mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a separator plate for a fuel cell, in which a curable and electrically conductive material is applied to a carrier material at a first processing station , wherein a flow field for a reactant which can be fed to the fuel cell is formed in the material , and wherein the material is cured following the formation of the flow field , characterized in that - the carrier material provided with the curable and electrically conductive material passes through a plurality of processing stations , in that - the material is dried and/or gelled and/or pre-hardened at least in regions at the respective processing station before the flow field is introduced, and in that - the flow field is subsequently formed in the material by means of an embossing tool and/or by roll forming, wherein a mixture comprising at least one plastic provided with an electrically conductive filler and a solvent is used to provide the cured material . - the carrier material provided with the curable and electrically conductive material passes through a plurality of processing stations , in that - the material is dried and/or gelled and/or pre-hardened at least in regions at the respective processing station before the flow field is introduced, and in that - the flow field is subsequently formed in the material by means of an embossing tool and/or by roll forming, wherein a mixture comprising at least one plastic provided with an electrically conductive filler and a solvent is used to provide the cured material .
A method of wireless communication performed by a user equipment, UE , having a single radio for performing activities in a first radio access technology, RAT and in a second RAT, comprising: monitoring , by the UE , a first use by the UE of a UE resource of the first RAT; monitoring , by the UE , a second use by the UE of the UE resource of the second RAT, wherein the UE is served by a current serving cell in the second RAT; determining , by the UE , a percentage of conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT over a predefined period of time, wherein the conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT corresponds to an overlap between a period of time that the first use by the UE of the UE resource of the first RAT is scheduled and a period of time that the second use by the UE of the UE resource of the second RAT is scheduled; and initiating , by the UE , a cell reselection attempt to one or more neighboring cells of a plurality of neighboring cells of the second RAT based on the determined percentage of conflict exceeding a predetermined threshold. monitoring , by the UE , a first use by the UE of a UE resource of the first RAT; monitoring , by the UE , a second use by the UE of the UE resource of the second RAT, wherein the UE is served by a current serving cell in the second RAT; determining , by the UE , a percentage of conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT over a predefined period of time, wherein the conflict between the first use by the UE of the UE resource of the first RAT and the second use by the UE of the UE resource of the second RAT corresponds to an overlap between a period of time that the first use by the UE of the UE resource of the first RAT is scheduled and a period of time that the second use by the UE of the UE resource of the second RAT is scheduled; and initiating , by the UE , a cell reselection attempt to one or more neighboring cells of a plurality of neighboring cells of the second RAT based on the determined percentage of conflict exceeding a predetermined threshold.
A cylinder device including: a cylinder ; a piston slidably inserted into the cylinder; a rod inserted into the cylinder and connected to the piston; a rod-side chamber and a piston-side chamber partitioned by the piston within the cylinder; a tank ; a first on-off valve provided in the middle of a first passage allowing the rod-side chamber to communicate with the piston-side chamber; a second on-off valve provided in the middle of a second passage allowing the piston-side chamber to communicate with the tank; and a pump for supplying liquid to the rod-side chamber, the cylinder device being characterised in that : a discharge passage is provided to connect the rod-side chamber to the tank, and a variable relief valve capable of changing valve opening pressure is provided in the middle of the discharge passage, and thrust is controlled by controlling the valve opening pressure of the variable relief valve. a cylinder ; a piston slidably inserted into the cylinder; a rod inserted into the cylinder and connected to the piston; a rod-side chamber and a piston-side chamber partitioned by the piston within the cylinder; a tank ; a first on-off valve provided in the middle of a first passage allowing the rod-side chamber to communicate with the piston-side chamber; a second on-off valve provided in the middle of a second passage allowing the piston-side chamber to communicate with the tank; and a pump for supplying liquid to the rod-side chamber, the cylinder device being characterised in that : a discharge passage is provided to connect the rod-side chamber to the tank, and a variable relief valve capable of changing valve opening pressure is provided in the middle of the discharge passage, and thrust is controlled by controlling the valve opening pressure of the variable relief valve.
