mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber-reinforced thermoplastic resin filament of continuous reinforcing fiber impregnated with a thermoplastic resin, having (a) a volume content of the reinforcing fiber of 30 to 80 vol% and a volume content of the thermoplastic resin filament of 70 to 20 vol%, (b) a thickness of 0.01 to 3mm, and (c) a filament length of 1m or more, wherein the reinforcing fiber has 90% or more of an average value D of a dispersion parameter d calculated by a series of steps (i) to (iv): (i) taking an image of a cross section of the fiber-reinforced thermoplastic resin filament perpendicular to an orientation direction; (ii) dividing the image of the cross section into square units having a side length t within a range of Formula ; (iii) calculating the dispersion parameter d by Formula ; (iv) calculating the average value D of the dispersion parameter d by repeating a plurality of sets of the steps (i) to (iii), 1.5 a ≤ t ≤ 2 .5a , where: a: fiber diameter; and t: side length of unit, Dispersion parameter d = 100×(the number of units including reinforcing fibers within range)/(the number of all units). (a) a volume content of the reinforcing fiber of 30 to 80 vol% and a volume content of the thermoplastic resin filament of 70 to 20 vol%, (b) a thickness of 0.01 to 3mm, and (c) a filament length of 1m or more, wherein the reinforcing fiber has 90% or more of an average value D of a dispersion parameter d calculated by a series of steps (i) to (iv): (i) taking an image of a cross section of the fiber-reinforced thermoplastic resin filament perpendicular to an orientation direction; (ii) dividing the image of the cross section into square units having a side length t within a range of Formula ; (iii) calculating the dispersion parameter d by Formula ; (iv) calculating the average value D of the dispersion parameter d by repeating a plurality of sets of the steps (i) to (iii), 1.5 a ≤ t ≤ 2 .5a , where: a: fiber diameter; and t: side length of unit, Dispersion parameter d = 100×(the number of units including reinforcing fibers within range)/(the number of all units). (i) taking an image of a cross section of the fiber-reinforced thermoplastic resin filament perpendicular to an orientation direction; (ii) dividing the image of the cross section into square units having a side length t within a range of Formula ; (iii) calculating the dispersion parameter d by Formula ; (iv) calculating the average value D of the dispersion parameter d by repeating a plurality of sets of the steps (i) to (iii), 1.5 a ≤ t ≤ 2 .5a , where: a: fiber diameter; and t: side length of unit, Dispersion parameter d = 100×(the number of units including reinforcing fibers within range)/(the number of all units). a: fiber diameter; and t: side length of unit,
A computer-implemented method for implementing a blockchain-based web service, the computer-implemented method comprising: receiving , at a blockchain network node of a blockchain network and from a client device, a web service request for web data, wherein the web service request is sent by the client device to the blockchain network node using a defined web interface for the client device, wherein each of the blockchain network nodes is configured to deploy one or more smart contracts for providing web services independently of another intermediate or external node, wherein the one or more smart contracts are configured to execute web service request and logics for web services; storing , by the blockchain network node, the web service request in the blockchain network node; forwarding , by the blockchain network node, the web service request to a smart contract deployed in a software container on the blockchain network node for providing a web service, wherein the software container comprises a standalone, executable package of software for executing the smart contract in the software container on the blockchain network node, wherein the smart contract receives the web data from a network server, wherein the network server retrieves the web data based on the web service request; obtaining , by the blockchain network node and from the smart contract, an execution result in response to the web service request; and sending , by the blockchain network node, the execution result to the client device using the web interface. receiving , at a blockchain network node of a blockchain network and from a client device, a web service request for web data, wherein the web service request is sent by the client device to the blockchain network node using a defined web interface for the client device, wherein each of the blockchain network nodes is configured to deploy one or more smart contracts for providing web services independently of another intermediate or external node, wherein the one or more smart contracts are configured to execute web service request and logics for web services; storing , by the blockchain network node, the web service request in the blockchain network node; forwarding , by the blockchain network node, the web service request to a smart contract deployed in a software container on the blockchain network node for providing a web service, wherein the software container comprises a standalone, executable package of software for executing the smart contract in the software container on the blockchain network node, wherein the smart contract receives the web data from a network server, wherein the network server retrieves the web data based on the web service request; obtaining , by the blockchain network node and from the smart contract, an execution result in response to the web service request; and sending , by the blockchain network node, the execution result to the client device using the web interface.
