mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing one or more organic acids including acetic acid from a rich mono-ethylene glycol, MEG, stream , the method comprising: stripping the one or more organic acids from the rich MEG stream by contacting the rich MEG stream with a gas in a MEG/organic acid stripping column , wherein the rich MEG stream which exits the MEG/organic acid stripping column is stripped of at least 90% of the acetic acid present in the rich MEG stream , wherein the gas exits the MEG/organic acid stripping column containing the one or more organic acids stripped from the rich MEG stream , and wherein the one or more organic acids is a carboxylic acid having a general formula R-C(O)OH, where R is H, CH 3 , CH 3 CH 2 , or CH 3 (CH 2 ) 2 and where the total number of carbon atoms C is no greater than 4. stripping the one or more organic acids from the rich MEG stream by contacting the rich MEG stream with a gas in a MEG/organic acid stripping column , wherein the rich MEG stream which exits the MEG/organic acid stripping column is stripped of at least 90% of the acetic acid present in the rich MEG stream , wherein the gas exits the MEG/organic acid stripping column containing the one or more organic acids stripped from the rich MEG stream , and wherein the one or more organic acids is a carboxylic acid having a general formula R-C(O)OH, where R is H, CH 3 , CH 3 CH 2 , or CH 3 (CH 2 ) 2 and where the total number of carbon atoms C is no greater than 4.
A composite structure comprising: an elastomeric carbon nanomaterial composite sheet comprising: a carrier layer comprising a porous material and a metallic coating applied to said porous material ; a layer of a carbon nanomaterial structure applied to said carrier layer , said carbon nanomaterial structure comprising carbon nanomaterials ; and an elastomer material , wherein said carrier layer and said carbon nanomaterial structure arc impregnated with said elastomer material , wherein the composite structure is configured as a gasket. an elastomeric carbon nanomaterial composite sheet comprising: a carrier layer comprising a porous material and a metallic coating applied to said porous material ; a layer of a carbon nanomaterial structure applied to said carrier layer , said carbon nanomaterial structure comprising carbon nanomaterials ; and an elastomer material , wherein said carrier layer and said carbon nanomaterial structure arc impregnated with said elastomer material , wherein the composite structure is configured as a gasket. a carrier layer comprising a porous material and a metallic coating applied to said porous material ; a layer of a carbon nanomaterial structure applied to said carrier layer , said carbon nanomaterial structure comprising carbon nanomaterials ; and an elastomer material , wherein said carrier layer and said carbon nanomaterial structure arc impregnated with said elastomer material , wherein the composite structure is configured as a gasket.
A method for making a membrane electrode assembly provided with a peripheral seal and a peripheral sealing frame for an electrochemical cell, especially for a fuel cell, comprising the following steps: (A) making of a sandwich arrangement forming the membrane electrode assembly from a membrane and two gas diffusion electrodes (B) connecting of the sandwich arrangement to a seal encircling it on its outer side edge, which at the same time provides the connection to the sealing frame encircling the membrane electrode assembly at the side with a distance (d), wherein step (B) is done by using a pressing operation and wherein the sealing material of the seal bonding the membrane electrode assembly to the sealing frame is arranged in a gap of the sealing frame open to the outer side edge of the membrane electrode assembly prior to performing the pressing operation, such that a portion of the sealing material which is flowable during the pressing operation penetrates laterally into the two gas diffusion electrodes . (A) making of a sandwich arrangement forming the membrane electrode assembly from a membrane and two gas diffusion electrodes (B) connecting of the sandwich arrangement to a seal encircling it on its outer side edge, which at the same time provides the connection to the sealing frame encircling the membrane electrode assembly at the side with a distance (d),
A method for supporting address translations in multiprocessor virtual machine environment comprising: creating a first working set of shadow page table hierarchies for a first processor of a plurality of processors, wherein the first working set of shadow page table hierarchies uses a first hardware translation lookaside buffer in the first processor to store virtual to physical address translations; creating a second working set of shadow page table hierarchies for a second processor of the plurality of processors; keeping a list of modified guest page tables, and for each modified guest page table, an indication of which of the plurality of processors have a hardware translation lookaside buffer containing a writable reference to the modified guest page table; synchronizing each modified guest page table with a corresponding shadow page table in the first working set and the second working set; after flushing the first hardware translation lookaside buffer, updating the list of modified guest page tables to indicate that the first hardware translation lookaside buffer contains no writable references to modified guest page tables. creating a first working set of shadow page table hierarchies for a first processor of a plurality of processors, wherein the first working set of shadow page table hierarchies uses a first hardware translation lookaside buffer in the first processor to store virtual to physical address translations; creating a second working set of shadow page table hierarchies for a second processor of the plurality of processors; keeping a list of modified guest page tables, and for each modified guest page table, an indication of which of the plurality of processors have a hardware translation lookaside buffer containing a writable reference to the modified guest page table; synchronizing each modified guest page table with a corresponding shadow page table in the first working set and the second working set; after flushing the first hardware translation lookaside buffer, updating the list of modified guest page tables to indicate that the first hardware translation lookaside buffer contains no writable references to modified guest page tables.
