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FUEL CELL SYSTEM

Resumen de: WO2026028564A1

A fuel cell system wherein, if there is a command for a control unit to establish a complete shut-off state in which the power generation of the fuel cell is shut off while in an ordinary power generation state in which a fuel cell generates power in accordance with the voltage of a battery, the control unit establishes an intermittent shut-off state in which the power generation of the fuel cell is reduced by shutting off or decreasing the supply of oxidizing gas to the fuel cell by an oxidizing gas supply unit, and then establishes a complete shut-off state by shutting off the supply of fuel gas to the fuel cell by a fuel gas supply unit.

FUEL CELL THERMAL MANAGEMENT SYSTEM AND METHOD

Resumen de: WO2026025805A1

The present invention relates to the technical field of fuel cell thermal management, and in particular to a fuel cell thermal management system and method. The system comprises a fuel cell (1), a water pump (2), a PTC heater (3), an electronic thermostat valve (4), an intercooler (5), an intercooler valve (6), a radiator (7), a water tank (8), a fuel cell coolant inlet temperature sensor (9), a fuel cell coolant outlet temperature sensor (10), a radiator coolant outlet temperature sensor (11), an ambient temperature sensor (12), an atmospheric pressure sensor (13), and a vehicle speed sensor (14). The present invention enables rational control of a fan speed of the fuel cell thermal management system, enables precise control of a working temperature of the fuel cell, improves the efficiency of the fuel cell, prolongs the service life of the fuel cell, and improves the operating efficiency of a locomotive. Additionally, the present invention eliminates the effects of ambient temperature, atmospheric pressure, and fuel cell efficiency degradation factors on thermal management control, thereby ensuring the effectiveness of the fuel cell thermal management throughout the entire life cycle.

ELECTROLYTE AND ZINC/BROMINE FLOW BATTERY

Resumen de: WO2026026749A1

A zinc/bromine flow battery comprises an electrolyte. The electrolyte comprises an active substance, a supporting electrolyte, and an additive. The additive is selected from at least one of 1-ethyl-3-methylimidazolium bromide, 1-ethyl-3-methylimidazolium chloride, 1-carboxymethyl-3-methylimidazolium bromide, and 1-carboxymethyl-3-methylimidazolium chloride. The use of the additive can regulate the deposition morphology of zinc and suppress zinc dendrites, and can also inhibit the diffusion of bromine on the positive electrode side, thereby improving the coulombic efficiency of the battery. Moreover, the complex product formed by the additive complexed with bromine does not produce solids during long-term cycling, whereas the complex product of conventional MEP in the later stage of battery cycling forms solids which are unevenly distributed on the electrode surface, reducing the voltage efficiency of the battery and shortening the service life of the battery.

STACK END PLATE, FUEL CELL STACK AND VEHICLE

Resumen de: WO2026025762A1

A stack end plate, a fuel cell stack, and a vehicle, belonging to the technical field of fuel cells. The stack end plate comprises an end plate body (1), wherein an end plate flow channel (11) runs through the inside of the end plate body (1), forming an inner port (121) and an outer port (131) on two end faces of the end plate respectively; the projections of the inner port (121) and the outer port (131) along the thickness of the end plate have a non-overlapping region; the aspect ratio of the inner port (121) is greater than that of the outer port (131); the side wall of the end plate flow channel is provided with a flow guiding inclined surface (111) opposite the outer port in the non-overlapping region, and the inside of the end plate flow channel is provided with flow dividing ribs (112) extending in the direction of medium flow.

SOLID OXIDE FUEL CELL ELECTROLYTE FILM AND PREPARATION METHOD

Resumen de: WO2026025676A1

Disclosed in the present invention are a solid oxide fuel cell electrolyte film and a preparation method. An electrolyte film sequentially comprising a transition layer, a self-healing layer and a dense layer is formed on the surface of one side of a substrate, the transition layer is obtained by forming a film by means of a solid-liquid phase forming process and performing first sintering, and the self-healing layer and the dense layer are obtained by means of a vacuum sputtering coating process at room temperature, so as to obtain a dense and relatively thin electrolyte film at a lower preparation temperature, thereby reducing energy consumption costs and facilitating commercial application. The present invention can achieve better film-substrate adhesion and film density, and is not prone to pore formation and cracking under extreme conditions, and the surface of the prepared electrolyte film is relatively flat, so that better interface contact can be achieved.

