mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a membrane electrode assembly for a fuel cell, comprising a membrane, two reinforcers, two seals, gas diffusion layers and a catalyst, the method comprising the following steps: - a step during which a seal is applied to each of the reinforcers using screen printing, - a step during which a catalytic chemical element is applied to each of the faces of the membrane, - a step during which a reinforcer bearing a screen-printed seal is thermally bonded to each of the faces of the catalysed membrane, - a step during which a gas diffusion layer is applied to each of the faces of the catalysed membrane bearing a reinforcer and a seal, the method being such that the various elements are held on a support by suction during at least some of the steps of the method. - a step during which a seal is applied to each of the reinforcers using screen printing, - a step during which a catalytic chemical element is applied to each of the faces of the membrane, - a step during which a reinforcer bearing a screen-printed seal is thermally bonded to each of the faces of the catalysed membrane, - a step during which a gas diffusion layer is applied to each of the faces of the catalysed membrane bearing a reinforcer and a seal, the method being such that the various elements are held on a support by suction during at least some of the steps of the method.
Pneumatic vehicle tyre of radial design with a profiled tread strip , side walls , bead regions and an inner layer of air-tight configuration which forms the inner side which faces the interior space of the pneumatic vehicle tyre, ribs which project from the level of the inner side being configured on the inner side of the inner layer , which ribs have been shaped by way of a heating bladder which is introduced into the interior of the tyre during the vulcanization of the pneumatic vehicle tyre in a tyre heating mould, and a sound absorber being attached so as to run around in an annular manner on a circumferential region of the inner side of the inner layer , which circumferential region lies opposite the tread strip , characterized in that grooves which protrude from the level of the inner side into the inner layer have been configured by the heating bladder at least in a part region of that circumferential region of the inner side of the inner layer which lies opposite the tread strip and to which the sound absorber is attached.
A baler , comprising: a frame ; a pickup mechanism coupled to the frame , the pickup mechanism adapted to collect crop; a pre-compression chamber coupled to the frame rearward of the pickup mechanism ; a material flow path defined at least between the pickup mechanism and pre-compression chamber ; a first feeder assembly coupled to the frame along the material flow path and between the pickup mechanism and the pre-compression chamber , the first feeder assembly including: a feeding mechanism for transferring crop received from the pickup mechanism to the pre-compression chamber ; a floor assembly positioned at least partially below the feeding mechanism, the floor assembly being pivotably coupled to the frame about a pivot to move between a raised position and a lowered position; a knife system coupled to the floor assembly , the knife system including one or more knives oriented, at least in part, along the material flow path; wherein, the pivot is located rearward of the pickup mechanism and feeding mechanism, characterized in that the pivot is further located such that the floor assembly and knife system pivot from the raised position to the lowered position in a direction downwardly and towards a rear of the baler .
A polymer composition, comprising: (A) a conjugated diene rubber wherein a polymer corresponding to the following component (B) is excluded; and (B) a hydrogenated product of the polymer that satisfies the following to , which is the polymer in which 80% or more of structural units derived from butadiene are hydrogenated: being a copolymer of a conjugated diene compound containing butadiene and an aromatic vinyl compound, comprising a polybutadiene block having a vinyl group content of 20% or less, and comprising a block composed of a conjugated diene compound and an aromatic vinyl compound. (A) a conjugated diene rubber wherein a polymer corresponding to the following component (B) is excluded; and (B) a hydrogenated product of the polymer that satisfies the following to , which is the polymer in which 80% or more of structural units derived from butadiene are hydrogenated: being a copolymer of a conjugated diene compound containing butadiene and an aromatic vinyl compound, comprising a polybutadiene block having a vinyl group content of 20% or less, and comprising a block composed of a conjugated diene compound and an aromatic vinyl compound. being a copolymer of a conjugated diene compound containing butadiene and an aromatic vinyl compound, comprising a polybutadiene block having a vinyl group content of 20% or less, and comprising a block composed of a conjugated diene compound and an aromatic vinyl compound.
