mhurhangee/patent-ind-claim-en huggingface dataset:
A method of processing a service request in an Internet Protocol multimedia core network , comprising the steps of: receiving (S11) a service request initiated by a first user, for a second user; forwarding (S212) the received service request to a unit for processing a service; receiving (S16) a processing result from the unit ; and determining (S17), on the basis of the received processing result, whether service request processing for the second user is to be stopped, wherein the service request forwarded to the unit and the processing result received from the unit each include a destination identifier, and the method being characterized in that the determining step comprises: comparing the destination identifiers of the service request forwarded to the unit and the processing result received from the unit, and stopping the service request processing for the second user when the compared identifiers are different from each other. receiving (S11) a service request initiated by a first user, for a second user; forwarding (S212) the received service request to a unit for processing a service; receiving (S16) a processing result from the unit ; and determining (S17), on the basis of the received processing result, whether service request processing for the second user is to be stopped, comparing the destination identifiers of the service request forwarded to the unit and the processing result received from the unit, and stopping the service request processing for the second user when the compared identifiers are different from each other.
Operating device for a vehicle , wherein the operating device has the following features: a movable control element ; a housing in which a first end of the control element is mounted; a magnetorheological elastomer which is designed to produce a first actuation characteristic for actuation of the control element in a rest state and a second actuation characteristic for actuation in an activation state ; and a coil for generating a magnetic field, which is designed to cause the magnetorheological elastomer to be transferred between the rest state and the activation state , characterised in that the magnetorheological elastomer is arranged in the rest state at a distance from the operating element in order to release the actuation without resistance as the first actuation characteristic and, in the activation state , mechanically contacts the operating element in order to generate resistance during actuation as the second actuation characteristic. a movable control element ; a housing in which a first end of the control element is mounted; a magnetorheological elastomer which is designed to produce a first actuation characteristic for actuation of the control element in a rest state and a second actuation characteristic for actuation in an activation state ; and a coil for generating a magnetic field, which is designed to cause the magnetorheological elastomer to be transferred between the rest state and the activation state , characterised in that the magnetorheological elastomer is arranged in the rest state at a distance from the operating element in order to release the actuation without resistance as the first actuation characteristic and, in the activation state , mechanically contacts the operating element in order to generate resistance during actuation as the second actuation characteristic.
Method for operating a sensor system having at least one ultrasonic sensor and at least one control device, characterized in that data are transmitted from the at least one ultrasonic sensor to the control device in a current-modulated manner and data are transmitted from the control device to the at least one ultrasonic sensor in a voltage-modulated manner such that a bidirectional, fully digital and data-bus-enabled sensor connection of the at least one ultrasonic sensor to the at least one control device is ensured, wherein, in order to transmit data from the at least one ultrasonic sensor to the control device, a transmission current is modulated onto a communication line, wherein a synchronization pulse (SYNC) is effected at irregular and freely defined intervals and is implemented by means of a transmission command from the control device to the at least one ultrasonic sensor as an ultrasonic transmission command.
A method for making a laminate structure (100; 200; 300), comprising: positioning an interlayer between a first substrate (101; 201; 301) and a second substrate (107; 207; 307) to form a stack (215; 315); and heating the stack (215; 315) to a lamination temperature to form a laminate structure (100; 200; 300); wherein the second substrate (107; 207; 307) is an asymmetrically annealed or tempered glass substrate comprising a first surface (109; 309) and a second surface (111; 311), the first surface (109; 309) having a first compressive stress less than a second compressive stress of the second surface (111; 311); and wherein a minimum radius of curvature of the laminate structure (100; 200; 300) at a temperature ranging from about -20 °C to about 90 °C is at least about 40 times greater than a maximum dimension of the laminate structure (100; 200; 300); and wherein a coefficient of thermal expansion of the first substrate (101; 201; 301) is different than a coefficient of thermal expansion of the second substrate (107; 207; 307). positioning an interlayer between a first substrate (101; 201; 301) and a second substrate (107; 207; 307) to form a stack (215; 315); and heating the stack (215; 315) to a lamination temperature to form a laminate structure (100; 200; 300); wherein the second substrate (107; 207; 307) is an asymmetrically annealed or tempered glass substrate comprising a first surface (109; 309) and a second surface (111; 311), the first surface (109; 309) having a first compressive stress less than a second compressive stress of the second surface (111; 311); and wherein a minimum radius of curvature of the laminate structure (100; 200; 300) at a temperature ranging from about -20 °C to about 90 °C is at least about 40 times greater than a maximum dimension of the laminate structure (100; 200; 300); and wherein a coefficient of thermal expansion of the first substrate (101; 201; 301) is different than a coefficient of thermal expansion of the second substrate (107; 207; 307).
