mhurhangee/patent-ind-claim-en huggingface dataset:
A combustion system , comprising: - a fuel and oxidant source configured to output pure fuel and an oxidant to form a fuel and oxidant mixture ; - a first perforated flame holder positioned to receive a first portion of the fuel and oxidant and to support a first combustion reaction of the fuel and oxidant within perforations of the first perforated flame holder ; and - a second perforated flame holder positioned to receive a second portion of the fuel and oxidant and to support a second combustion reaction of the fuel and oxidant within perforations of the second perforated flame holder , the first and second perforated flame holders being separated by a gap , and wherein the fuel and oxidant source includes at least one fuel nozzle oriented to distribute the fuel for mixture with the oxidant through a dilution distance D D between the at least one fuel nozzle and at least one of the first and second perforated flame holders , characterized in that the fuel and oxidant mixture subtends the gap , and a portion of the fuel and oxidant mixture passes through the gap . - a fuel and oxidant source configured to output pure fuel and an oxidant to form a fuel and oxidant mixture ; - a first perforated flame holder positioned to receive a first portion of the fuel and oxidant and to support a first combustion reaction of the fuel and oxidant within perforations of the first perforated flame holder ; and - a second perforated flame holder positioned to receive a second portion of the fuel and oxidant and to support a second combustion reaction of the fuel and oxidant within perforations of the second perforated flame holder , the first and second perforated flame holders being separated by a gap , and wherein the fuel and oxidant source includes at least one fuel nozzle oriented to distribute the fuel for mixture with the oxidant through a dilution distance D D between the at least one fuel nozzle and at least one of the first and second perforated flame holders , characterized in that the fuel and oxidant mixture subtends the gap , and a portion of the fuel and oxidant mixture passes through the gap . wherein the fuel and oxidant source includes at least one fuel nozzle oriented to distribute the fuel for mixture with the oxidant through a dilution distance D D between the at least one fuel nozzle and at least one of the first and second perforated flame holders , characterized in that the fuel and oxidant mixture subtends the gap , and a portion of the fuel and oxidant mixture passes through the gap .
A restrictor assembly for restricting the opening of a window, the assembly comprising a first member defining an elongate track , a second member mounted for sliding movement along the track and a third member able to interact with the second member , wherein the first member and the second and/or third member have interengaging formations that are arranged to engage one another to hold the second member against sliding movement along the track, and the assembly is configurable in a first configuration and in a second configuration by changing the formations on the second and/or third member that engage the formations on the first member by either removing the third member from the rest of the assembly or by altering the interaction of the third member on the second member by rotating the third member relative to the second member , wherein, in the first configuration , the interengaging formations engage in such a way that a force along the track in a first direction causes the formations to slide over one another and disengage and a force along the track in a second direction opposite to the first direction causes the interengaging formations to abut one another, engage more forcefully with one another and hold the second member against movement along the track in the second direction, the second member being able to be moved along the track into a first predetermined position partway along the track in which it is held against sliding along the track in one direction by the interengaging formations , but not in the opposite direction, wherein, in the second configuration, the interengaging formations engage in such a way that a force along the track in either direction causes the interengaging formations to abut one another, engage more forcefully with one another and hold the second member against movement along the track in either direction, the second member being able to be moved along the track into a second predetermined position partway along the track in which it is held against sliding along the track in either direction by the interengaging formations .
A method for managing operations of applications in an electronic device , the method comprising: identifying a first application which is active on the electronic device ; detecting an event based on a context of the first application ; identifying a second application , which is non-active and related to the first application, based on the event; displaying one or more action elements related to the second application on the first application; pinning, on a screen of the first application, an action element selected according to a user input, among the one or more action elements; and providing a content obtained from the first application to the pinned action element of the second application ; wherein the one or more action elements are driven based on the context and a content of the first application, and wherein the providing the content comprises at least one of sharing the content of the first application with the pinned action element of the second application or moving the content of the first application to the pinned action element of the second application. identifying a first application which is active on the electronic device ; detecting an event based on a context of the first application ; identifying a second application , which is non-active and related to the first application, based on the event; displaying one or more action elements related to the second application on the first application; pinning, on a screen of the first application, an action element selected according to a user input, among the one or more action elements; and providing a content obtained from the first application to the pinned action element of the second application ; wherein the one or more action elements are driven based on the context and a content of the first application, and wherein the providing the content comprises at least one of sharing the content of the first application with the pinned action element of the second application or moving the content of the first application to the pinned action element of the second application.