A manufacturing method of a display substrate, wherein the display substrate comprises a pixel region , the pixel region comprises a plurality of pixel units arranged in an array, and each of the pixel units comprises an active display region and a peripheral region located around the active display region , characterized in that the manufacturing method comprises: forming a plurality of spacers in the peripheral region through an ink-jet printing process, wherein each of the plurality of spacers comprises an adhesive material and nanoparticles doped in the adhesive material , the spacers are doped with a plurality of kinds of nanoparticles , wherein each of the spacers is doped with one kind of nanoparticles different from the kind of nanoparticles of other spacers of the plurality of spacers, and forming the spacers comprises: using a plurality of nozzles to apply the spacers at a plurality of positions in the peripheral region , wherein the spacers applied by each of the nozzles are doped with one kind of nanoparticles , the spacers applied by different ones of the nozzles are doped with different kinds of nanoparticles . forming a plurality of spacers in the peripheral region through an ink-jet printing process, wherein each of the plurality of spacers comprises an adhesive material and nanoparticles doped in the adhesive material , the spacers are doped with a plurality of kinds of nanoparticles , wherein each of the spacers is doped with one kind of nanoparticles different from the kind of nanoparticles of other spacers of the plurality of spacers, and forming the spacers comprises: using a plurality of nozzles to apply the spacers at a plurality of positions in the peripheral region , wherein the spacers applied by each of the nozzles are doped with one kind of nanoparticles , the spacers applied by different ones of the nozzles are doped with different kinds of nanoparticles . using a plurality of nozzles to apply the spacers at a plurality of positions in the peripheral region , wherein the spacers applied by each of the nozzles are doped with one kind of nanoparticles , the spacers applied by different ones of the nozzles are doped with different kinds of nanoparticles .
A method, comprising: transmitting , by a device, a first scheduling request at a first time, the first scheduling request being associated with a first scheduling request configuration; setting , by the device , a timer from the first time prohibiting subsequent scheduling requests for a predetermined duration based on the transmission of the first scheduling request; and identifying , by the device , a trigger for a new scheduling request subsequent to the first scheduling request, characterized in that one logical channel is mapped to a plurality of scheduling request configurations, including the first scheduling request configuration and a second scheduling request configuration. transmitting , by a device, a first scheduling request at a first time, the first scheduling request being associated with a first scheduling request configuration; setting , by the device , a timer from the first time prohibiting subsequent scheduling requests for a predetermined duration based on the transmission of the first scheduling request; and identifying , by the device , a trigger for a new scheduling request subsequent to the first scheduling request, characterized in that one logical channel is mapped to a plurality of scheduling request configurations, including the first scheduling request configuration and a second scheduling request configuration.