An interference exposure apparatus, comprising: a light source for providing an exposure light beam; a light homogenizer-collimator for homogenizing and collimating the exposure light beam emanating from the light source ; an interference unit including at least two gratings for converting the exposure light beam into at least two coherent light beams, the interference unit being movable in a vertical direction to make the at least two coherent light beams converge on a surface of a substrate to form an interference exposure pattern, the at least two gratings each having a period in correspondence with a period of a desired exposure pattern and being distributed in correspondence with a distribution characteristic of the desired exposure pattern; a driving and supporting means for supporting the substrate and carrying the substrate to move with at least three degrees of freedom; and a measuring means for measuring an angle between a coordinate system of the interference unit and a coordinate system of the driving and supporting means so as to adjust an exposure position of the driving and supporting means based on a measurement result of the measuring means before exposing the substrate. a light source for providing an exposure light beam; a light homogenizer-collimator for homogenizing and collimating the exposure light beam emanating from the light source ; an interference unit including at least two gratings for converting the exposure light beam into at least two coherent light beams, the interference unit being movable in a vertical direction to make the at least two coherent light beams converge on a surface of a substrate to form an interference exposure pattern, the at least two gratings each having a period in correspondence with a period of a desired exposure pattern and being distributed in correspondence with a distribution characteristic of the desired exposure pattern; a driving and supporting means for supporting the substrate and carrying the substrate to move with at least three degrees of freedom; and a measuring means for measuring an angle between a coordinate system of the interference unit and a coordinate system of the driving and supporting means so as to adjust an exposure position of the driving and supporting means based on a measurement result of the measuring means before exposing the substrate.
A system for activating an electrically or electronically controlled second device from an energy-saving, passive state with a first device and with an associated second device in the form of an electronic key , an ID transponder or a chip card, for closing and/or opening for access and/or authorization and/or for other services for a radio remote control, for controlled front doors or for motor vehicles, wherein the two devices have transmitters and receivers for electromagnetic signals for their intended operation, wherein the transmitter of the first device is designed to transmit a first signal for activating the second device with a first data protocol within a first transmission time interval (TXshort) and with a cyclical repetition with a first cycle time, and in that the second device in the energy-saving, passive state has a cyclically repeated reception mode for a specific first reception time interval (RX) of the second device , which is on a significantly larger time scale than the first cycle time, wherein said first reception time interval (RX) of the second device is a multiple longer than the first transmission time interval (TXshort) of the first data protocol of the first device and that the first reception time interval (RX) of the second device substantially corresponds to at least the sum of the first cycle time and the first transmission time interval (TXshort) of the first device for activating the second device and the second device is formed to activate itself from the energy-saving, passive state when the first data protocol is received within a first reception time interval (RX). with a first device and with an associated second device in the form of an electronic key , an ID transponder or a chip card, for closing and/or opening for access and/or authorization and/or for other services for a radio remote control, for controlled front doors or for motor vehicles, wherein the two devices have transmitters and receivers for electromagnetic signals for their intended operation, wherein the transmitter of the first device is designed to transmit a first signal for activating the second device with a first data protocol within a first transmission time interval (TXshort) and with a cyclical repetition with a first cycle time, and in that the second device in the energy-saving, passive state has a cyclically repeated reception mode for a specific first reception time interval (RX) of the second device , which is on a significantly larger time scale than the first cycle time, wherein said first reception time interval (RX) of the second device is a multiple longer than the first transmission time interval (TXshort) of the first data protocol of the first device and that the first reception time interval (RX) of the second device substantially corresponds to at least the sum of the first cycle time and the first transmission time interval (TXshort) of the first device for activating the second device and the second device is formed to activate itself from the energy-saving, passive state when the first data protocol is received within a first reception time interval (RX).
A composite turbine blade assembly comprising: a ceramic blade including an airfoil portion , a shank portion and an attachment portion ; and a transition assembly adapted to attach said ceramic blade to a turbine disk or rotor, the transition assembly comprising first and second metal transition components clamped together, trapping said ceramic blade therebetween, wherein interior surfaces of said first and second metal transition components are formed to mate with said shank portion and said attachment portion of said ceramic blade and to be secured to each other directly by one or more fasteners passing through respective hole pairs in an area radially inward of the attachment portion , and wherein exterior surfaces of said first and second metal transition components are formed to provide an attachment feature shaped to correspond to said shank and attachment portions which enable said transition assembly to be received in the turbine rotor or disk, wherein a radially innermost end of said attachment portion of said ceramic blade lies radially outwardly of a radially outermost end of said attachment feature of said first and second metal transition components . a ceramic blade including an airfoil portion , a shank portion and an attachment portion ; and a transition assembly adapted to attach said ceramic blade to a turbine disk or rotor, the transition assembly comprising first and second metal transition components clamped together, trapping said ceramic blade therebetween, wherein interior surfaces of said first and second metal transition components are formed to mate with said shank portion and said attachment portion of said ceramic blade and to be secured to each other directly by one or more fasteners passing through respective hole pairs in an area radially inward of the attachment portion , and wherein exterior surfaces of said first and second metal transition components are formed to provide an attachment feature shaped to correspond to said shank and attachment portions which enable said transition assembly to be received in the turbine rotor or disk, wherein a radially innermost end of said attachment portion of said ceramic blade lies radially outwardly of a radially outermost end of said attachment feature of said first and second metal transition components .