A method comprising: initiating (S402) communication between a portable communication device and a point of sale terminal, the portable communication device comprising a token and a first limited use key, wherein the portable communication device cannot receive communications over cellular networks; receiving (S418), by the portable communication device, from a remote server of a payment processing network via the point of sale terminal, a second limited use key, wherein the portable communication device is in short range communication or in contact with the point of sale terminal; and replacing, by the portable communication device, the first limited use key with the second limited use key; wherein the second limited use key is received by the portable communication device from the point of sale terminal after an authorization response message is received by the point of sale terminal from the remote server, wherein the authorization response message is an electronic message reply to an authorization request message and comprises the second limited use key, and wherein the authorization request message is an electronic message generated and transmitted by the point of sale terminal to the remote server to request authorization for a transaction; encrypting, using the second limited use key and by the portable communication device, transaction data for a subsequent transaction to form a cryptogram; and transmitting, by the portable communication device, the token and the cryptogram to the point of sale terminal to conduct the subsequent transaction initiating (S402) communication between a portable communication device and a point of sale terminal, the portable communication device comprising a token and a first limited use key, wherein the portable communication device cannot receive communications over cellular networks; receiving (S418), by the portable communication device, from a remote server of a payment processing network via the point of sale terminal, a second limited use key, wherein the portable communication device is in short range communication or in contact with the point of sale terminal; and replacing, by the portable communication device, the first limited use key with the second limited use key; wherein the second limited use key is received by the portable communication device from the point of sale terminal after an authorization response message is received by the point of sale terminal from the remote server, wherein the authorization response message is an electronic message reply to an authorization request message and comprises the second limited use key, and wherein the authorization request message is an electronic message generated and transmitted by the point of sale terminal to the remote server to request authorization for a transaction; encrypting, using the second limited use key and by the portable communication device, transaction data for a subsequent transaction to form a cryptogram; and transmitting, by the portable communication device, the token and the cryptogram to the point of sale terminal to conduct the subsequent transaction
A system for producing a polymer by polymerizing a monomer using a catalyst, the system comprising: a polymerization reaction vessel comprising a cavity which comprises a monomer, the polymerization reaction vessel further comprising an opening for introducing catalyst into the cavity of the polymerization reaction vessel; a positive displacement reciprocating piston system, comprising: a catalyst delivery housing connected to the opening of the polymerization reaction vessel, a catalyst feed supply connected to the catalyst delivery housing such that catalyst can be fed from the catalyst feed supply into the catalyst delivery housing, and a piston system positioned inside the catalyst delivery housing, the piston system comprising a piston having a top section and a bottom section attached to one another and an annular catalyst holding space between the top section and the bottom section of the piston, the piston being movable between a first position and second position, wherein the annular catalyst holding space is suitable to be filled with catalyst from the catalyst feed supply when the piston is in the first position, and catalyst is discharged from the annular catalyst holding space into the cavity of the polymerization reaction vessel through the opening of the polymerization reaction vessel when the piston system is in the second position, and the catalyst in the catalyst feed supply is blocked from the annular catalyst holding space by the top section of the piston when the piston is in the second position. a polymerization reaction vessel comprising a cavity which comprises a monomer, the polymerization reaction vessel further comprising an opening for introducing catalyst into the cavity of the polymerization reaction vessel; a positive displacement reciprocating piston system, comprising: a catalyst delivery housing connected to the opening of the polymerization reaction vessel, a catalyst feed supply connected to the catalyst delivery housing such that catalyst can be fed from the catalyst feed supply into the catalyst delivery housing, and a piston system positioned inside the catalyst delivery housing, the piston system comprising a piston having a top section and a bottom section attached to one another and an annular catalyst holding space between the top section and the bottom section of the piston, the piston being movable between a first position and second position, a catalyst delivery housing connected to the opening of the polymerization reaction vessel, a catalyst feed supply connected to the catalyst delivery housing such that catalyst can be fed from the catalyst feed supply into the catalyst delivery housing, and a piston system positioned inside the catalyst delivery housing, the piston system comprising a piston having a top section and a bottom section attached to one another and an annular catalyst holding space between the top section and the bottom section of the piston, the piston being movable between a first position and second position,
