mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing a ceramic catalyst , especially for exhaust gas treatment, comprising at least porous catalytically inactive cells having a porous structure embedded in a ceramic inorganic matrix, which catalytically inactive cells are at least partly surrounded by an active interface layer comprising catalytically active material, which process comprising the steps of: a) providing functional particles , having a catalytically inactive pore former as support having a particle size in the range from 10 μm to 200 μm surrounded by a layer of a catalytically active material, b) processing the functional particles with inorganic particles including a ceramic matrix-forming binder component selected from clays, metal oxides or sols based on aluminium oxide, silicon oxide or titanium oxide to give a catalytic composition ; and c) thermally treating the catalytic composition to form the ceramic catalyst , wherein the at least porous catalytically inactive cells are formed by the pore formers in the functional particles and wherein the active interface layer comprises the catalytically active material of the layer of the functional particles . a) providing functional particles , having a catalytically inactive pore former as support having a particle size in the range from 10 μm to 200 μm surrounded by a layer of a catalytically active material, b) processing the functional particles with inorganic particles including a ceramic matrix-forming binder component selected from clays, metal oxides or sols based on aluminium oxide, silicon oxide or titanium oxide to give a catalytic composition ; and c) thermally treating the catalytic composition to form the ceramic catalyst , wherein the at least porous catalytically inactive cells are formed by the pore formers in the functional particles and wherein the active interface layer comprises the catalytically active material of the layer of the functional particles . are formed by the pore formers in the functional particles and wherein the active interface layer comprises the catalytically active material of the layer of the functional particles .
An apparatus for installation into a plastic hose and/or plastic pipe system and attachment of flow measurement sensors with a sensor pair and a lid, having: a plastic flow part as a hollow body with a centrally arranged and deformable region with rectangular cross-section, wherein on the outer surface of the centrally arranged region two opposing sensor contact surfaces and two opposing pressure region surfaces are arranged, wherein the centrally arranged region can be arranged on the flow measurement sensor such that the sensor contact surfaces are facing the sensor pair of the flow measurement sensor and the lid lies above one of the pressure region surfaces , wherein two connection regions for connection to the hoses and/or plastic pipes flank the centrally arranged region , and wherein an elastic contacting means is provided on the centrally arranged region which is connected to the sensor contact surfaces , wherein the material of the contacting means is softer than the material of the centrally arranged region . a plastic flow part as a hollow body with a centrally arranged and deformable region with rectangular cross-section, wherein on the outer surface of the centrally arranged region two opposing sensor contact surfaces and two opposing pressure region surfaces are arranged, wherein the centrally arranged region can be arranged on the flow measurement sensor such that the sensor contact surfaces are facing the sensor pair of the flow measurement sensor and the lid lies above one of the pressure region surfaces , wherein two connection regions for connection to the hoses and/or plastic pipes flank the centrally arranged region , and wherein an elastic contacting means is provided on the centrally arranged region which is connected to the sensor contact surfaces , wherein the material of the contacting means is softer than the material of the centrally arranged region .
Air-conditioning assembly for heating and/or cooling a room, comprising a first air-conditioning module and a second air-conditioning module , - the first air-conditioning module and the second air-conditioning module being formed elongate, - the first air-conditioning module and the second air-conditioning module being mountable in a connecting region, formed by a wall and a ceiling , of the space , - the first air-conditioning module providing at least one first fluid line flowed through by a fluid, - the second air-conditioning module providing at least one second fluid line flowed through by a fluid, - the first fluid line extending in a longitudinal direction of the first air-conditioning module and a second fluid line extending in a longitudinal direction of the second air-conditioning module , and - the first air-conditioning module and the second air-conditioning module each having an air-conditioning distributor plate which is thermally coupled to the associated fluid line , the first air-conditioning module and the second air-conditioning module being provided spaced apart and/or angularly offset from one another, a connecting line installed between the air-conditioning modules being provided for connecting the first fluid line provided in the first air-conditioning module to the second fluid line provided in the second air-conditioning module , and a covering , which joins onto a first air-conditioning distributor plate provided on the first air-conditioning module and onto a second air-conditioning distribution plate provided on the second air-conditioning module , being assigned to the connecting line , characterised in that at least two fluid lines are provided spaced apart from one another in each air-conditioning module , the at least two fluid lines extending in the longitudinal direction and being provided spaced apart from one another in a shared air-filled installation space which is delimited by the air-conditioning distributor plate . - the first air-conditioning module and the second air-conditioning module being formed elongate, - the first air-conditioning module and the second air-conditioning module being mountable in a connecting region, formed by a wall and a ceiling , of the space , - the first air-conditioning module providing at least one first fluid line flowed through by a fluid, - the second air-conditioning module providing at least one second fluid line flowed through by a fluid, - the first fluid line extending in a longitudinal direction of the first air-conditioning module and a second fluid line extending in a longitudinal direction of the second air-conditioning module , and - the first air-conditioning module and the second air-conditioning module each having an air-conditioning distributor plate which is thermally coupled to the associated fluid line ,