Heating/Air Conditioning (IC) installation to feed an interior (H) of a vehicle (V) with at least one home space (EA), that installation (IC) consisting of (i) a cold loop (BF) with an evaporator (EV) and a variablecylinder compressor (CP) capable of cooling air to be treated by a first pulsor (P1), (ii) means of control (MCT) capable of controlling the said cylinder and the said first pulsor (P1), and (iii) a power duct (CA) communicating with the said cold loop (BF) in downstream of the said evaporator (EV) and with the said space of home (EA) to fed the latter (EA) in refrigerated air, characterized in that it also includes a second pulsor (P2) (b) to rate variable air treaty and installed enter two section of the said set duct (AC), and in so far as the said means of (MCT) are capable of controlling the said cylinder and the said air delivered by the said second pulsor (P2) in order to the said refrigerated air (EA) having a temperature and an air chosen according to an temperature by a passenger of the said vehicle (), an of the temperature within the said (EA) and an air supplied by the said first pulsor (P1).
An optical planar waveguide , comprising: a single crystal substrate ; at least one layer of a low index optical coating formed on a surface of the single crystal substrate; and a thin layer of metal formed on a surface of the at least one layer of the low index optical coating, the at least one layer of the low index optical coating disposed between the single crystal substrate and the thin layer of metal, characterised by : the optical planar waveguide further comprising a layer of graphite as a thermal optical interface in thermal communication with a surface of the thin layer of metal, the thin layer of metal disposed between the at least one layer of the low index optical coating and the thermal optical interface, and the optical planar waveguide being configured to function as an optical amplifier. a single crystal substrate ; at least one layer of a low index optical coating formed on a surface of the single crystal substrate; and a thin layer of metal formed on a surface of the at least one layer of the low index optical coating, the at least one layer of the low index optical coating disposed between the single crystal substrate and the thin layer of metal, characterised by : the optical planar waveguide further comprising a layer of graphite as a thermal optical interface in thermal communication with a surface of the thin layer of metal, the thin layer of metal disposed between the at least one layer of the low index optical coating and the thermal optical interface, and the optical planar waveguide being configured to function as an optical amplifier. the optical planar waveguide further comprising a layer of graphite as a thermal optical interface in thermal communication with a surface of the thin layer of metal, the thin layer of metal disposed between the at least one layer of the low index optical coating and the thermal optical interface, and the optical planar waveguide being configured to function as an optical amplifier.
A method for producing a homopolymer or copolymer of monomers comprising olefin represented by formula CH 2 =CHR 1 wherein R 1 represents a hydrogen atom or hydrocarbon group having 1 to 20 carbon atoms, using as a polymerization catalyst a metal complex represented by formula (C2) wherein M represents a metal atom of group 10 element in the periodic system; X represents a phosphorous atom (P) or an arsenic atom (As) ; R 5 represents a hydrogen atom or hydrocarbon group having 1 to 30 carbon atoms which may be substituted by one or more groups selected from a halogen atom, alkoxy group, aryloxy group and acyloxy group; Y 1 represents a bivalent hydrocarbon group having 1 to 70 carbon atoms which may be substituted by one or more groups selected from a halogen atom, alkoxy group and aryloxy group; R 6 and R 7 independently represent a hydrogen atom, alkoxy group, aryloxy group, silyl group, amino group or hydrocarbon group having 1 to 30 carbon atoms which may be substituted by one or more groups selected from a halogen atom, alkoxy group and aryloxy group; and at least one of R 6 and R 7 represents a cycloalkyl group represented by formula wherein R represents an alkylene group having 1 to 14 carbon atoms which may have a substituent; R 9 , R 10 and R 11 independently represent a hydrogen atom, alkoxy group, aryloxy group, silyl group, amino group or hydrocarbon group having 1 to 30 carbon atoms which may be substituted by one or more groups selected from a halogen atom, alkoxy group and aryloxy group; at least one of R 9 and R 10 is not a hydrogen atom; R 9 , R 10 , R 11 and the above-mentioned alkylene group R may bond to each other to form a ring structure, in the formula, the bond of the carbon atom to X in formula (C2) is also shown; Q represents a bivalent group indicated in the brackets of Y 1 [-S(=0) 2 -0-]M, Y 1 [-C(=0)-0-]M or Y 1 [-P(=0)(-OH)-0-]M(Y 1 and M at the beginning and at the end of the formulae are described to show the coupling direction of the groups), L represents an electron-donating ligand and q is 0, 1/2, 1 or 2.