A self-assembly member for assembling a valve module (150a-150c, 200, 250, 300, 310, 400, 705) of a modular prosthetic percutaneous valve device after deployment from a delivery device, characterized in that said self-assembly member has a delivery configuration and a preset configuration, and wherein when in said preset configuration said self-assembly member comprises a split ring and a plurality of masts , and in said delivery configuration said split ring extends in a generally linear linear direction along the longitudinal axis of said delivery device, and said masts are oriented generally parallel to the split ring in said delivery configuration and oriented perpendicularly to said split ring of said self-assembly member in said preset configuration.
Control cartridge for single-lever mixer faucets, comprising a housing having a cylindrical housing wall and comprising a bottom having a bore for an inlet for cold water and a bore for an inlet for hot water, with three superimposed ceramic disks being arranged on the bottom , namely a lower base disk having a bore for the inlet for hot water and a bore for the inlet for cold water, a rotatable and displaceable ceramic control disk which rests on the base disk and has a control edge on the circumferential surface, and an upper bearing disk which is sealed off from the housing or the housing wall , characterized in that the bottom and the base disk each have a mixed water outlet in addition to the two inlets for cold and hot water , the inlets for hot water , for cold water and the mixed water outlet being arranged above one another in the bottom and in the base disk , the bottom being sealed off from the housing wall and, depending on requirements, the housing wall having an opening for a lateral mixed water outlet or the housing wall not having an opening for a vertical mixed water outlet.
Assembly for a turbine engine , the assembly comprising: an axis of rotation of the turbine engine ; an outer casing (28; 128; 228) of a compressor (4; 6) with an annular wall (30; 130; 230) having an inner circular surface delimiting a primary flow-path of the compressor (4; 6); and a tank (46; 146; 246) for a liquid, with an inner circular chamber (48; 148; 248) extending around the axis of rotation , the wall (30; 130; 230) including an outer circular surface delimiting the inner chamber (48; 148; 248) of the tank (46; 146; 246); characterized in that the casing (28; 128; 228) comprises a fixing annular flange positioned upstream, and axially spaced, from the tank (46; 146; 246), the flange radially extending from the annular wall (30; 130; 230), and the flange and the tank (46; 146; 246) being axially separated from each other by a distance that is at least equal to the axial dimension of the tank (46; 146; 246).
Function connection unit for connecting functional modules , having a multiplicity of functional module connections (120a - 120h), to which the functional modules can be connected for communication in accordance with a first communication protocol, having a service module with a service connection , which can be connected to at least one functional module connection of the multiplicity of functional module connections (120a - 120h) for communication in accordance with the first communication protocol, wherein the service module has a communication connection for communication in accordance with a second communication protocol; wherein the service module is designed to provide parameter data present on the communication connection in accordance with the second communication protocol to the service connection in accordance with the first communication protocol; and wherein the function connection unit is designed to configure at least one functional module on the basis of the parameter data , wherein the service module is designed to apply to the service connection an identification signal which identifies the service module.