A refrigerator, comprising a cabinet, the cabinet comprising an inner shell, the inner shell being provided with a target mounting surface, a duct assembly being provided in the cabinet, wherein the duct assembly comprises a duct and a duct fixture being used to fix an end of the duct to the target mounting surface, the target mounting surface being provided with a mounting hole , the duct fixture comprising: a fixing seat in which is formed a through hole communicated with the end of the duct , the through hole having a central axis; a fixing disk formed as an end face of the fixing seat ; a limiting block provided on a side of the fixing disk adjacent to the target mounting surface and shaped to match the mounting hole ; a limiting groove receiving the target mounting surface is formed between the limiting block and the fixing disk , when the duct fixture is mounted to the target mounting surface, along with the rotation of the fixing disk and limiting block , the target mounting surface at the edge of the mounting hole is configured to gradually enter the limiting groove; characterized in that the duct fixture further comprises a positioning protrusion disposed on the fixing disk , the positioning protrusion is disposed angularly with the limiting block around the central axis, and a length of the positioning protrusion in the rotation direction is consistent with a width of the limiting block so that when the limiting block moves relative to the mounting hole from an aligned position to a staggered position, the positioning protrusion is configured to enter and snap fit in the mounting hole to limit further rotation of the duct fixture . a fixing seat in which is formed a through hole communicated with the end of the duct , the through hole having a central axis; a fixing disk formed as an end face of the fixing seat ; a limiting block provided on a side of the fixing disk adjacent to the target mounting surface and shaped to match the mounting hole ; a limiting groove receiving the target mounting surface is formed between the limiting block and the fixing disk , when the duct fixture is mounted to the target mounting surface, along with the rotation of the fixing disk and limiting block , the target mounting surface at the edge of the mounting hole is configured to gradually enter the limiting groove; characterized in that the duct fixture further comprises a positioning protrusion disposed on the fixing disk , the positioning protrusion is disposed angularly with the limiting block around the central axis, and a length of the positioning protrusion in the rotation direction is consistent with a width of the limiting block so that when the limiting block moves relative to the mounting hole from an aligned position to a staggered position, the positioning protrusion is configured to enter and snap fit in the mounting hole to limit further rotation of the duct fixture .
A scroll casing which forms a scroll flow passage of a centrifugal compressor , wherein, provided that, in a cross section of the scroll flow passage , Eo is an outer end of the scroll flow passage in a radial direction of the centrifugal compressor , Ef is a front end of the scroll flow passage in an axial direction of the centrifugal compressor , and Mw is a middle point of a maximum flow-passage width Wmax of the scroll flow passage in the radial direction, a flow passage height H of the scroll flow passage in the axial direction gradually increases from a position of the outer end Eo to a position of the front end Ef with respect to the radial direction, and the scroll flow passage has a recirculation flow suppressing cross section in which the front end Ef is disposed on an inner side, in the radial direction, of the middle point Mw, in a section disposed at least partially in a region downstream of a connection position (P) of a scroll start and a scroll end with respect to the flow direction of the recirculation flow, and wherein in the cross section of the scroll flow passage , in a case where Lz is a line passing through the middle point Mw of the maximum flow-passage width Wmax of the scroll flow passage in the radial direction and parallel to the axial direction, Lr is a line passing through the middle point Mh of the maximum flow-passage height Hmax of the scroll flow passage in the axial direction and parallel to the radial direction, and D1, D2, D3, D4 are four regions into which the recirculation flow suppressing cross section is divided by the line Lz and the line Lr, a flow-passage wall portion w1 belonging to the region D1 positioned on the outer side in the radial direction and on the back side in the axial direction of the intersection C of the line Lz and the line Lr, a flow-passage wall portion w2 belonging to the region D2 positioned on the outer side in the radial direction and on the front side in the axial direction of the intersection C, a flow-passage wall portion w3 belonging to the region D3 positioned on the inner side in the radial direction and on the front side in the axial direction of the intersection C, wherein in the region D4 a flow-passage wall portion w41 connecting the axial-directional back end 8a1 of the diffuser outlet 8a to the flow-passage wall portion w1, and a flow-passage wall portion w42 connecting the flow-passage wall portion w3 to the axial-directional front end 8a2 of the diffuser outlet 8a are in cross-section linear.