A method for wireless communication by a user equipment, comprising: receiving, at the user equipment, first information indicating: (i) an overall power limit for communicating on uplinks by the user equipment in any time slot, (ii) a first power limit for communicating on an uplink associated with a first radio access technology, and (iii) a second power limit for communicating on an uplink associated with a second radio access technology, the first information provided by at least one base station; receiving , at the user equipment, second information indicating scheduling of the user equipment to communicate on both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology in a first time slot; determining whether a sum of the first power limit and the second power limit is greater than the overall power limit in the first time slot during which both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology are being scheduled; communicating , by the user equipment, on the uplink associated with the second radio access technology based on the second power limit during the first time slot; and scaling down power used for a transmission on the uplink associated with the first radio access technology during the first time slot or dropping the transmission on the uplink associated with the first radio access technology during the first time slot when the sum is greater than the overall power limit. receiving, at the user equipment, first information indicating: (i) an overall power limit for communicating on uplinks by the user equipment in any time slot, (ii) a first power limit for communicating on an uplink associated with a first radio access technology, and (iii) a second power limit for communicating on an uplink associated with a second radio access technology, the first information provided by at least one base station; receiving , at the user equipment, second information indicating scheduling of the user equipment to communicate on both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology in a first time slot; determining whether a sum of the first power limit and the second power limit is greater than the overall power limit in the first time slot during which both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology are being scheduled; communicating , by the user equipment, on the uplink associated with the second radio access technology based on the second power limit during the first time slot; and scaling down power used for a transmission on the uplink associated with the first radio access technology during the first time slot or dropping the transmission on the uplink associated with the first radio access technology during the first time slot when the sum is greater than the overall power limit.
A blood pump , comprising: a housing including an inlet element , the inlet element having a distal portion coupled to the housing and a proximal portion sized to be received within at least a portion of a heart of a patient, and a rotor configured to rotate within the housing and impel blood from the heart; a flange member at least partially disposed around the proximal portion of the inlet element ; and a pressure sensor coupled to the flange member . a housing including an inlet element , the inlet element having a distal portion coupled to the housing and a proximal portion sized to be received within at least a portion of a heart of a patient, and a rotor configured to rotate within the housing and impel blood from the heart; a flange member at least partially disposed around the proximal portion of the inlet element ; and a pressure sensor coupled to the flange member .
A method performed by a server connected to a network , wherein the server comprises a processor and memory , and wherein the server further includes computer-executable instructions stored in the memory which, when executed by the processor, perform functions of a server in the network, the method comprising: determining an indication of a probability that a user transmits a request requesting multiple machine-to-machine content resources, the multiple machine-to-machine content resources associated with multiple machine-to-machine devices operatively connected to the network, and determining, using the indication, a first machine-to-machine gateway or another server in the network at which to store the multiple machine-to-machine content resources. determining an indication of a probability that a user transmits a request requesting multiple machine-to-machine content resources, the multiple machine-to-machine content resources associated with multiple machine-to-machine devices operatively connected to the network, and determining, using the indication, a first machine-to-machine gateway or another server in the network at which to store the multiple machine-to-machine content resources.
A method of manufacturing a composite granular grouting material, which comprises the following steps in the given order: mixing bentonite and an auxiliary component; forming spherical composite granules by agritating the mixture of bentonite and the auxiliary component; drying the spherical composite granules; and forming a bentonite layer outside the spherical composite granules by mixing bentonite with the spherical composite granules and agritating the same, wherein the bentonite layer has a lower density than the density of the bentonite in the spherical composite granules, and wherein the bentonite layer is capable of forming a slurry when being dissolved in water. mixing bentonite and an auxiliary component; forming spherical composite granules by agritating the mixture of bentonite and the auxiliary component; drying the spherical composite granules; and forming a bentonite layer outside the spherical composite granules by mixing bentonite with the spherical composite granules and agritating the same, wherein the bentonite layer has a lower density than the density of the bentonite in the spherical composite granules, and wherein the bentonite layer is capable of forming a slurry when being dissolved in water.