System for producing electrical energy comprising - an electrical energy production circuit by thermodynamic cycle intended to receive a working fluid and comprising a turbine , - a first circuit for producing heat from solar energy intended to receive a first heat transfer fluid and comprising thermal solar sensors , - a second circuit for producing heat from nuclear energy intended to receive a second heat transfer fluid and comprising a nuclear reactor , and - a first heat exchanger arranged between the first circuit and the electrical energy production circuit configured to transfer the heat produced by the first circuit to the electrical energy production circuit , and - a second heat exchanger arranged between the second circuit and the electrical energy production circuit configured to transfer the heat produced by the second circuit to the electrical energy production circuit , where the second heat exchanger is arranged on the electrical energy production circuit downstream from the first exchanger such that the heat from the first circuit serves to preheat the working fluid prior to the passage thereof in the second exchanger , characterised in that the system comprises a third heat exchanger arranged on the electrical energy production circuit downstream from the turbine and an absorption machine arranged between the first circuit and the electrical energy production circuit by the third heat exchanger , the absorption machine comprising a generator arranged on the first circuit so as to convert the heat produced by the first circuit into a cold source for the third heat exchanger . - an electrical energy production circuit by thermodynamic cycle intended to receive a working fluid and comprising a turbine , - a first circuit for producing heat from solar energy intended to receive a first heat transfer fluid and comprising thermal solar sensors , - a second circuit for producing heat from nuclear energy intended to receive a second heat transfer fluid and comprising a nuclear reactor , and - a first heat exchanger arranged between the first circuit and the electrical energy production circuit configured to transfer the heat produced by the first circuit to the electrical energy production circuit , and - a second heat exchanger arranged between the second circuit and the electrical energy production circuit configured to transfer the heat produced by the second circuit to the electrical energy production circuit ,
A method for retransmitting a message, comprising: notifying (S21), by a terminal , a base station that the terminal is a narrowband terminal when sending a random access preamble to the base station; and receiving (S22), by the terminal, a first random access response that is sent by the base station to the terminal according to the random access preamble, and sending a message 3 to the base station according to the first random access response; characterized in that the method further comprises retransmitting (S24), by the terminal, the message 3 to the base station in an active blind retransmission manner after sending the message 3 to the base station according to the first random access response. notifying (S21), by a terminal , a base station that the terminal is a narrowband terminal when sending a random access preamble to the base station; and receiving (S22), by the terminal, a first random access response that is sent by the base station to the terminal according to the random access preamble, and sending a message 3 to the base station according to the first random access response; characterized in that the method further comprises retransmitting (S24), by the terminal, the message 3 to the base station in an active blind retransmission manner after sending the message 3 to the base station according to the first random access response.
An apparatus for processing documents of value comprising: a stationary part and a movable part , wherein said stationary part comprises a singler for singling a stack of documents , wherein said movable part comprises at least two output pockets for receiving processed documents , wherein said movable part is mounted to the stationary part so as to be pivotable between a closed position and an open position, wherein said stationary part and said movable part are arranged to form a transport path when said movable part is in the closed position, and wherein said stationary part and said movable part are arranged to allow access to at least a section of said transport path when said movable part is in the open position, wherein the apparatus is arranged to transport singled documents of value from said singler along said transport path to said output pockets , characterized in that said stationary part comprises a stationary base module and a first stationary extension module mounted on top of the stationary base module , in that said movable part comprises a movable base module and a first movable extension module mounted to the movable base module and having an output pocket , and in that said base modules and said extension modules respectively are complementary to each other to form at least sections of said transport path . a stationary part and a movable part , wherein said stationary part comprises a singler for singling a stack of documents , wherein said movable part comprises at least two output pockets for receiving processed documents , wherein said movable part is mounted to the stationary part so as to be pivotable between a closed position and an open position, wherein said stationary part and said movable part are arranged to form a transport path when said movable part is in the closed position, and wherein said stationary part and said movable part are arranged to allow access to at least a section of said transport path when said movable part is in the open position, wherein the apparatus is arranged to transport singled documents of value from said singler along said transport path to said output pockets , characterized in that said stationary part comprises a stationary base module and a first stationary extension module mounted on top of the stationary base module , in that said movable part comprises a movable base module and a first movable extension module mounted to the movable base module and having an output pocket , and in that said base modules and said extension modules respectively are complementary to each other to form at least sections of said transport path .