Moisture-curing one-component polyurethane composition comprising - at least one polyether urethane polymer containing isocyanate groups that has been obtained from the reaction of at least one polyisocyanate with at least one polyether polyol; - at least one isocyanurate-containing trimer I of 1-isocyanato-3,3,5-trimethyl-5-isocyanatomethylcyclohexane or hexane 1,6-diisocyanate in an amount present in the composition of between 1% and 4% by weight; - at least one polyether having blocked hydroxyl groups which is free of isocyanate groups as plasticizer, in an amount present in the composition of more than 5% by weight. - at least one polyether urethane polymer containing isocyanate groups that has been obtained from the reaction of at least one polyisocyanate with at least one polyether polyol; - at least one isocyanurate-containing trimer I of 1-isocyanato-3,3,5-trimethyl-5-isocyanatomethylcyclohexane or hexane 1,6-diisocyanate in an amount present in the composition of between 1% and 4% by weight; - at least one polyether having blocked hydroxyl groups which is free of isocyanate groups as plasticizer, in an amount present in the composition of more than 5% by weight.
An illumination apparatus for a microscope for producing a de-excitation or switching light distribution , the illumination apparatus having a light source which is configured to produce a primary illumination light beam , the illumination apparatus comprising: a. a beam-splitting apparatus which is configured to divide the primary illumination light beam into two partial illumination light beams , b. an illumination objective which is configured to focus the partial illumination light beams onto and/or into a sample, wherein the partial illumination light beams extend, spatially separated from one another, through an entry pupil of the illumination objective and are spatially superposed on and/or in the sample after passing through the illumination objective , and c. at least one phase-influencing means which is configured to cause a relative phase offset of the partial illumination light beams with respect to one another in such a way that the partial illumination light beams in the entry pupil of the illumination objective have a phase offset of π. a. a beam-splitting apparatus which is configured to divide the primary illumination light beam into two partial illumination light beams , b. an illumination objective which is configured to focus the partial illumination light beams onto and/or into a sample, wherein the partial illumination light beams extend, spatially separated from one another, through an entry pupil of the illumination objective and are spatially superposed on and/or in the sample after passing through the illumination objective , and c. at least one phase-influencing means which is configured to cause a relative phase offset of the partial illumination light beams with respect to one another in such a way that the partial illumination light beams in the entry pupil of the illumination objective have a phase offset of π.
Adjusting device for pivoting at least one relevant component for a motor vehicle headlight about a first and a second axis (X, Y), comprising - a holding element for displaceably holding the at least one relevant component , which holding element comprises a first sliding surface of a pair of surfaces which is formed as part of a spherical surface - a support frame for receiving the holding element , the support frame comprising a second sliding surface of the surface pair, which is formed as part of a spherical surface and corresponding to the first sliding surface , wherein the holding element is supported in the supporting frame by means of a bearing device in such a way that the first sliding surface of the holding element is displaceable along the second sliding surface of the supporting frame about the first and the second axis (X, Y), - an adjusting device for pivoting the relevant member about the first and second axes (X, Y), the adjusting device comprising an adjusting member and a first adjusting means and a second adjusting means , the first and second adjusting means being arranged on the adjusting member , wherein the adjusting member is mechanically connected to the holding member by means of a connecting member characterized in that the connecting element passes through the support frame at the second sliding surface via an opening in the support frame , the connecting element being set up to transmit a movement of the adjusting component to the retaining element , and the connecting element being in the form of screw means wherein the adjustment component can be brought into a released state and into a fastened state in conjunction with the screw means, wherein the adjustment component can be displaced in the released state by the first and the second adjusting device , and the adjustment component can be clamped to the supporting frame in the fastened state in a movement-proof manner by tightening the screw means. - a holding element for displaceably holding the at least one relevant component , which holding element comprises a first sliding surface of a pair of surfaces which is formed as part of a spherical surface - a support frame for receiving the holding element , the support frame comprising a second sliding surface of the surface pair, which is formed as part of a spherical surface and corresponding to the first sliding surface , wherein the holding element is supported in the supporting frame by means of a bearing device in such a way that the first sliding surface of the holding element is displaceable along the second sliding surface of the supporting frame about the first and the second axis (X, Y), - an adjusting device for pivoting the relevant member about the first and second axes (X, Y), the adjusting device comprising an adjusting member and a first adjusting means and a second adjusting means , the first and second adjusting means being arranged on the adjusting member , wherein the adjusting member is mechanically connected to the holding member by means of a connecting member