A method for determining a location of an earth fault , characterized by comprising: calculating a zero sequence component and a positive sequence component in a grid based on a distributed shunt capacitance ; and determining a distance to a measuring point from an earth fault point based on a negative sequence component, the calculated zero sequence component and the calculated positive sequence component . calculating a zero sequence component and a positive sequence component in a grid based on a distributed shunt capacitance ; and determining a distance to a measuring point from an earth fault point based on a negative sequence component, the calculated zero sequence component and the calculated positive sequence component .
A jet regulator for a sanitary fitting , comprising at least - a housing ; - at least one liquid channel for a liquid, which extends at least partially through the housing ; - at least one aeration channel , via which air can be supplied to the at least one liquid channel to aerate the liquid; and - an actuating element for opening and closing the at least one aeration channel ; wherein the actuating element has a plurality of first aeration openings and the housing has a plurality of second aeration openings , wherein the first aeration openings are formed on a first end face of the actuating element and wherein the first aeration openings are formed in a circumferential collar of the actuating element , characterized in that the second aeration openings are formed on an end face of the housing . - a housing ; - at least one liquid channel for a liquid, which extends at least partially through the housing ; - at least one aeration channel , via which air can be supplied to the at least one liquid channel to aerate the liquid; and - an actuating element for opening and closing the at least one aeration channel ; wherein the actuating element has a plurality of first aeration openings and the housing has a plurality of second aeration openings , wherein the first aeration openings are formed on a first end face of the actuating element and wherein the first aeration openings are formed in a circumferential collar of the actuating element , characterized in that the second aeration openings are formed on an end face of the housing .
A dielectric millimeter waveguide for propagating millimeter electromagnetic signals, the dielectric waveguide comprising a cladding member extending a length between two ends , the cladding member being formed of a first dielectric material, the cladding member defining a core region that extends through the cladding member along the length of the cladding member, the core region being filled with a second dielectric material having a dielectric constant value that differs from a dielectric constant value of the first dielectric material, the core region having a circular cross-sectional shape, characterized in that the cladding member Z has an oblong rectangular cross-sectional shape.
A method of isolating DNA from a sample, the method comprising: partitioning the DNA of the sample into a plurality of partitions, the plurality comprising at least a hypermethylated partition and a hypomethylated partition; preparing a first pool comprising at least a first portion of the DNA of the hypomethylated partition; preparing a second pool comprising at least a first portion of the DNA of the hypermethylated partition; capturing at least a first set of target regions from the first pool; and capturing at least a second set of target regions from the second pool, wherein the first set of target regions and the second set of target regions are not identical. partitioning the DNA of the sample into a plurality of partitions, the plurality comprising at least a hypermethylated partition and a hypomethylated partition; preparing a first pool comprising at least a first portion of the DNA of the hypomethylated partition; preparing a second pool comprising at least a first portion of the DNA of the hypermethylated partition; capturing at least a first set of target regions from the first pool; and capturing at least a second set of target regions from the second pool, wherein the first set of target regions and the second set of target regions are not identical.
A bookbinding machine comprising a plurality of processing stations (205a-205e) for processing book blocks (215a-215d), a plurality of transport elements (210a-210d) for transporting the book blocks (215a-215d) individually across the processing stations (205a-205e) in a transport direction along a transport path being closed, the bookbinding machine comprising: a plurality of endless conveyors (225a-225c) arranged in a wrap-around succession with corresponding exchange areas at the transport path between pairs of adjacent ones of the endless conveyors (225a-225c), each of the endless conveyors (225a;225b;225c) carrying one or more conveying elements (305a1,305a2;305b;305c) distributed uniformly along the endless conveyor (225a;225b;225c) when more than one, and a driving system (235-240) for driving the endless conveyors (225a-225c) to cause each of the conveying elements (305a1,305a2;305b;305c) of each of the endless conveyors (225a-225c) in succession to engage one of the transport elements (210a-210d) at a start one of the exchange areas (230ca;230ab;230bc) of the endless conveyor (225a-225c), to convey the transport element (210a-210d) along the transport path for an active section of the endless conveyor (225a-225c) from the start exchange area (230ca;230ab;230bc) to another end one of the exchange areas (230ab;230bc;230ca) thereof in the transport direction, to disengage the transport element (210a-210d) at the end exchange area (230ab;230bc;230ca) of the endless conveyor (225a-225c), and to return free of the transport elements (210a-210d) away from the transport path for a passive section of the endless conveyor (225a-225c) from the end exchange area (230ab;230bc;230ca) to the start exchange area (230ca;230ab;230bc) thereof in the transport direction, wherein the driving system (235-240) drives the endless conveyors (225a-225c) at corresponding speeds each proportional to a ratio between a length of the corresponding endless conveyor (225a;225b;225c) and a number of the corresponding conveying elements (305a1,305a2;305b;305c) according to a common moving frequency.