Load handling device , which device comprises a frame structure and at least two substantially horizontally extending forks for contacting and supporting a load , which frame structure is configured to be connectable to a frame of a loader , and the position of the forks are adjustable by rotating in relation to the frame structure on a cross-sectional plane relative to the length direction of the forks, characterized in that a center of rotation of all the forks is located in vertical direction below the horizontal plane (A) of the forks , when both of the forks are on the same horizontal plane, and each of the two forks is connected at the edge areas of a separate plate member extending in a transversal plane in relation to the length direction of the fork, which plate member is connected to the frame structure of the load handling device pivotably at the center of rotation of the forks.
A method for determining a cyclic prefix, CP, comprising: performing (S110), by a station, STA , associated with an access point, AP , channel estimation; determining (S120), by the STA , a CP value according to the result of channel estimation; and sending (S130), by the STA , indication information to the AP , wherein the indication information is used for indicating the CP value. performing (S110), by a station, STA , associated with an access point, AP , channel estimation; determining (S120), by the STA , a CP value according to the result of channel estimation; and sending (S130), by the STA , indication information to the AP , wherein the indication information is used for indicating the CP value.
Heat exchanger for a refrigerant fluid loop , the heat exchanger comprising at least one inlet configured to allow a refrigerant fluid (R) to enter in the heat exchanger and at least one outlet configured to allow the refrigerant fluid (R) to exit the heat exchanger , the heat exchanger comprising at least one block in which a filter is arranged, this filter being adapted to filter the refrigerant fluid (R), characterized in that the block is arranged downstream the outlet , and in that said block comprises at least one fixation means which holds the filter in a determined position, wherein at least one path is arranged in the block , the filter being accommodated in said at least one path and wherein the fixation means comprises at least one deformable ring interposed between the filter and a wall defining the path of the block , wherein the fixation means comprises at least one pressing means which is arranged between the wall defining the path of the block and an external face of the filter , the pressing means applying pressure on this external face of the filter, in the direction of the deformable ring , wherein the pressing means is formed by at least one elastic arm which emerges from the wall defining the path of the block , at least one free end of this elastic arm applying pressure against the external face of the filter .
A composition for forming a conductive pattern by electromagnetic irradiation, comprising: a polymer resin; and a non-conductive metal compound which has P 1 space group of a triclinic structure or Cc or C2/c space group of a monoclinic structure and is Cu x Sn 2 (PO 4 ) 3 (0.5≤x≤1), wherein a metal core is formable from the non-conductive metal compound by electromagnetic irradiation. a polymer resin; and a non-conductive metal compound which has P 1 space group of a triclinic structure or Cc or C2/c space group of a monoclinic structure and is Cu x Sn 2 (PO 4 ) 3 (0.5≤x≤1), wherein a metal core is formable from the non-conductive metal compound by electromagnetic irradiation.
A counter tapered diblock copolymer, comprising: units of at least one monovinyl aromatic monomer A polymerized with units of at least one conjugated diene monomer B to form the structure A-[A/B], wherein the A block comprises a homopolymer of the monovinyl aromatic units, wherein the [A/B] block is a copolymer of the monovinyl aromatic monomer units and the conjugated diene monomer units, further characterized in having: a peak molecular weight from 20,000 to 250,000; a monovinyl aromatic homopolymer block A with a peak molecular weight of at least 8,000; and a counter tapered copolymer block [A/B] with a vinyl content of at least 15 weight percent based on the amount of conjugated diene units in the diblock copolymer; wherein the [A/B] block is counter tapered such that the ratio of B to A is lower proximal to the A block relative to the ratio of B to A distal to the A block; wherein the peak molecular weight is measured using gel permeation chromatography under ASTM D 3536 with linear polystyrene standards. units of at least one monovinyl aromatic monomer A polymerized with units of at least one conjugated diene monomer B to form the structure A-[A/B], wherein the A block comprises a homopolymer of the monovinyl aromatic units, wherein the [A/B] block is a copolymer of the monovinyl aromatic monomer units and the conjugated diene monomer units, further characterized in having: a peak molecular weight from 20,000 to 250,000; a monovinyl aromatic homopolymer block A with a peak molecular weight of at least 8,000; and a counter tapered copolymer block [A/B] with a vinyl content of at least 15 weight percent based on the amount of conjugated diene units in the diblock copolymer; wherein the [A/B] block is counter tapered such that the ratio of B to A is lower proximal to the A block relative to the ratio of B to A distal to the A block; wherein the peak molecular weight is measured using gel permeation chromatography under ASTM D 3536 with linear polystyrene standards.