Device for the addition of liquid additives in the form of a spray during a jet milling step in a process for the manufacture of sintered NdFeB alloy magnets, wherein the device comprises: a storage barrel for the liquid additive; a weighing bucket which is in fluid communication with the storage barrel and is adapted for weighing a predetermined amount of the liquid additive; a powder container to accommodate NdFeB alloy material prior to or after jet milling, wherein the powder container includes an opening that is plugged with a blind flange ; a connecting pipe , which is in fluid communication with the weighing bucket and passes through an opening (5-2) of the blind flange into the interior of the powder container ; a fluid atomization nozzle located at the end of the connection pipe , wherein the blind flange further includes openings (5-1) for air replacement. a storage barrel for the liquid additive; a weighing bucket which is in fluid communication with the storage barrel and is adapted for weighing a predetermined amount of the liquid additive; a powder container to accommodate NdFeB alloy material prior to or after jet milling, wherein the powder container includes an opening that is plugged with a blind flange ; a connecting pipe , which is in fluid communication with the weighing bucket and passes through an opening (5-2) of the blind flange into the interior of the powder container ; a fluid atomization nozzle located at the end of the connection pipe , wherein the blind flange further includes openings (5-1) for air replacement.
A porous fiber, comprising a three-dimensional pore structure formed by a fiber having a solid shape, wherein the porous fiber satisfies all requirements below: having a granular material having a particle diameter of 200 um or less, and having an area occupancy rate of the granular material having a particle diameter of 200 um or less, in a cross section of the three-dimensional pore structure, of 3.0% or more; wherein the area occupancy is determined according to the following equation: Area occupancy rate of granular material (%) = total area of granular material/cross section of fiber × 100%, and not having the granular material having a particle diameter of 200 um or less in a region within 1.0 um in a depth direction from an outermost surface. having a granular material having a particle diameter of 200 um or less, and having an area occupancy rate of the granular material having a particle diameter of 200 um or less, in a cross section of the three-dimensional pore structure, of 3.0% or more; wherein the area occupancy is determined according to the following equation: Area occupancy rate of granular material (%) = total area of granular material/cross section of fiber × 100%, and not having the granular material having a particle diameter of 200 um or less in a region within 1.0 um in a depth direction from an outermost surface.
A method, in a transmitter, for transmitting binary data using a M- Amplitude-Shift Keying (ASK) constellation divided into M/2 sets of two symbols, each set of index i being associated with a probability p i of transmitting the first symbol of the set and a probability 1-p i of transmitting the second symbol of the set and wherein each symbol of the M-ASK constellation is associated with a binary word defined with a given labelling, said method comprising : a) obtaining (S300) m-1 bits from a binary source where m = log 2 M ; b) selecting (S302), based on said m-1 bits, a binary source in a plurality of binary sources , each binary source of index i being associated with a probability of outputting a bit zero equal to p i ; c) obtaining (S304) one bit from the selected source; d) obtaining (S306) a symbol of the M-ASK constellation associated with the binary word formed by the m-1 bits obtained from the binary source and the bit obtained from the selected source ; e) transmitting (S308) said obtained symbol to a receiver over a communication channel. a) obtaining (S300) m-1 bits from a binary source where m = log 2 M ; b) selecting (S302), based on said m-1 bits, a binary source in a plurality of binary sources , each binary source of index i being associated with a probability of outputting a bit zero equal to p i ; c) obtaining (S304) one bit from the selected source; d) obtaining (S306) a symbol of the M-ASK constellation associated with the binary word formed by the m-1 bits obtained from the binary source and the bit obtained from the selected source ; e) transmitting (S308) said obtained symbol to a receiver over a communication channel.