mhurhangee/patent-ind-claim-en huggingface dataset:
Fixing device for fixing a fitting part to a frame of a building closure device comprising a groove , having a first back-engaging element and a second back-engaging element , which can be inserted separately from one another into the groove and, when arranged together, are held form-fittingly in the groove by engaging behind opposite groove edges delimiting the groove , for which purpose the back-engaging elements have back-engaging webs which extend parallel to one another and to a longitudinal central axis of the fixing device and which extend continuously parallel to an imaginary longitudinal central plane including the longitudinal central axis , wherein the first back-engaging element comprises a first inclined surface and the second back-engaging element comprises a second inclined surface for at least partial abutment against the first inclined surface , wherein the two inclined surfaces are angled relative to an imaginary normal plane perpendicular to the longitudinal central plane , and wherein the two back-engaging elements are designed in such a way that when the back-engaging elements are displaced towards one another along the longitudinal central axis , the back-engaging elements are pushed apart transversely to the longitudinal central axis , characterised in that a base body of the first back-engaging element has two fastening projections which are spaced apart from a recess formed in the base body and on which a base plate of the fixing device abuts and is fixed.
A Si-containing film forming composition comprising a Si-N containing precursor having the formula: R 1 R 2 N-SiHR 3 -(CH 2 ) n -SiH 2 R 4 wherein: a) R 1 is R, R 2 is C(Me)=NR, R 3 and R 4 are H, and each R is independently H, a C 1 to C 6 alkyl group or a C 3 -C 20 aryl, heterocycle or cycloalkyl group, n = 1 or 2 ; or b) R 1 is R, R 2 is C(Me)=NR, R 3 is H, R 4 is N(R)C(Me)=NR, and each R is independently H, a C 1 to C 6 alkyl group or a C 3 -C 20 aryl, heterocycle or cycloalkyl group, n = 1 or 2. a) R 1 is R, R 2 is C(Me)=NR, R 3 and R 4 are H, and each R is independently H, a C 1 to C 6 alkyl group or a C 3 -C 20 aryl, heterocycle or cycloalkyl group, n = 1 or 2 ; or b) R 1 is R, R 2 is C(Me)=NR, R 3 is H, R 4 is N(R)C(Me)=NR, and each R is independently H, a C 1 to C 6 alkyl group or a C 3 -C 20 aryl, heterocycle or cycloalkyl group, n = 1 or 2.
A method for enabling continuation of ongoing positioning measurements for a User Equipment, UE, at handover from a source base station to a separate target base station , the method characterised by the steps of: - a positioning network node determining (41; 501; 501-1) that the UE is subject to handover during the ongoing positioning measurements associated with the UE and the source base station ; - the positioning network node delaying (501-2) removing of a measurement context and expecting to receive a report from the target base station; and - the positioning network node receiving, from the UE or the target base station, (42; 502) a report comprising a measurement context associated with the ongoing positioning measurements and measurement data resulting from continuation of the ongoing positioning measurements after the handover. - a positioning network node determining (41; 501; 501-1) that the UE is subject to handover during the ongoing positioning measurements associated with the UE and the source base station ; - the positioning network node delaying (501-2) removing of a measurement context and expecting to receive a report from the target base station; and - the positioning network node receiving, from the UE or the target base station, (42; 502) a report comprising a measurement context associated with the ongoing positioning measurements and measurement data resulting from continuation of the ongoing positioning measurements after the handover.
A Radio Frequency Identification, RFID, tag arrangement readable by an RFID tag reader for actuating a downhole tool located in a wellbore, the RFID tag arrangement comprising: a passive RFID tag encoded with a first payload and having a first coil and a first electrical power source, wherein the RFID tag arrangement is characterized by the passive RFID tag being deliverable downhole in the wellbore; and by further comprising a non-metallic housing having disposed therein the passive RFID tag , a second electrical power source , a pulsed oscillator circuit , and an energizer coil , wherein the second electrical power source powers the pulsed oscillator circuit to drive the energizer coil , wherein the driven energizer coil transmits a first stimulation signal to stimulate the passive RFID tag ; and, wherein the first stimulation signal received by the first coil charges the first electrical power source of the passive RFID tag to thereby activate the passive RFID tag such that the passive RFID tag transmits the first payload in a transmission signal to be read external to the non-metallic housing of the RFID tag arrangement. a passive RFID tag encoded with a first payload and having a first coil and a first electrical power source, wherein the RFID tag arrangement is characterized by the passive RFID tag being deliverable downhole in the wellbore; and by further comprising a non-metallic housing having disposed therein the passive RFID tag , a second electrical power source , a pulsed oscillator circuit , and an energizer coil , wherein the second electrical power source powers the pulsed oscillator circuit to drive the energizer coil , wherein the driven energizer coil transmits a first stimulation signal to stimulate the passive RFID tag ; and, wherein the first stimulation signal received by the first coil charges the first electrical power source of the passive RFID tag to thereby activate the passive RFID tag such that the passive RFID tag transmits the first payload in a transmission signal to be read external to the non-metallic housing of the RFID tag arrangement.
