率波动，同步实现制氢工况自适应匹配、风电‑氢耦合安全预警与全链路状态监测，各子模块跨端联动配合，可有效解决海上风电波动导致的电解槽运行不稳、制氢效率低、安全防控滞后、运维难度大的问题，能够提升制氢系统运行稳定性与设备使用寿命，强化安全风险前置防控能力，有效的提高了海上风电制氢的效果。

一种钌钛双金属氧化物自支撑电极的制备方法及其应用

Resumen de: CN122856231A

0001 本发明公开了一种钌钛双金属氧化物自支撑电极的制备方法及其应用，属于清洁能源制备技术领域。该方法包括以下步骤：对钛毡进行清洗后，置于碱溶液中进行水热预处理；将钌盐和钛盐溶解于含盐酸的溶液中，配制成前驱体溶液；将预处理后的钛毡置于前驱体溶液中，经水热反应在钛毡表面原位生成氢氧化物前驱体；最后在空气氛围下煅烧，即得一体化自支撑RuTiO催化剂电极。本发明制得的电极无需添加粘结剂和导电剂，具有接触内阻小、活性位点暴露充分、机械强度高的特点。本发明制备工艺简单、成本较低、贵金属用量少，制得的催化剂电极在质子交换膜水电解阳极析氧反应中表现出优异的催化活性和稳定性，具有良好的应用前景。

碳布负载铜钌的纳米阵列催化剂及其制备方法和应用

Resumen de: CN122856225A

本发明公开了一种碳布负载铜钌的纳米阵列催化剂及其制备方法和应用，其属于催化材料技术领域，旨在解决现有铜钌基催化剂活性位点暴露不足、界面结合力弱、循环稳定性差的技术瓶颈。该制备方法包括：将碳布作为工作电极，置于含有铜盐的电镀液中进行恒电位电镀，在碳布表面形成铜纳米颗粒层，得到铜纳米颗粒‑碳布前驱体；将铜纳米颗粒‑碳布前驱体浸入氧化液中进行原位氧化反应，得到纳米阵列前驱体；将纳米阵列前驱体浸入钌盐溶液中，随后加入还原剂进行还原反应，得到纳米阵列催化剂。本发明通过“电镀‑氧化‑吸附还原”三步法实现了活性位点的均匀分布与异质界面的牢固结合，有效解决了催化活性与稳定性难以协同提升的关键瓶颈。

一种层状钌基氧化物在电催化析氢中的应用及其性能筛选方法

Resumen de: CN122856232A

本发明涉及电解水制氢催化材料技术领域，公开了一种Ag3LiRu2O6在电催化析氢中的应用及层状钌基氧化物析氢性能筛选方法。所述层状钌基氧化物包括化学式为A3LiRu2O6的层状钌基氧化物，并作为碱性电解水体系的阴极析氢电催化剂；所述A3LiRu2O6可由Li2RuO3前驱体与含A离子源通过真空封管固相拓扑置换得到，其中A包括Cu或Ag。所述筛选方法包括制备不同A位离子的A3LiRu2O6层状钌基氧化物，在相同碱性析氢测试条件下评价析氢过电位、塔菲尔斜率、Ru质量活性和稳定性，并根据层间A位离子、层间距及Ru‑O键长与析氢性能的对应关系确定优选材料。Ag3LiRu2O6为体相片层颗粒，在1 mol/L KOH中表现出低析氢过电位、小塔菲尔斜率和高Ru质量活性，能够提高碱性析氢反应活性和贵金属Ru利用效率。

一种多功能Ni基双金属电催化剂的制备方法和应用

Resumen de: CN122856243A

0001 本发明涉及电催化技术领域，公开了一种多功能Ni基双金属电催化剂的制备方法。所述催化剂由导电基底及原位负载于其表面的催化活性层组成，形成自支撑三维电极结构；过渡金属阳离子部分取代Ni的晶格位点，阴离子通过化学键合分布于催化剂的晶格或表面；过渡金属阳离子与阴离子通过协同电子效应和晶格应变效应共同调控金属活性中心的局部d带电子结构。本发明通过阳离子引发的晶格应变效应与高价阴离子引发的强吸电子效应的协同作用，实现了对活性位点d带电子结构的多维深度调制，大幅提升了催化剂的多功能电催化活性和抗腐蚀稳定性，可广泛应用于电解水析氢、硝酸根还原及有机小分子电氧化反应。

适用于氨分解制氢的催化剂及其制备和应用

Resumen de: CN122850217A

0001 本发明公开了一种适用于氨分解制氢的催化剂及其制备方法和用于催化氨分解制氢的应用。催化剂包括载体与负载在载体上的活性组分；载体包括钠‑过渡金属复合氧化物，过渡金属包括铁和/或镍；活性组分包括钼基MXene；钼基MXene通过碱刻蚀Mo<2>Ga<2>C获得。制备方法包括：将载体和活性组分与无水乙醇混合，研磨后，经干燥和H<2>还原后得到催化剂。该催化剂能够在60000 mL/(g·h)、500℃条件下展现出优异的NH<3>分解制H<2>效率，同时催化剂的长程稳定性优异，在持续使用100小时后仍能具有80%以上的NH<3>分解效率以及超过3 mol/(g·h)的H<2>产率。