A method for detecting loops (111-1, 111-2, 236) between ports in a Gigabit Passive Optical Network, GPON, based access network , the access network comprising an Optical Line Terminal, OLT , coupled with a plurality of Optical Network Units, ONUs (108-1, 108-2, 226, 312, 322-1, 322-2), each ONU comprising a plurality of ports (108-1A, 108-1B, 108-2A, 108-2B, 314, 316, 324, 326), wherein the method comprises steps of: transmitting loop detection frames from a source port of one of the ONUs, the loop detection frames containing specific details needed to identify the source port ; monitoring traffic received at a destination port of the same one or a different one of the ONUs; if a loop detection frame is received at the destination port , blocking traffic transmission and reception at the destination port for a predetermined time period before subsequently being unblocked; and at a point of time before the predetermined time period expires, temporarily enabling the blocked destination port for transmitting and receiving further loop detection frames . transmitting loop detection frames from a source port of one of the ONUs, the loop detection frames containing specific details needed to identify the source port ; monitoring traffic received at a destination port of the same one or a different one of the ONUs; if a loop detection frame is received at the destination port , blocking traffic transmission and reception at the destination port for a predetermined time period before subsequently being unblocked; and at a point of time before the predetermined time period expires, temporarily enabling the blocked destination port for transmitting and receiving further loop detection frames .
A monolayered adhesive resin layer comprising an acrylic-based adhesive resin composition having transparency, wherein said adhesive resin composition contains at least (A) an acrylic-based polymer, wherein said (A) acrylic-based polymer is an acrylic-based polymer which is crosslinked with a curing agent comprising at least one kind of an isocyanate-based compound or an epoxy-based compound, (B) urethane acrylate oligomer, and (C) a thermopolymerization initiator, wherein said (C) thermopolymerization initiator is a peroxide having a half-life of 1 min at a temperature of 100°C to 200°C, and said adhesive resin layer has pressure sensitive adhesiveness on both surfaces at an ambient temperature, and can be thermally cured by heating at a temperature of 100 to 250°C and a time of 30 seconds to 10 minutes.
A vehicle charging module, in particular of an electric drive vehicle, comprising an electric charging socket housed in a bottom of a dish-shaped bulge of a vehicle body and with its front provided with at least one connection hole , opened in the direction of the longitudinal axis (α) thereof to the orifice of the dish-shaped bulge , and a lid swing mounted in the vehicle body to close the dish-shaped bulge orifice by means of two arms , carrying ends of which are pivotally mounted on the lid inside by means of carrying pins and support ends of which are pivotally mounted in the vehicle body by means of support pins arranged on one side of the charging socket , whereas the arms and the lid form a parallelogram to move the lid in a position parallel to the vehicle body surface, wherein the support pin of the arm , which is closer to the charging socket is in the direction of the longitudinal axis (α) of the charging socket , is closer to the front of the charging socket than the support pin of the arm , which is more distant from the charging socket , characterized in that a cap of the connection hole of the charging socket is arranged on the side of one of the arms , facing the charging socket . drive vehicle, comprising an electric charging socket housed in a bottom of a dish-shaped bulge of a vehicle body and with its front provided with at least one connection hole , opened in the direction of the longitudinal axis (α) thereof to the orifice of the dish-shaped bulge , and a lid swing mounted in the vehicle body to close the dish-shaped bulge orifice by means of two arms , carrying ends of which are pivotally mounted on the lid inside by means of carrying pins and support ends of which are pivotally mounted in the vehicle body by means of support pins arranged on one side of the charging socket , whereas the arms and the lid form a parallelogram to move the lid in a position parallel to the vehicle body surface, wherein the support pin of the arm , which is closer to the charging socket is in the direction of the longitudinal axis (α) of the charging socket , is closer to the front of the charging socket than the support pin of the arm , which is more distant from the charging socket , characterized in that a cap of the connection hole of the charging socket is arranged on the side of one of the arms , facing the charging socket .