A transfer sheet comprising a transfer layer on a release sheet , wherein the release sheet comprises: a substrate ; an uneven layer provided on a portion of one surface of the substrate and containing a matting agent and a binder resin comprising a thermoplastic resin, wherein the uneven layer contains the matting agent in an amount of 50 parts by mass or more and 180 parts by mass or less based on 100 parts by mass of the binder resin, and wherein the proportion of the thermoplastic resin in the binder resin is 95% or more; and a release layer provided on the uneven layer and on a portion of the substrate where the uneven layer is not formed. a substrate ; an uneven layer provided on a portion of one surface of the substrate and containing a matting agent and a binder resin comprising a thermoplastic resin, wherein the uneven layer contains the matting agent in an amount of 50 parts by mass or more and 180 parts by mass or less based on 100 parts by mass of the binder resin, and wherein the proportion of the thermoplastic resin in the binder resin is 95% or more; and a release layer provided on the uneven layer and on a portion of the substrate where the uneven layer is not formed.
An aerosol generating system comprising a conically shaped heating element configured to generate an aerosol by evaporating a vaporizable material on a slanted surface , and a vaporizable material capsule configured to contain a vaporizable material , whereby the vaporizable material capsule comprises a conically shaped contacting element having a slanted surface configured to mate with the conically shaped heating element in use, wherein an interfacing layer is arranged in a gap between the slanted surfaces of both the heating element and contacting element, and the interfacing layer contacting the slanted surfaces of both the heating element and contacting element, the interfacing layer comprising a porous material configured to wick vaporizable material from the slanted surface of the contacting element to the slanted surface of the heating element , and wherein an airflow management system is arranged in the vicinity of the interfacing layer , including fresh air grooves and airflow channel grooves in the walls of the conically shaped contacting element and/or in the slanted surface of the conically shaped heating element , and configured respectively to conduct fresh air or the aerosol. a conically shaped heating element configured to generate an aerosol by evaporating a vaporizable material on a slanted surface , and a vaporizable material capsule configured to contain a vaporizable material , whereby the vaporizable material capsule comprises a conically shaped contacting element having a slanted surface configured to mate with the conically shaped heating element in use, wherein an interfacing layer is arranged in a gap between the slanted surfaces of both the heating element and contacting element, and the interfacing layer contacting the slanted surfaces of both the heating element and contacting element, the interfacing layer comprising a porous material configured to wick vaporizable material from the slanted surface of the contacting element to the slanted surface of the heating element , and wherein an airflow management system is arranged in the vicinity of the interfacing layer , including fresh air grooves and airflow channel grooves in the walls of the conically shaped contacting element and/or in the slanted surface of the conically shaped heating element , and configured respectively to conduct fresh air or the aerosol.