A terminal device for use in a wireless telecommunications system , the terminal device comprising: a transmitter configured to transmit a first radio signal to infrastructure equipment of the wireless telecommunications system, the first radio signal being repeatedly transmitted a predetermined number of times during each of a plurality of consecutive time periods, each of the plurality of consecutive time periods being separated by a separation time period; a receiver configured to receive, from the infrastructure equipment and during one of the separation time periods, a second radio signal, the second radio signal comprising an indicator indicating that transmission of the first radio signal to the infrastructure equipment should continue or that transmission of the first radio signal to the infrastructure equipment should be terminated and the second radio signal having a measurable characteristic on the basis of which the terminal device is operable to reduce an offset of a reference radio frequency of the terminal device relative to a transmission radio frequency of the infrastructure equipment; and a controller configured, on the basis of the received second radio signal, to control the transmitter to continue or to terminate transmission of the first radio signal and to reduce an offset of the reference radio frequency of the terminal device relative to the transmission radio frequency of the infrastructure equipment. a transmitter configured to transmit a first radio signal to infrastructure equipment of the wireless telecommunications system, the first radio signal being repeatedly transmitted a predetermined number of times during each of a plurality of consecutive time periods, each of the plurality of consecutive time periods being separated by a separation time period; a receiver configured to receive, from the infrastructure equipment and during one of the separation time periods, a second radio signal, the second radio signal comprising an indicator indicating that transmission of the first radio signal to the infrastructure equipment should continue or that transmission of the first radio signal to the infrastructure equipment should be terminated and the second radio signal having a measurable characteristic on the basis of which the terminal device is operable to reduce an offset of a reference radio frequency of the terminal device relative to a transmission radio frequency of the infrastructure equipment; and a controller configured, on the basis of the received second radio signal, to control the transmitter to continue or to terminate transmission of the first radio signal and to reduce an offset of the reference radio frequency of the terminal device relative to the transmission radio frequency of the infrastructure equipment.
A method performed by a network node of enabling authentication of a user of a client device based on biometric data captured by the client device , comprising: receiving (S106), from the client device , a request to authenticate a user of the client device , the authentication request comprising a user identifier; fetching (S107), from a secure end-user repository , a plurality of candidate sets of enrolled transformed biometric data corresponding to the user identifier received from the client device out of a plurality of sets of enrolled transformed biometric data and a secret feature transform key with which the biometric data was transformed at enrolment of the candidate set of transformed biometric data at the network node ; submitting (S108) the fetched plurality of candidate sets of transformed biometric data and the secret feature transform key over a secure communication channel to the client device , in order to allow comparison of the submitted candidate set of transformed biometric data at the client device with biometric data being captured at the client device and transformed with the secret feature transform key; receiving (S111b), from the client device , digitally signed candidate sets of transformed biometric data for which there is a match; verifying (Sine) the digitally signed candidate sets of transformed biometric data; and if the verification is successful: submitting (S111d) an authentication grant to the client device to allow authentication of the user at the client device . receiving (S106), from the client device , a request to authenticate a user of the client device , the authentication request comprising a user identifier; fetching (S107), from a secure end-user repository , a plurality of candidate sets of enrolled transformed biometric data corresponding to the user identifier received from the client device out of a plurality of sets of enrolled transformed biometric data and a secret feature transform key with which the biometric data was transformed at enrolment of the candidate set of transformed biometric data at the network node ; submitting (S108) the fetched plurality of candidate sets of transformed biometric data and the secret feature transform key over a secure communication channel to the client device , in order to allow comparison of the submitted candidate set of transformed biometric data at the client device with biometric data being captured at the client device and transformed with the secret feature transform key; receiving (S111b), from the client device , digitally signed candidate sets of transformed biometric data for which there is a match; verifying (Sine) the digitally signed candidate sets of transformed biometric data; and if the verification is successful: submitting (S111d) an authentication grant to the client device to allow authentication of the user at the client device .
A method for preparing a thermoplastic prepreg, comprising: laminating a thermoplastic resin film having a crystallization degree in a range of 1 to 20% on at least one surface of a matrix fiber; and heating the laminate to a higher temperature than a melting point of the thermoplastic resin film, then, pressing the same, characterized in that a weight ratio of the matrix fiber : the thermoplastic resin film is adjusted to 40 - 90 wt.% : 10 - 60 wt.%. laminating a thermoplastic resin film having a crystallization degree in a range of 1 to 20% on at least one surface of a matrix fiber; and heating the laminate to a higher temperature than a melting point of the thermoplastic resin film, then, pressing the same, characterized in that a weight ratio of the matrix fiber : the thermoplastic resin film is adjusted to 40 - 90 wt.% : 10 - 60 wt.%.