A process for catalytic fast pyrolysis of biomass comprising: a) performing a catalytic fast pyrolysis process on biomass to provide a first vapor phase stream comprising, on a water-free and solids-free basis, from 25 to 80 % wt CO, at least 15 % wt CO 2 , from 0.2 to 10% wt H 2 , and a compound selected from the group consisting of methane, ethane, ethylene, propane, propylene, butanes, butenes, pentanes, pentenes, aromatics including phenols, cresols, naphthalenes and indole; and combinations thereof; b) mixing the first vapor phase stream of step a) with solvent having an absorption capacity for CO 2 that is at least 5 times, or at least 10 times, the absorption capacity of the solvent for CO to make a mixed phase stream, and c) separating the mixed phase stream of step b) into a second vapor phase stream comprising CO and a liquid phase stream, wherein said second vapor phase stream of step c) has a higher concentration of CO and a lower concentration of CO 2 than the first vapor phase stream of step a), and thereby recovering the CO. a) performing a catalytic fast pyrolysis process on biomass to provide a first vapor phase stream comprising, on a water-free and solids-free basis, from 25 to 80 % wt CO, at least 15 % wt CO 2 , from 0.2 to 10% wt H 2 , and a compound selected from the group consisting of methane, ethane, ethylene, propane, propylene, butanes, butenes, pentanes, pentenes, aromatics including phenols, cresols, naphthalenes and indole; and combinations thereof; b) mixing the first vapor phase stream of step a) with solvent having an absorption capacity for CO 2 that is at least 5 times, or at least 10 times, the absorption capacity of the solvent for CO to make a mixed phase stream, and c) separating the mixed phase stream of step b) into a second vapor phase stream comprising CO and a liquid phase stream, wherein said second vapor phase stream of step c) has a higher concentration of CO and a lower concentration of CO 2 than the first vapor phase stream of step a), and thereby recovering the CO.
A synthetic yarn splicer for splicing one yarn (YA) and the other yarn (YB) made of synthetic fibers, comprising: a yarn splicing portion that has a passage forming a space though which the one yarn (YA) and the other yarn (YB) are insertable and an injection hole opening to the passage and injecting a fluid and entangles the one yarn (YA) and the other yarn (YB) inserted through the passage ; a first clamping portion that is disposed on one side of the yarn splicing portion in a penetrating direction of the passage and clamps the one yarn (YA) and the other yarn (YB); a second clamping portion that is disposed on the other side of the yarn splicing portion in the penetrating direction and clamps the one yarn (YA) and the other yarn (YB); characterized in that the synthetic yarn splicer further comprises a shutter portion that is able to close at least a part of the passage of the yarn splicing portion either from the one side or from the other side, wherein the shutter portion closes the passage either from the one side with the first clamping portion being farther from the yarn splicing portion than the second clamping portion , or from the other side with the second clamping portion being farther from the yarn splicing portion than the first clamping portion when entangling the one yarn (YA) and the other yarn (YB) by the yarn splicing portion . a yarn splicing portion that has a passage forming a space though which the one yarn (YA) and the other yarn (YB) are insertable and an injection hole opening to the passage and injecting a fluid and entangles the one yarn (YA) and the other yarn (YB) inserted through the passage ; a first clamping portion that is disposed on one side of the yarn splicing portion in a penetrating direction of the passage and clamps the one yarn (YA) and the other yarn (YB); a second clamping portion that is disposed on the other side of the yarn splicing portion in the penetrating direction and clamps the one yarn (YA) and the other yarn (YB); characterized in that the synthetic yarn splicer further comprises a shutter portion that is able to close at least a part of the passage of the yarn splicing portion either from the one side or from the other side, wherein the shutter portion closes the passage either from the one side with the first clamping portion being farther from the yarn splicing portion than the second clamping portion , or from the other side with the second clamping portion being farther from the yarn splicing portion than the first clamping portion when entangling the one yarn (YA) and the other yarn (YB) by the yarn splicing portion .