An exhalation measurement device comprising: a chamber to retain exhalation; a reference gas generator to generate a reference gas; and a measurement device to measure concentrations, respectively, of exhalation being retained in the chamber and a specific gas within the reference gas, the reference gas generator including: a case having an intake port and an exhaust port , and an aeration path connecting the intake port and the exhaust port ; a first filter having a first aperture and a second aperture respectively on the intake port side and the exhaust port side in the aeration path within the case , the first filter being disposed in the aeration path and includes an adsorbent to adsorb the specific gas; and characterized by a supply tube having a third aperture and a fourth aperture , the fourth aperture being connected to the intake port of the case , wherein a distance from the third aperture of the supply tube to the first aperture of the first filter is longer than a distance between the first aperture and the second aperture of the first filter . a chamber to retain exhalation; a reference gas generator to generate a reference gas; and a measurement device to measure concentrations, respectively, of exhalation being retained in the chamber and a specific gas within the reference gas, the reference gas generator including: a case having an intake port and an exhaust port , and an aeration path connecting the intake port and the exhaust port ; a first filter having a first aperture and a second aperture respectively on the intake port side and the exhaust port side in the aeration path within the case , the first filter being disposed in the aeration path and includes an adsorbent to adsorb the specific gas; and characterized by a supply tube having a third aperture and a fourth aperture , the fourth aperture being connected to the intake port of the case , wherein a distance from the third aperture of the supply tube to the first aperture of the first filter is longer than a distance between the first aperture and the second aperture of the first filter . a case having an intake port and an exhaust port , and an aeration path connecting the intake port and the exhaust port ; a first filter having a first aperture and a second aperture respectively on the intake port side and the exhaust port side in the aeration path within the case , the first filter being disposed in the aeration path and includes an adsorbent to adsorb the specific gas; and characterized by a supply tube having a third aperture and a fourth aperture , the fourth aperture being connected to the intake port of the case , wherein a distance from the third aperture of the supply tube to the first aperture of the first filter is longer than a distance between the first aperture and the second aperture of the first filter .
A method for sending uplink scheduling information in a time division duplexing, TDD, system, comprising: determining , by a base station employing multi-carrier aggregation, in uplink subframes on a second carrier, an uplink subframe, wherein at time corresponding to a downlink subframe on the second carrier for scheduling the determined uplink subframe during non-cross-carrier scheduling, a subframe on a first carrier is an uplink subframe; and sending , by the base station, on another downlink subframe on the first carrier, uplink scheduling information corresponding to the determined uplink subframe on the second carrier to a terminal, wherein time corresponding to the another downlink subframe on the first carrier is before time corresponding to the determined uplink subframe, and at least a certain number of subframes are spaced between the another downlink subframe and the determined uplink subframe, wherein the certain number is the number of subframes which need to be spaced from sending, by the base station, the uplink scheduling information to a corresponding physical uplink shared channel, PUSCH, is sent by the terminal. determining , by a base station employing multi-carrier aggregation, in uplink subframes on a second carrier, an uplink subframe, wherein at time corresponding to a downlink subframe on the second carrier for scheduling the determined uplink subframe during non-cross-carrier scheduling, a subframe on a first carrier is an uplink subframe; and sending , by the base station, on another downlink subframe on the first carrier, uplink scheduling information corresponding to the determined uplink subframe on the second carrier to a terminal, wherein time corresponding to the another downlink subframe on the first carrier is before time corresponding to the determined uplink subframe, and at least a certain number of subframes are spaced between the another downlink subframe and the determined uplink subframe, wherein the certain number is the number of subframes which need to be spaced from sending, by the base station, the uplink scheduling information to a corresponding physical uplink shared channel, PUSCH, is sent by the terminal.
A compounding device for mixing materials from at least two distinct material sources , comprising: a housing ; a first fluid line operationally connected to the housing and configured to transport a first volume of fluid per unit time to a final container ; a second fluid line operationally connected to the housing and configured to transport a second volume of fluid per unit time to the final container , wherein the first volume of fluid per unit time is different from the second volume of fluid per unit time; a manifold connected to the first fluid line and second fluid line and configured to be selectively connectable to the housing ; and a pump system including, a first pump configured to move the first volume of fluid through the first fluid line , and a second pump configured to move the second volume of fluid through the second fluid line , characterized in that the manifold is connected to the first fluid line at a location along the first fluid line between at least one of the two distinct material sources and the first pump. a housing ; a first fluid line operationally connected to the housing and configured to transport a first volume of fluid per unit time to a final container ; a second fluid line operationally connected to the housing and configured to transport a second volume of fluid per unit time to the final container , wherein the first volume of fluid per unit time is different from the second volume of fluid per unit time; a manifold connected to the first fluid line and second fluid line and configured to be selectively connectable to the housing ; and a pump system including, a first pump configured to move the first volume of fluid through the first fluid line , and a second pump configured to move the second volume of fluid through the second fluid line , characterized in that a first pump configured to move the first volume of fluid through the first fluid line , and a second pump configured to move the second volume of fluid through the second fluid line , characterized in that the manifold is connected to the first fluid line at a location along the first fluid line between at least one of the two distinct material sources and the first pump.