MASS FLOW CONTROLLER (MFC) HAVING SELF-CALIBRATION FUNCTION AND CALIBRATION METHOD

Resumen de: WO2026026554A1

Disclosed are a mass flow controller (MFC) having self-calibration function and a calibration method. The MFC comprises a control body (1), wherein the control body (1) is provided with a measurement channel (11) and a calibration channel (12); two ends of the control body (1) are rotatably provided with a first calibration disc (2) and a second calibration disc (3) having the same structure; the first calibration disc (2) and the second calibration disc (3) are each provided with through holes (101) corresponding to the measurement channel (11) and the calibration channel (12); the first calibration disc (2) and the second calibration disc (3) are each rotatably provided with a first electrode assembly and a second electrode assembly in one through hole (101); the first electrode assembly and the second electrode assembly are both elliptical; and the control body (1) is further provided with a switching assembly for synchronously driving the first calibration disc (2) and the second calibration disc (3) to rotate, and a power mechanism for driving the first electrode assembly and the second electrode assembly to rotate. The problem of prolonged production shutdown caused by the need to disassemble a single electrode assembly for calibration is avoided, facilitating improvement to production efficiency.

FUEL CELL CATHODE GAS PATH SYSTEM AND FUEL CELL

Resumen de: WO2026025486A1

A fuel cell cathode gas path system and a fuel cell. The fuel cell cathode gas path system comprises a compressor (11), a flow control valve (12), a charge air cooler (13), a humidifier (14), a fuel cell stack cathode gas channel (15), a heat exchanger (16), a liquid-water separator (17) and an expander (18). The flow control valve (12) can be switched between a first valve position and a second valve position; when the flow control valve (12) is in the first valve position, the compressor (11), a first air outlet (121) of the flow control valve (12), the charge air cooler (13), the humidifier (14) and the fuel cell stack cathode gas channel (15) are successively communicated to form a first flow path; when the flow control valve (12) is in the second valve position, the compressor (11), a second air outlet (122) of the flow control valve (12), the heat exchanger (16), the humidifier (14) and the fuel cell stack cathode gas channel (15) are successively communicated to form a second flow path; the flow control valve (12) may also be in a valve position state between the first valve position and the second valve position. The gas path system increases recovered energy of the expander (18) and can effectively remove droplets entering the expander (18).

Electrochemical cell stack

Resumen de: AU2025205452A1

According to the present embodiment, an electrochemical cell stack includes a stack, an insulating plate, a metal plate, a metal pipe, and an insulating joint. The stack is a stack of electrochemical cells. The metal pipe communicates with a communication hole of the stack which allows 5 either the anode fluid or the cathode fluid to flow into or flow from the electrochemical cells therethrough, via a first hole of the insulating plate and a second hole of the metal plate. The insulating plate is arranged on each of an upper surface and a lower surface of the stack and made of an electrically insulating material. The metal plates sandwich the insulating 10 plates from outside. The insulating joint insulates the metal pipe and the metal plate from each other. According to the present embodiment, an electrochemical cell stack includes a stack, an insulating plate, a metal plate, a metal pipe, and an insulating joint. The stack is a stack of electrochemical cells. The metal 5 pipe communicates with a communication hole of the stack which allows either the anode fluid or the cathode fluid to flow into or flow from the electrochemical cells therethrough, via a first hole of the insulating plate and a second hole of the metal plate. The insulating plate is arranged on each of an upper surface and a lower surface of the stack and made of an 10 electrically insulating material. The metal plates sandwich the insulating plates from outside. The insulating joint insulates the metal pipe

Method for preparation of iron salt battery electrolyte

Resumen de: AU2025205203A1

The invention provides a method for preparation of an iron salt battery electrolyte. The method comprises the following steps: supplying iron(III) chloride, FeCl3, into an agitated reactor containing a dilute solution of hydrochloric acid, HCl, having a pH value less than 5 1; supplying elemental iron, Fe, into the reactor, wherein the elemental iron reacts with iron(III) to iron(II); monitoring the pH value of reactor solution; using the monitored pH value to control supplying additional hydrochloric acid, HCl, into the reactor in order to maintain a pH of the reactor solution less than 1; and converting excess Fe3+ to Fe2+ in an electrochemical cell having a membrane or a separator between an anode and a 10 cathode thereof by directing the reactor solution from the reactor through the anode of the electrochemical cell. A flow rate of the reactor solution through the anode is controlled to obtain a final Fe3+ concentration in the anode outlet FeCl2 stream of 15% or less than 15% of a total dissolved iron concentration as the iron salt battery electrolyte. The invention provides a method for preparation of an iron salt battery electrolyte. The method comprises the following steps: supplying iron(III) chloride, FeCl, into an agitated 5 reactor containing a dilute solution of hydrochloric acid, HCI, having a pH value less than 1; supplying elemental iron, Fe, into the reactor, wherein the elemental iron reacts with iron(III) to iron(II); monitoring the pH value of reactor solut