Machine for harvesting plants that have stems with flowering tops , the machine being configured to be moved toward the plants in a direction of movement and comprising lifting means configured to lift the plants to a first position and guide them to separation means configured for cutting or tearing, so as to separate the stems from the flowering tops and pick up said tops, the machine further comprising: - guide means configured to orient the plants in a second position and guide them to the separation means , - and a suction means configured to suck up said flowering tops and transport them to a receiving means, characterized in that the separation means comprise cutting elements which rotate about a separation axis located in a plane parallel to the direction of movement . - guide means configured to orient the plants in a second position and guide them to the separation means , - and a suction means configured to suck up said flowering tops and transport them to a receiving means,
A gene therapy vector comprising an expression cassette, the expression cassette comprising a synthetic liver-specific inducible promoter operably linked to a gene, the synthetic liver-specific inducible promoter comprising a cis-regulatory element (CRE) that is capable of being bound and activated by a heterodimer of CAR and RXR, wherein the CRE that is capable of being bound and activated by a CAR-RXR heterodimer comprises or consists of a functional variant of SEQ ID NO: 1 or SEQ ID NO: 2, wherein the functional variant of SEQ ID NO: 1 or SEQ ID NO: 2 comprises one of the following sequences: - [TGTACTTTCCTGACCN-S-] n (SEQ ID NO: 29); - [CTGTACTTTCCTGACCN-S-] n (SEQ ID NO: 30); and - [NCTGTACTTTCCTGACCNTG-S-] n (SEQ ID NO: 31), wherein S is an optional spacer and n is from 1 to 5, optionally from 2 to 4, and preferably 3. - [TGTACTTTCCTGACCN-S-] n (SEQ ID NO: 29); - [CTGTACTTTCCTGACCN-S-] n (SEQ ID NO: 30); and - [NCTGTACTTTCCTGACCNTG-S-] n (SEQ ID NO: 31), wherein S is an optional spacer and n is from 1 to 5, optionally from 2 to 4, and preferably 3.
A method of configuring a control resource set, CORESET, performed by a network equipment side, the method being characterized by comprising: configuring , for a terminal, indication information for indicating time-frequency domain position information of the CORESET of data information; wherein the indication information comprises: a first indication field for indicating downlink numerology information and a second indication field for indicating a CORESET configuration, and the first indication field comprises at least one of: first indication information for indicating whether numerology information for the CORESET is the same as numerology information for a synchronized signal, SS, block; or second indication information for indicating the numerology information for the CORESET; wherein, the numerology information comprises: subcarrier spacing, the CORESET configuration comprises: a first configuration in which numerology information for the CORESET is the same as numerology information for the synchronized signal, SS, block, or a second configuration in which the numerology information for the CORESET is different from the numerology information for the SS block; and transmitting the indication information to the terminal through a system master information block, MIB, carried by an SS block. configuring , for a terminal, indication information for indicating time-frequency domain position information of the CORESET of data information; wherein the indication information comprises: a first indication field for indicating downlink numerology information and a second indication field for indicating a CORESET configuration, and the first indication field comprises at least one of: first indication information for indicating whether numerology information for the CORESET is the same as numerology information for a synchronized signal, SS, block; or second indication information for indicating the numerology information for the CORESET; wherein, the numerology information comprises: subcarrier spacing, the CORESET configuration comprises: a first configuration in which numerology information for the CORESET is the same as numerology information for the synchronized signal, SS, block, or a second configuration in which the numerology information for the CORESET is different from the numerology information for the SS block; and transmitting the indication information to the terminal through a system master information block, MIB, carried by an SS block.
A method comprising: receiving, at a heterogeneous network , mobility data in a virtual layer for a device operating in the heterogeneous network , comprising a plurality of cells having at least a non-cellular cell type and a cellular cell type, wherein the heterogeneous network provides device classification and assignment of cell types; classifying, via the heterogeneous network , the device into a mobility class among a plurality of mobility classes based on the mobility data in the virtual layer defined by boundaries between the plurality of mobility classes, the mobility class having a boundary, for the device to yield a cell classification comprising at least a preferred cell type and an acceptable cell type; assigning, by the heterogeneous network and based on the mobility class, the device to a first cell in the heterogeneous network, wherein the first cell can be a preferred cell type or an acceptable cell type; monitoring, by the heterogeneous network , at least one of a distribution of devices and load levels across a group of cells of the heterogeneous network to yield an analysis; and based on the analysis, adjusting, by the heterogeneous network , the boundary of the mobility class. receiving, at a heterogeneous network , mobility data in a virtual layer for a device operating in the heterogeneous network , comprising a plurality of cells having at least a non-cellular cell type and a cellular cell type, wherein the heterogeneous network provides device classification and assignment of cell types; classifying, via the heterogeneous network , the device into a mobility class among a plurality of mobility classes based on the mobility data in the virtual layer defined by boundaries between the plurality of mobility classes, the mobility class having a boundary, for the device to yield a cell classification comprising at least a preferred cell type and an acceptable cell type; assigning, by the heterogeneous network and based on the mobility class, the device to a first cell in the heterogeneous network, wherein the first cell can be a preferred cell type or an acceptable cell type; monitoring, by the heterogeneous network , at least one of a distribution of devices and load levels across a group of cells of the heterogeneous network to yield an analysis; and based on the analysis, adjusting, by the heterogeneous network , the boundary of the mobility class.