A tread tensioning member for a tire chain attachable to a vehicle tire , wherein the tread tensioning member is configured to rest on a tread of the vehicle tire in a mounted state (M) of the tire chain on the vehicle tire , wherein at least two connecting elements are provided for attaching two ends of a chain net resting on the tread of the vehicle tyre in the mounted state (M) of the tire chain spaced along the circumference (U), the connecting members being connected to each other so as to be movable away from one another in the circumferential direction (U) while generating an elastic restoring force , characterized in that at least one connecting member includes a bracket having two legs wherein the legs extend substantially parallel to the circumferential direction (U) and the legs of the at least one bracket are formed as guiding portions and a web connecting the legs is formed as a connecting portion .
A method for managing the provision of a service between origin and destination endpoints over a communication network, the communication network comprising at least two Autonomous Systems, ASs, the method comprising: - defining an Abstraction and Control of Traffic Engineered Networks, ACTN, Virtual Network, VN, between the origin and destination endpoints, the VN comprising at least one specified tunnel in each of the ASs; the method being characterised in that it further comprises: - defining at each egress node of each tunnel in the VN a loopback interface that corresponds to the VN and is specific to said each tunnel of the egress node; - defining, at each of the origin and destination endpoints, a service segregation loopback interface which binds a subset of traffic belonging to the service , wherein said subset of traffic belonging to the service is identified by routing constraints specific for said subset of traffic; and - using a Routing Policy to expose the loopback interface corresponding to the VN, and defined at the egress node corresponding to the destination endpoint, as routing next hop for traffic belonging to the service and having the service segregation loopback interface defined at the destination endpoint as its destination. - defining an Abstraction and Control of Traffic Engineered Networks, ACTN, Virtual Network, VN, between the origin and destination endpoints, the VN comprising at least one specified tunnel in each of the ASs; - defining at each egress node of each tunnel in the VN a loopback interface that corresponds to the VN and is specific to said each tunnel of the egress node; - defining, at each of the origin and destination endpoints, a service segregation loopback interface which binds a subset of traffic belonging to the service , wherein said subset of traffic belonging to the service is identified by routing constraints specific for said subset of traffic; and - using a Routing Policy to expose the loopback interface corresponding to the VN, and defined at the egress node corresponding to the destination endpoint, as routing next hop for traffic belonging to the service and having the service segregation loopback interface defined at the destination endpoint as its destination.
A method performed by a communication apparatus which is operable to communicate with at least one of a first, bandwidth limited, type user equipment, UE, (3-2) and a second type UE (3-1), the method comprising: assigning a first frequency resource for a first physical uplink control channel, PUCCH, for the bandwidth limited type UE (3-2), wherein the first PUCCH is initially carried by a first band and wherein the first PUCCH is subsequently carried by a second band following a retuning by the bandwidth limited type UE (3-2); and assigning a second frequency resource for a second physical uplink control channel , PUCCH, for the second type UE (3-1). assigning a first frequency resource for a first physical uplink control channel, PUCCH, for the bandwidth limited type UE (3-2), wherein the first PUCCH is initially carried by a first band and wherein the first PUCCH is subsequently carried by a second band following a retuning by the bandwidth limited type UE (3-2); and assigning a second frequency resource for a second physical uplink control channel , PUCCH, for the second type UE (3-1).
A device comprising: a grip to secure the device to an expansion card based on a friction fit, wherein the grip includes an upper grip portion to receive a fastener ; a shoulder to retain the fastener and enable the fastener to be operable while retained in the device to fasten the device to a mainboard ; and a standoff formed by a lower grip portion , to establish a standoff distance between the expansion card and the mainboard when the device is secured to the expansion card and fastened to the mainboard , wherein the shoulder is to contact the expansion card to provide heat transfer and electrical grounding between the expansion card and the mainboard . a grip to secure the device to an expansion card based on a friction fit, wherein the grip includes an upper grip portion to receive a fastener ; a shoulder to retain the fastener and enable the fastener to be operable while retained in the device to fasten the device to a mainboard ; and a standoff formed by a lower grip portion , to establish a standoff distance between the expansion card and the mainboard when the device is secured to the expansion card and fastened to the mainboard , wherein the shoulder is to contact the expansion card to provide heat transfer and electrical grounding between the expansion card and the mainboard .