A lighting device configured to generate lighting device light , wherein the lighting device comprises (i) a first laser light source configured to generate a beam of first laser light source light , (ii) a speckle control element , and (iii) a control system , wherein in one or more control modes of the control system the speckle control element is configured in an optical path of the first laser light source light for providing the lighting device light comprising a speckle distribution of the first laser light source light , wherein at a predetermined distance L from the lighting device the speckle distribution has a first speckle contrast value C1 selected from the range of 3%<C1<100%, wherein the predetermined distance L is selected from the range of 0.5-50 m, and wherein the control system is further configured to dynamically control with the speckle control element the first speckle contrast value C1 in one or more of the one or more control modes, characterised in that the lighting device further comprises an optical sensor configured to sense an area at the predetermined distance (L) from the lighting device illuminated by the lighting device light and to generate a corresponding sensor signal, wherein the control system is configured to control the speckle distribution as a function of the sensor signal, and wherein the control system is configured to estimate a roughness-related parameter of the area on the basis of the sensor signal, and wherein the control system is configured to control the first speckle contrast value C1 as function of the roughness-related parameter. the lighting device further comprises an optical sensor configured to sense an area at the predetermined distance (L) from the lighting device illuminated by the lighting device light and to generate a corresponding sensor signal, wherein the control system is configured to control the speckle distribution as a function of the sensor signal, and wherein the control system is configured to estimate a roughness-related parameter of the area on the basis of the sensor signal, and wherein the control system is configured to control the first speckle contrast value C1 as function of the roughness-related parameter.
An analyte sensor comprising: a sensor tail configured for insertion into a tissue, the sensor tail comprising at least a working electrode ; and first and second active areas disposed on the sensor tail , the first and second active areas comprising at least two different enzymes for measuring a concentration of at least one analyte; wherein the first active area is overcoated, after being disposed on the sensor tail , with a first membrane polymer and a second membrane polymer that differ from one another. a sensor tail configured for insertion into a tissue, the sensor tail comprising at least a working electrode ; and first and second active areas disposed on the sensor tail , the first and second active areas comprising at least two different enzymes for measuring a concentration of at least one analyte; wherein the first active area is overcoated, after being disposed on the sensor tail , with a first membrane polymer and a second membrane polymer that differ from one another.
A connector assembly for a circuit board , comprising: a plurality of female connectors each configured to be individually mounted to a printed circuit board , wherein each female of the female connectors respectively having a predetermined number of pins configured to be connected to the printed circuit board ; and at least one male connector having a plug terminal configured to be coupled with the pins of the plurality of female connectors, wherein the female connectors are configured to be successively assembled with each other along a first direction (+Y), wherein each of the plurality of female connectors has a hooking protrusion protruding in second direction (+X) perpendicular to the first direction bent in a third direction perpendicular to both the first and the second direction, wherein the hooking protrusion is bent on at least one of an upper end and a lower end of a front surface thereof to which the male connector is connected, wherein each of the at least one male connector has a hooking groove provided to be hooked with the hooking protrusion, characterized in that each female connector of the plurality of female connectors has a convex block formed at a first side surface thereof to protrude in the first direction and a concave groove formed at a opposite side surface thereof to be depressed in a shape corresponding to the convex block, and in that adjacent female connectors of the plurality of female connectors are removably connected to each other by sliding in the third direction the convex block of one female connector into the concave groove of an adjacent female connector. a plurality of female connectors each configured to be individually mounted to a printed circuit board , wherein each female of the female connectors respectively having a predetermined number of pins configured to be connected to the printed circuit board ; and at least one male connector having a plug terminal configured to be coupled with the pins of the plurality of female connectors, wherein the female connectors are configured to be successively assembled with each other along a first direction (+Y), wherein each of the plurality of female connectors has a hooking protrusion protruding in second direction (+X) perpendicular to the first direction bent in a third direction perpendicular to both the first and the second direction, wherein the hooking protrusion is bent on at least one of an upper end and a lower end of a front surface thereof to which the male connector is connected, wherein each of the at least one male connector has a hooking groove provided to be hooked with the hooking protrusion, characterized in that each female connector of the plurality of female connectors has a convex block formed at a first side surface thereof to protrude in the first direction and a concave groove formed at a opposite side surface thereof to be depressed in a shape corresponding to the convex block, and in that adjacent female connectors of the plurality of female connectors are removably connected to each other by sliding in the third direction the convex block of one female connector into the concave groove of an adjacent female connector.