A data transmission method used in a wireless backhaul network, wherein the wireless backhaul network comprises a wireless backhaul node, and the wireless backhaul node has a plurality of next-hop nodes on an uplink; and the method comprises: determining (S210), by the wireless backhaul node, one or more reporting nodes for a data volume of a first-type data packet from the plurality of next-hop nodes based on the data volume of the first-type data packet, a data volume of a second-type data packet, and a data volume of a third-type data packet; and sending (S220), by the wireless backhaul node, a buffer status report to the one or more reporting nodes, wherein the buffer status report is used to indicate the data volume of the first-type data packet, wherein at least one of the first-type data packet, the second-type data packet, and the third-type data packet comprises a data packet from an adaptation layer entity of the wireless backhaul node and/or a data packet from a radio link control layer entity of the wireless backhaul node; the first-type data packet can be transmitted through a first next-hop node in the plurality of next-hop nodes and a second next-hop node in the plurality of next-hop nodes; the second-type data packet can be transmitted only through the first next-hop node in the plurality of next-hop nodes; and the third-type data packet can be transmitted only through the second next-hop node in the plurality of next-hop nodes. determining (S210), by the wireless backhaul node, one or more reporting nodes for a data volume of a first-type data packet from the plurality of next-hop nodes based on the data volume of the first-type data packet, a data volume of a second-type data packet, and a data volume of a third-type data packet; and sending (S220), by the wireless backhaul node, a buffer status report to the one or more reporting nodes, wherein the buffer status report is used to indicate the data volume of the first-type data packet, wherein at least one of the first-type data packet, the second-type data packet, and the third-type data packet comprises a data packet from an adaptation layer entity of the wireless backhaul node and/or a data packet from a radio link control layer entity of the wireless backhaul node; the first-type data packet can be transmitted through a first next-hop node in the plurality of next-hop nodes and a second next-hop node in the plurality of next-hop nodes; the second-type data packet can be transmitted only through the first next-hop node in the plurality of next-hop nodes; and the third-type data packet can be transmitted only through the second next-hop node in the plurality of next-hop nodes.
A camouflage cover configured to provide a spectral signature that is a match to a vegetative environment in the visible and IR spectral regions, the camouflage cover comprising: an upper cellulosic layer formed from a first cellulosic fabric; a lower cellulosic layer formed from a second cellulosic fabric; an SAP layer sandwiched between the upper and lower cellulosic layers, the SAP layer comprising a mixture of a super-absorbent polymer, a cellulose pulp, and water, the upper and lower cellulosic layers having outer sides that face away from the SAP layer; and upper and lower water boundary layers configured to prevent escape of the water of the SAP layer from the camouflage cover. an upper cellulosic layer formed from a first cellulosic fabric; a lower cellulosic layer formed from a second cellulosic fabric; an SAP layer sandwiched between the upper and lower cellulosic layers, the SAP layer comprising a mixture of a super-absorbent polymer, a cellulose pulp, and water, the upper and lower cellulosic layers having outer sides that face away from the SAP layer; and upper and lower water boundary layers configured to prevent escape of the water of the SAP layer from the camouflage cover.
A coated powder for use in an additive manufacturing process, each of the particles of the coated powder comprising: a base polymer layer forming a core and formed of a base polymer material having a first dielectric loss factor, tan δ, said base polymer material comprising polyetherimide; and a coating polymer layer surrounding the base polymer layer and formed of a coating polymer material having a second dielectric loss factor, tan δ, said coating polymer material comprising polyvinyl alcohol, wherein the second dielectric loss factor of the coating polymer material is greater than the first dielectric loss factor of the base polymer material. a base polymer layer forming a core and formed of a base polymer material having a first dielectric loss factor, tan δ, said base polymer material comprising polyetherimide; and a coating polymer layer surrounding the base polymer layer and formed of a coating polymer material having a second dielectric loss factor, tan δ, said coating polymer material comprising polyvinyl alcohol, wherein the second dielectric loss factor of the coating polymer material is greater than the first dielectric loss factor of the base polymer material.