BIPOLAR PLATE FOR ELECTROCHEMICAL CELLS LIMITING PARASITIC FLOWS OUTSIDE AN ACTIVE REGION

Resumen de: WO2026027367A1

The invention relates to a bipolar plate (1) for electrochemical cells. The bipolar plate (1) is formed by two metal sheets (10a, 10b) assembled together and each having patterns consisting of depressions and projections, the patterns defining, on each of the metal sheets (10a, 10b), and comprising, arranged opposite one another, an active zone (Za) extending longitudinally between a first fluid distributor (D1) and a second fluid distributor (D2), and two lateral strips (B1, B2) bordering the active zone (Za). Each lateral strip (B1, B2) has at least one recess (R, R'), extending in a plurality of meanders (m) over at least one longitudinal portion (P1) of the lateral strip (B1, B2). At least one meander (m) of a recess (R) of one of the metal sheets (10a, 10b) is interlocked with at least one meander (m) of a recess (R') of the other metal sheet (10a, 10b).

REDOX FLOW BATTERY WITH CLATHROCHELATE COMPLEX-BASED ELECTROLYTE

Resumen de: EP4687186A1

The present invention refers to a novel redox flow battery, the battery comprising an electrolyte solution contained in a first storage tank, a first half-cell in fluid communication with the first storage tank, a membrane separating the first half-cell and a second half-cell, wherein the electrolyte solution comprises an iron clathrochelate complex or a manganese clathrochelate complex. These complexes provide the battery with a highly stable electrolyte that can achieve a high energy density while minimizing cost and environmental impact. The present invention further refers to a novel electrolyte solutions comprising clathrochelate complexes, the use of such complexes as shuttle compounds, as well as method of operating a redox flow battery comprising said complexes.

燃料電池スタック

Resumen de: US20260031369A1

A fuel cell stack may include a cell part including fuel cells stacked in a stacking direction, wherein each fuel cell may include: a support frame supporting a membrane electrode and gas diffusion layer assembly; and a first separator and a second separator interposing the support frame therebetween in the stacking direction; and a sealing plate facing one of opposing end surfaces of the cell part in the stacking direction. Each fuel cell may further include through holes forming manifolds in the cell part. When viewed in the stacking direction, the sealing plate may be devoid of through holes in its area overlapping the manifolds formed in the cell part. The sealing plate may include a substrate, and at least one of a plurality of first separators and a plurality of second separators may include the same substrate except for presence of the through holes.

METHOD FOR CONTROLLING A HYDROGEN POWER GENERATOR, A CONTROL UNIT AND A HYDROGEN POWER GENERATOR

Resumen de: EP4687185A1

There is disclosed herein a method (100) for controlling a hydrogen power generator (1) connected to one or more loads (2). The hydrogen power generator comprises a common bus (30), a plurality of fuel cell branches (10) and a power electronic converter (20) for each fuel cell branch connecting each fuel cell branch to the common bus. The method comprises determining (110) a minimum number of fuel cell branches required to meet a request of a total active power generation from said one or more loads, selecting (120) the fuel cell branches to use based on a fuel cell age of each fuel cell branch and the determined minimum number, and generating (130) active power from each of the selected fuel cell branches based on a calculated individual active power request for each fuel cell branch. There is also disclosed herein a control unit and a hydrogen power generator.

一种含聚阳离子型添加剂的紫精电解液及其液流电池

Resumen de: CN121460652A

本发明公开了一种含聚阳离子型添加剂的紫精电解液及其液流电池。属于液流电池领域。本发明的含聚阳离子型添加剂的紫精电解液是在紫精电解液中添加聚阳离子型添加剂，聚阳离子型添加剂在紫精电解液中的质量分数为0.01%~20%。聚阳离子添加剂通过静电诱导、阳离子-π相互作用和分子链包覆等多重机制，与紫精分子还原态形成动态缔合，有效干扰其在水溶液中的聚集与沉淀行为，显著提升电解液的分散稳定性和电池的循环寿命。该类聚阳离子添加剂具有良好的水溶性和电化学惰性，能够在保持电解液导电性和反应可逆性的同时长期稳定存在于体系中。该添加剂来源丰富、合成简便、成本低廉，适用于紫精类液流电池的大规模应用，具有广阔的产业化前景和储能市场价值。