A lateral microelectromechanical switch comprising: a coplanar waveguide comprising an input port ; one or more output ports ; wherein the lateral microelectromechanical switch further comprises a cantilever beam , having a first end in contact to the input port , and extending from the first end toward a second end that is switchably connectable to said one of the output ports ; a mechanical spring , connected to the cantilever beam between the first and second ends, the mechanical spring configured to provide a mechanical force to move the cantilever beam ; characterized in that the mechanical spring is positioned between the cantilever beam and the grounds of the coplanar waveguide ; and a mechanical stopper connected to said at least one output ports and configured to contact the second end of the cantilever beam , wherein the lateral microelectromechnical switch is configured such that, when the lateral microelectromechanical switch is open, the second end and the mechanical stopper are at a distance from one another that is less than a distance between the mechanical spring and the ground of the coplanar waveguide ; and wherein the input port , the output ports , and the cantilever beam are placed between the two grounds of the coplanar waveguide . a coplanar waveguide comprising an input port ; one or more output ports ; wherein the lateral microelectromechanical switch further comprises a cantilever beam , having a first end in contact to the input port , and extending from the first end toward a second end that is switchably connectable to said one of the output ports ; a mechanical spring , connected to the cantilever beam between the first and second ends, the mechanical spring configured to provide a mechanical force to move the cantilever beam ; characterized in that the mechanical spring is positioned between the cantilever beam and the grounds of the coplanar waveguide ; and a mechanical stopper connected to said at least one output ports and configured to contact the second end of the cantilever beam , wherein the lateral microelectromechnical switch is configured such that, when the lateral microelectromechanical switch is open, the second end and the mechanical stopper are at a distance from one another that is less than a distance between the mechanical spring and the ground of the coplanar waveguide ; and wherein the input port , the output ports , and the cantilever beam are placed between the two grounds of the coplanar waveguide .
Method of operating a user equipment in a radio access network, the method comprising transmitting feedback control signaling, the feedback control signaling representing a number I of information bits, wherein the I information bits are encoded with a code rate based on a code rate indication; wherein the I information bits are encoded according to a Reed-Muller code if I is not greater than 11 bits, and encoded according to a Polar code if I is greater than 11 bits; wherein a number of physical resource blocks used for transmitting the feedback control signaling is based on the code rate indication; and wherein the feedback control signaling represents acknowledgement information, measurement information and a scheduling request. wherein the I information bits are encoded according to a Reed-Muller code if I is not greater than 11 bits, and encoded according to a Polar code if I is greater than 11 bits; wherein a number of physical resource blocks used for transmitting the feedback control signaling is based on the code rate indication; and wherein the feedback control signaling represents acknowledgement information, measurement information and a scheduling request.
An in vitro method for assessing whether a human patient has gingivitis, wherein the method comprises: - detecting, in a sample of saliva from said human patient, the concentrations of the proteins Alpha-1-acid glycoprotein (A1AGP), S100 calcium-binding protein A8 (S100A8) and Keratin 4 (K-4); - determining a testing value reflecting the joint concentrations determined for said proteins; - comparing said testing value with a threshold value reflecting in the same manner the joint concentrations associated with gingivitis, so as to assess whether the testing value is indicative for gingivitis in said patient. - detecting, in a sample of saliva from said human patient, the concentrations of the proteins Alpha-1-acid glycoprotein (A1AGP), S100 calcium-binding protein A8 (S100A8) and Keratin 4 (K-4); - determining a testing value reflecting the joint concentrations determined for said proteins; - comparing said testing value with a threshold value reflecting in the same manner the joint concentrations associated with gingivitis, so as to assess whether the testing value is indicative for gingivitis in said patient.
A computer-implemented method for operating an Autonomous Driving Vehicle (ADV), the method comprising: issuing a control command to control the ADV, wherein the control command is obtained from an entry of a calibration table associated with a speed and a desired acceleration of the ADV; receiving a first torque value measured using one or more sensors in response to issuing the control command to the ADV; determining a torque error value as a difference between the first torque value and a second torque value measured prior to issuing the control command; characterized in that the method further comprises: updating the associated entry in the calibration table based at least in part on the torque error value, wherein the updated calibration table is utilized to determine subsequent control commands to control the ADV. issuing a control command to control the ADV, wherein the control command is obtained from an entry of a calibration table associated with a speed and a desired acceleration of the ADV; receiving a first torque value measured using one or more sensors in response to issuing the control command to the ADV; determining a torque error value as a difference between the first torque value and a second torque value measured prior to issuing the control command; characterized in that the method further comprises: updating the associated entry in the calibration table based at least in part on the torque error value, wherein the updated calibration table is utilized to determine subsequent control commands to control the ADV.