A labelling machine comprising: a supply spool support for supporting a supply spool comprising label stock ; a take-up spool support adapted to take up a portion of the label stock ; a movable element which defines a portion of a web path between the supply spool and the take-up spool support; a sensor configured to produce a sensor signal indicative of the position of the movable element ; a controller configured to receive the sensor signal and output a brake assembly control signal based upon the sensor signal; a brake assembly configured to apply a braking force to one of said spool supports based upon the brake assembly control signal, the braking force resisting rotation of said one of said spool supports , wherein the controller is configured to control the brake assembly based upon the sensor signal so as to cause the brake assembly to apply a variable braking force to the one of said spool supports. a supply spool support for supporting a supply spool comprising label stock ; a take-up spool support adapted to take up a portion of the label stock ; a movable element which defines a portion of a web path between the supply spool and the take-up spool support; a sensor configured to produce a sensor signal indicative of the position of the movable element ; a controller configured to receive the sensor signal and output a brake assembly control signal based upon the sensor signal; a brake assembly configured to apply a braking force to one of said spool supports based upon the brake assembly control signal, the braking force resisting rotation of said one of said spool supports , wherein the controller is configured to control the brake assembly based upon the sensor signal so as to cause the brake assembly to apply a variable braking force to the one of said spool supports.
Method for controlling an electric machine by means of an inverter , in particular for use in a motor vehicle, wherein the inverter has a plurality of controllable power switches which are designed to convert a direct voltage of a voltage source , coupled to the power switches , into an alternating voltage for supplying the electric machine with electrical energy, characterized by the steps: - switching the electric machine into an open-circuit mode by opening all the power switches of the inverter , - detecting a phase current of the electric machine , - switching over the electric machine from the open-circuit mode into a short-circuit mode as a function of a comparison of the phase current or of a first variable, which is derived from the phase current, with a first reference value, wherein in the short-circuit mode the power switches which are assigned to a first potential of the voltage source are closed, and wherein the power switches which are assigned to a second potential of the voltage source are opened, and - switching over the electric machine from the short-circuit mode into the open-circuit mode as a function of a comparison of the phase current or of a second variable, which is derived from the phase current, with a second reference value. - switching the electric machine into an open-circuit mode by opening all the power switches of the inverter , - detecting a phase current of the electric machine , - switching over the electric machine from the open-circuit mode into a short-circuit mode as a function of a comparison of the phase current or of a first variable, which is derived from the phase current, with a first reference value, wherein in the short-circuit mode the power switches which are assigned to a first potential of the voltage source are closed, and wherein the power switches which are assigned to a second potential of the voltage source are opened, and - switching over the electric machine from the short-circuit mode into the open-circuit mode as a function of a comparison of the phase current or of a second variable, which is derived from the phase current, with a second reference value.
An electronic device comprising: a circuit board ; an array antenna including a plurality of first radiating conductors configured to transmit or receive a wireless signal in a first frequency band, wherein the plurality of first radiating conductors are arranged on the circuit board ; a housing; at least one second radiating conductor disposed on the housing; and a lens unit including at least one lens disposed on the housing to correspond to the first radiating conductors , wherein the at least one second radiating conductor is configured to transmit or receive a wireless signal in a second frequency band that is lower than the first frequency band, wherein a portion of the at least one second radiating conductor is disposed to correspond to the first radiating conductors and forms part of the lens unit, and wherein the lens unit including the portion of the at least one second radiating conductor is configured to refract or reflect a wireless signal transmitted or received through each of the first radiating conductors . a circuit board ; an array antenna including a plurality of first radiating conductors configured to transmit or receive a wireless signal in a first frequency band, wherein the plurality of first radiating conductors are arranged on the circuit board ; a housing; at least one second radiating conductor disposed on the housing; and a lens unit including at least one lens disposed on the housing to correspond to the first radiating conductors , wherein the at least one second radiating conductor is configured to transmit or receive a wireless signal in a second frequency band that is lower than the first frequency band, wherein a portion of the at least one second radiating conductor is disposed to correspond to the first radiating conductors and forms part of the lens unit, and wherein the lens unit including the portion of the at least one second radiating conductor is configured to refract or reflect a wireless signal transmitted or received through each of the first radiating conductors .