一种用于固体氧化物燃料电池系统的脱硫器

Resumen de: CN121450365A

本发明公开了一种用于固体氧化物燃料电池系统的脱硫器，涉及燃料电池技术领域。本发明包括脱硫罐，所述脱硫罐内腔设置有过滤网，所述过滤网数量为两个，且两个所述过滤网之间设置有脱硫滤料；所述脱硫罐内腔设置有清洁机构，清洁机构包括通过轴承座转动连接在所述脱硫罐内腔的固定筒。本发明通过驱动电机、锥齿轮传动及毛刷往复运动的协同作用，清洁机构可实时对下层过滤网表面进行清洁，防止杂质沉积导致的堵塞，保障燃料气流持续均匀通过过滤网，提升脱硫效率，清洁机构的毛刷复位过程中剥离的杂质可通过漏斗落入输送筒，经输送辊螺旋输送至固定筒内腔，最终收集于收集罐，实现杂质自动回收，减少停机维护频率。

電気化学素子の金属支持体、電気化学素子、電気化学モジュール、電気化学装置、エネルギーシステム、固体酸化物形燃料電池、固体酸化物形電解セルおよび金属支持体の製造方法

Resumen de: JP2026016131A

【課題】十分な強度と性能を確保しつつ、量産時の加工性とコストを改善した電気化学素子等を提供する。【解決手段】電気化学素子の金属支持体１は、電極層が設けられる面を表側面１ａとして、表側面１ａから裏側面１ｂへ貫通する複数の貫通空間１ｃを有する。表側面１ａにおいて貫通空間１ｃが形成されている領域としての孔領域１ｇを１つ以上有し、少なくとも１つ以上の孔領域１ｇにおける貫通空間１ｃの表側面１ａの開口部１ｄの平均円形度が０．８０以下である。【選択図】図５

多孔体及其制造方法以及制造电解质膜的方法

Resumen de: CN121460617A

一种制造具有均匀孔隙的多孔体的方法包括以下步骤：(a)将氟基聚合物成型体注射成纤维的形式并对其表面进行改性；(b)在纤维的表面施加粘合剂；(c)通过纤维形成具有均匀孔隙的纤维网；(d)重复进行步骤(c)中的纤维网的形成，并使进行步骤(c)后剩余的纤维或已进行步骤(a)和(b)的单独纤维与纤维网接触，从而制造层压多个纤维网的初步多孔体；以及(e)对初步多孔体进行拉伸和固化。制造电解质膜的方法还包括用离子聚合物浸渍多孔体、将所得产品压延并在两个表面上形成离子聚合物层。

一种复合储氢材料及其制备方法和应用

Resumen de: CN121449014A

本发明属于储氢材料技术领域，尤其涉及一种复合储氢材料及其制备方法和应用。一种复合储氢材料，由AB2型Laves相合金与BCC结构钒基固溶体合金复合而成；其中，所述AB2型Laves相合金与所述BCC结构钒基固溶体合金在结构上相互独立；所述AB2型Laves相合金为Zr‑Ti‑Mn‑Cr系金属间化合物，其通式为Zr1‑xTixMnCr，其中0≤x≤0.5；所述BCC结构钒基固溶体合金为V‑Ti‑Cr‑Fe系四元固溶体合金，其通式为VyTizCrmFen，其中0.5≤y≤0.8，0.1≤z≤0.2，0

多层梯度结构膜电极、膜电极催化层的制备方法及应用

Resumen de: CN121460643A

本发明涉及燃料电池技术领域，具体涉及一种多层梯度结构膜电极、膜电极催化层的制备方法及应用。该膜电极包括质子交换膜、阴极催化层、阳极催化层和气体扩散层；且阴极催化层和/或阳极催化层为多层结构，包括与质子交换膜相接的内催化剂层以及与气体扩散层相接的外催化剂层；内催化剂层的离聚物与催化剂中碳载体的质量比率I/C高于外催化剂层。该膜电极内层高离聚物含量保证了高效的质子传输，外层低离聚物含量保证了高效的气体/产物传质，从根本上解决了均一催化层中传导与传质的权衡问题。另外，膜电极催化剂层的制备方法采用转印法、直接喷涂法或GDL法，工艺可控、重复性好，适于规模化生产。最后，明确该膜电极在氢气‑氧气/氢气‑空气燃料电池中的应用。