A method for operating a device for air conditioning an interior of a rail vehicle , wherein the device has a duct for guiding an air flow in a flow direction, the duct has an inlet and an outlet for delivering the air flow into the interior , a filter device , a heat exchange apparatus , a fan , and a measuring device for determining a mass flow or a volume flow, and the measuring device is arranged in the duct downstream in the flow direction of the heat exchange apparatus , the fan and the filter device , and wherein the method has the steps: a. specifying a nominal volume flow or mass flow for the air flow; b. determining an actual volume flow or mass flow of the air flow by means of the measuring device ; and c. setting a conveying rate of the fan using a control unit so that the volume flow or mass flow matches the nominal volume flow or mass flow of the air flow. a. specifying a nominal volume flow or mass flow for the air flow; b. determining an actual volume flow or mass flow of the air flow by means of the measuring device ; and c. setting a conveying rate of the fan using a control unit so that the volume flow or mass flow matches the nominal volume flow or mass flow of the air flow.
A container treatment line (1a-1d) comprising a cleaning machine for cleaning containers , a container treatment system located downstream of the cleaning machine , which comprises at least one container treatment machine , and a conveying device for conveying the containers to the cleaning machine , wherein the cleaning machine comprises: - a container inlet having several lanes and a container outlet , - an inner transport device for transporting the containers from the container inlet to the container outlet , which includes several carrier units arranged one behind the other in the transport direction of the transport device , each having a plurality of container receptacles arranged transversely to the transport direction for holding the containers during transport thereof from the container inlet to the container outlet , and - a loading device for loading at least some of the container receptacles with the containers , and wherein the container treatment line (1a-1d) comprises a control unit , the control unit being designed to process data concerning the container throughput of the container treatment system and/or concerning the container throughput of the at least one container treatment machine , characterised in that the control unit is designed to control the loading device in such a way that, for a period of operation, one of the carrier units and/or a plurality of the carrier units is either loaded with containers by means of the loading device or is left empty, as a function of the container throughput of the container treatment system and/or of the container throughput of the at least one container treatment machine . - a container inlet having several lanes and a container outlet , - an inner transport device for transporting the containers from the container inlet to the container outlet , which includes several carrier units arranged one behind the other in the transport direction of the transport device , each having a plurality of container receptacles arranged transversely to the transport direction for holding the containers during transport thereof from the container inlet to the container outlet , and - a loading device for loading at least some of the container receptacles with the containers , and wherein the container treatment line (1a-1d) comprises a control unit , the control unit being designed to process data concerning the container throughput of the container treatment system and/or concerning the container throughput of the at least one container treatment machine , characterised in that the control unit is designed to control the loading device in such a way that, for a period of operation, one of the carrier units and/or a plurality of the carrier units is either loaded with containers by means of the loading device or is left empty, as a function of the container throughput of the container treatment system and/or of the container throughput of the at least one container treatment machine .
An indicia reading system comprising: a mobile communication terminal comprising a first housing and at least one wired communication interface including a first electromechanical connector mechanically attached to the first housing; a scanning module comprising a second housing; characterized in that the system further comprises a third housing configured to at least partially receive the mobile communication terminal and the scanning module, wherein the third housing mechanically connects the scanning module's second housing to a rear panel of the mobile communication terminal's first housing ; wherein the scanning module is configured to be communicatively coupled to the mobile communication terminal via an electromechanical interface ; wherein the electromechanical interface comprises a first plurality of wires electrically coupling a second electromechanical connector to a third electromechanical connector; wherein the second electromechanical connector is configured to be electromechanically coupled to the first electromechanical connector; and wherein the electromechanical interface comprises a second plurality of wires electrically coupling the scanning module to the first plurality of wires. a mobile communication terminal comprising a first housing and at least one wired communication interface including a first electromechanical connector mechanically attached to the first housing; a scanning module comprising a second housing; characterized in that the system further comprises a third housing configured to at least partially receive the mobile communication terminal and the scanning module, wherein the third housing mechanically connects the scanning module's second housing to a rear panel of the mobile communication terminal's first housing ; wherein the scanning module is configured to be communicatively coupled to the mobile communication terminal via an electromechanical interface ; wherein the electromechanical interface comprises a first plurality of wires electrically coupling a second electromechanical connector to a third electromechanical connector; wherein the second electromechanical connector is configured to be electromechanically coupled to the first electromechanical connector; and wherein the electromechanical interface comprises a second plurality of wires electrically coupling the scanning module to the first plurality of wires.