一种基于铁镍钴基化合物的自支撑析氧催化剂及制备方法和应用

Resumen de: CN122856233A

0001 本申请属于阴离子交换膜电解水技术领域，尤其涉及一种基于铁镍钴基化合物的自支撑析氧催化剂及制备方法和应用；本申请提供的自支撑析氧催化剂包括三维多孔结构的金属基底及其原位负载的铁镍钴基化合物，可通过三维多孔结构的金属基底提升电解水制氢过程中的气泡扩散和质子传输，还构建三金属配位环境，有效地降低析氧反应的能垒，提升析氧催化活性，且铁镍钴基化合物和三维多孔结构的金属基底能够紧密连接，不易在高电流密度下发生机械脱落，从而可满足工业电解水制氢过程中，在高电流密度下的催化活性与稳定性要求，是高性能的自支撑析氧催化剂，且作为非贵金属催化剂，从而解决了现有技术中非贵金属析氧催化剂性能较低的技术问题。

一种多段多级分流电解槽及其工作方法

Resumen de: CN122856207A

本发明公开一种多段多级分流电解槽及其工作方法，电解槽包括左端压板（100）、右端压板（110）以及左端极板（200）、左绕流中极板（210）、右绕流中极板（220）、右端极板（230）和若干双极板（300），右端压板（110）上设有上部腰孔（403）、中部腰孔（404）和下部腰孔（405）；左端极板（200）、左绕流中极板（210）和右绕流中极板（220）均设有绕流腔（507）；本发明通过在电解槽内部设置多个绕流腔，将电解槽沿长度方向划分为多段，每段由独立的绕流腔供液，沿程流道长度大幅缩短，沿程阻力差异显著降低，从根本上提高了各小室电解液流量的均匀性，从而避免了部分小室因流量不足导致的极化加剧，降低了单位产氢能耗，提高了电解制氢的整体效率。

一种利用木质素磺酸盐燃烧排放烟气制备碳点/硫化镉光催化剂的方法

Resumen de: CN122850193A

本发明属于烧结烟气资源化利用及光催化材料制备领域，具体涉及一种以木质素磺酸盐烧结烟气制备碳点/硫化镉(NC/CdS)光催化剂的方法。针对木质素磺酸盐烧结产生含H2S有毒气体造成的环境污染问题，本发明创新性地提出碱液吸收‑化学沉淀‑水热合成的协同工艺：首先利用NaOH溶液收集木质素磺酸盐烧结产生的含有H2S烟气，通过加入CdCl2生成CdS，继而利用水热法将柠檬酸钠与尿素热解生成的碳点负载于其上，得到最终产物NC/CdS。该方法实现了含硫烟气的资源化利用，较传统硫源成本降低40％以上。经测试，该复合材料的最大产氢速率可达1.21mmol/g/h，具备优异的光催化性能。本发明解决了工业废气治理与清洁能源制备的双重需求，具有显著的环境效益和应用价值。

用于生成氢气的方法

Resumen de: WO2025195842A1

This invention provides a method for generating hydrogen. The comprises using a heater cable (511), provided inside a wellbore (510) in a mafic or ultramafic rock formation (400), to heat the rock formation (400) to a temperature of about 200 to 600 degrees Celsius.

一种三维镍钼金属双功能催化剂及其制备方法和应用

Resumen de: CN122856224A

0001 本发明公开了一种三维镍钼金属双功能催化剂及其制备方法和应用，涉及催化剂技术领域。制备方法包括：对镍毡进行预处理，超声去除镍毡表面的油污，清洗后的镍毡干燥备用；将镍盐、钼盐溶于溶剂中，随后经超声分散后制得催化剂前驱体溶液，然后将催化剂前驱体溶液用超声喷涂机喷涂于经预处理后镍毡的一侧；喷涂后将镍毡置于管式炉中在还原气氛中进行热还原，待管式炉冷却至室温后，即可得到镍钼金属双功能催化剂。本发明所制备的催化剂能够在析氢反应和析氧反应中均表现出优异的催化活性与长期稳定性，能够同时作为阴极和阳极应用于AEM电解槽时，能够替代传统铂基、铱基贵金属催化剂，大幅降低了催化材料成本，具有很高的实际工业应用价值。

一种基于Co3(PO4)2-NiFeLDH/NF的电解水产氢催化剂的制备方法

Resumen de: CN122856252A

本发明公开了一种基于Co3(PO4)2‑NiFeLDH/NF的电解水产氢催化剂的制备方法，所述制备方法首先在泡沫镍上生长得到Co(OH)F/NF，然后将其转化为Co3(PO4)2/NF，再采用电沉积的方法得到Co3(PO4)2‑NiFeLDH/NF。本发明所制备的Co3(PO4)2‑NiFeLDH/NF可以高效地电催化水分解产氢，且制备方法简单，成本低，适用大面积推广应用。

一种高熵尖晶石析氧催化剂及其制备方法

Resumen de: CN122856237A

0001 本发明公开了一种高熵尖晶石析氧催化剂及其制备方法，属于电化学催化剂领域；该催化剂元素组成为MgCaCoZnFe<2>O<4>，其通过快速焦耳热法制备，包括：1）按摩尔比称取各金属盐溶解之后，加入KOH溶液进行共沉淀，所得沉淀物干燥研磨后做前驱体粉末；2）将前驱体粉末在氩气保护下进行快速焦耳热处理，制备出纯相高熵尖晶石析氧催化剂；电化学测试表明，在1.0 M KOH中，该催化剂具有较高的电化学活性和稳定性；本发明工艺简单、加热时间极短，适合规模化制备高效析氧反应催化剂。