一种流道可自由设计的SOC支撑体的制备方法、SOC电池及其制备方法

Resumen de: CN121460648A

本申请提供了一种流道可自由设计的SOC支撑体的制备方法、SOC电池及其制备方法。所述SOC支撑体带有可自由设计的流道槽，其制备主要通过模压（使用泥坯、泥料或造粒粉料）或注射成型工艺制成湿坯后经干燥等处理获得。该方法突破了传统陶瓷成型技术限制，能一体化成型复杂三维流道，具有设计自由度高、适合批量生产、产品一致性好等优势。同时，本申请提供了相应的SOC电池制备方法，通过在支撑体上依次涂覆电极与电解质层，并经干燥、烧结等工序制造出高性能、高可靠性的SOC单电池，极大提升了生产效率和产品综合性能。

一种安全高效的氨氢燃料电池系统及其发电方法

Resumen de: CN121460641A

本发明公开一种安全高效的氨氢燃料电池系统及发电方法。系统包括通过管道连接的液氨罐、氨蒸发模块、自热式氨分解反应器、并联设置的吸附柱组合、水冷器和燃料电池。水冷器分为三个独立段，其出口汇集后返回吸附柱。燃烧器利用燃料电池尾气为分解反应器供热。通过阀门控制气体走向，利用系统自身高温气体对吸附柱进行在线再生，无需外置加热器。该系统实现了热量梯级利用，避免了高温阀门选型难题和氢氧混合风险，具有安全高效、切换快速的优点，适用于大功率、长时运行的场景。

涂覆极板的方法、极板以及燃料电池

Resumen de: CN121460598A

本公开的实施例涉及涂覆极板的方法、极板以及燃料电池。涂覆极板的方法(300)，包括：提供金属极板基板(102)，金属极板基板(102)包括交替布置的多个脊部(110)以及多个沟槽(120)；在多个沟槽(120)中的多个内表面上涂覆光致抗蚀剂；以及在多个脊部(110)的多个脊表面(112)上涂覆导电材料。以这样的方式，通过利用光刻工艺在沟槽内涂覆光致抗蚀剂，并利用金属涂覆技术在脊部涂覆导电材料，使得极板在沟槽部分具有好的耐腐蚀性并同时在脊部位置具有良好的导电性，同时降低了制造成本。

用于生产具有致密层和多孔层的基于二氧化铈的多层陶瓷支架的方法

Resumen de: TW202513507A

The invention relates to a process for producing a doped ceria, preferably a gadolinium-doped ceria (GDC) multilayer ceramic scaffold comprising porous and dense layers, wherein the porous layers are obtained from a suspension comprising at least two different pore-forming agents. The invention also relates to a unit solid cell (SOC) comprising said multilayer ceramic scaffold. The invention also relates to the use of a doped ceria, preferably a GDC ceramic suspension comprising at least two different pore-forming agents for reducing the difference in shrinkage during the co-sintering of said multilayer ceramic scaffold.

金属隔膜及其制造方法

Resumen de: WO2025110857A1

The present application relates to a metal separator and a method for manufacturing same. According to the metal separator and the manufacturing method therefor of the present application, electrical conductivity and corrosion resistance can be excellent at the same time.

一种碳化钨掺杂碳载铂Pt/C催化剂的制备方法及其应用

Nº publicación: CN121460609A 03/02/2026

Solicitante:

江苏源氢新能源科技股份有限公司

Resumen de: CN121460609A

本发明公开了一种碳化钨掺杂碳载铂Pt/C催化剂的制备方法及其应用，将钨氧化物与碳载体在有机溶剂中通过水热法混合，得到前驱体粉末；前驱体粉末高温热处理，冷却后得到W‑C粉末，再与导电碳粉在有机溶剂中机械混合得到W‑C/C复合载体；分散在溶剂中再加入铂源，进行还原反应，洗涤、烘干得到Pt/W‑C/C催化剂；将催化剂制成浆料涂覆于质子交换膜的两侧，制成三合一膜电极。通过上述方式，本发明提供一种工艺相对简单、可控性强的制备方法，通过水热合成与高温碳化相结合的技术，确保W‑C骨架的均匀形成与高稳定性，并通过优化的载铂工艺与离子液体掺杂工艺，实现高性能、高耐久性膜电极的可控制备。