mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthetic heart valve for replacing a native valve, the prosthetic heart valve comprising: a stent having an inflow end, an outflow end, are an annulus section adjacent the inflow end, an aortic section adjacent the outflow end, a transition section between the annulus section and the aortic section, a collapsed condition and an expanded condition, the stent including a first circumferential row of cells and a second circumferential row of cells positioned closer to the outflow end of the stent than the first circumferential row; a first cuff attached against a surface of the stent, the first cuff having an inflow edge and an outflow edge, the inflow edge being substantially straight, and the outflow edge including a series of first peaks extending a first distance toward the outflow end of the stent alternating with a series of second peaks extending a second distance toward the outflow end of the stent, the second distance being less than the first distance, the outflow edge of the first cuff being smoothly curved between each of the first peaks and each adjacent second peak so that a portion of the first cuff between the first peak and an adjacent second peak partially covers a cell in the second circumferential row; a second cuff having an inflow end and outflow end, the second cuff being located radially outward of the first cuff and radially outward of the stent, the inflow end of the second cuff having a substantially straight edge and the outflow end of the second cuff having an undulating edge; and a valve assembly arranged radially inward of the first cuff. a stent having an inflow end, an outflow end, are an annulus section adjacent the inflow end, an aortic section adjacent the outflow end, a transition section between the annulus section and the aortic section, a collapsed condition and an expanded condition, the stent including a first circumferential row of cells and a second circumferential row of cells positioned closer to the outflow end of the stent than the first circumferential row; a first cuff attached against a surface of the stent, the first cuff having an inflow edge and an outflow edge, the inflow edge being substantially straight, and the outflow edge including a series of first peaks extending a first distance toward the outflow end of the stent alternating with a series of second peaks extending a second distance toward the outflow end of the stent, the second distance being less than the first distance, the outflow edge of the first cuff being smoothly curved between each of the first peaks and each adjacent second peak so that a portion of the first cuff between the first peak and an adjacent second peak partially covers a cell in the second circumferential row; a second cuff having an inflow end and outflow end, the second cuff being located radially outward of the first cuff and radially outward of the stent, the inflow end of the second cuff having a substantially straight edge and the outflow end of the second cuff having an undulating edge; and a valve assembly arranged radially inward of the first cuff.
System-pressure valve for a hydraulic system of a motor-vehicle transmission , the system-pressure valve comprising: - a valve housing , - a piston rod , - a first inlet , - a second inlet , - a first outlet , - a second outlet , - a third outlet , wherein - a primary pump of the hydraulic system can be connected to the first inlet , - a secondary pump of the hydraulic system can be connected to the second inlet , - a primary system-pressure circuit of the hydraulic system can be connected to the first outlet and to the second outlet , and - a secondary system-pressure circuit of the hydraulic system can be connected to the third outlet , wherein the system-pressure valve is configured to adjust the piston rod within the valve housing into a first switching position and into a second switching position, wherein, in the first switching position, the third outlet is connected neither to the first inlet nor to the second inlet , wherein, in the second switching position, the second inlet is connected to the third outlet , characterized in that the system-pressure valve is furthermore configured to adjust the piston rod within the valve housing into a third switching position, wherein, in the third switching position, the third outlet is connected both to the first inlet and to the second inlet . - a valve housing , - a piston rod , - a first inlet , - a second inlet , - a first outlet , - a second outlet , - a third outlet , wherein - a primary pump of the hydraulic system can be connected to the first inlet , - a secondary pump of the hydraulic system can be connected to the second inlet , - a primary system-pressure circuit of the hydraulic system can be connected to the first outlet and to the second outlet , and - a secondary system-pressure circuit of the hydraulic system can be connected to the third outlet , wherein the system-pressure valve is configured to adjust the piston rod within the valve housing into a first switching position and into a second switching position, wherein, in the first switching position, the third outlet is connected neither to the first inlet nor to the second inlet , wherein, in the second switching position, the second inlet is connected to the third outlet , characterized in that the system-pressure valve is furthermore configured to adjust the piston rod within the valve housing into a third switching position, wherein, in the third switching position, the third outlet is connected both to the first inlet and to the second inlet . wherein the system-pressure valve is configured to adjust the piston rod within the valve housing into a first switching position and into a second switching position, wherein, in the first switching position, the third outlet is connected neither to the first inlet nor to the second inlet , wherein, in the second switching position, the second inlet is connected to the third outlet , characterized in that the system-pressure valve is furthermore configured to adjust the piston rod within the valve housing into a third switching position, wherein, in the third switching position, the third outlet is connected both to the first inlet and to the second inlet .
A method of processing optical signals in a passive optical network , the method comprising: receiving a first signal comprising sub-bands signals in a first optical spectrum (A) from a first sub-band multiplexer ; and receiving a second signal comprising sub-bands signals in a second optical spectrum (B) different from the first optical spectrum (A) from a third sub-band multiplexer ; and multiplexing the first and second signals into a first multiplexed signal ; outputting the first multiplexed signal ; receiving a second multiplexed signal ; demultiplexing the second multiplexed signal into a third signal comprising sub-band signals in the second optical spectrum (B) and a fourth signal comprising sub-band signals in the first optical spectrum (A); and outputting the third signal to a third sub-band multiplexer ; and outputting the fourth signal to a fourth sub-band multiplexer ; receiving the sub-band signals of the first signal from a first group of transceivers in communication with the first sub-band multiplexer ; outputting the sub-band signals of the third signal to the first group of transceivers through the second sub-band multiplexer ; receiving the sub-band signals of the second signal from a second group of transceivers in communication with the third sub-band multiplexer ; and outputting the sub-band signals of the fourth signal to the second group of transceivers through the fourth sub-band multiplexer . receiving a first signal comprising sub-bands signals in a first optical spectrum (A) from a first sub-band multiplexer ; and receiving a second signal comprising sub-bands signals in a second optical spectrum (B) different from the first optical spectrum (A) from a third sub-band multiplexer ; and multiplexing the first and second signals into a first multiplexed signal ; outputting the first multiplexed signal ; receiving a second multiplexed signal ; demultiplexing the second multiplexed signal into a third signal comprising sub-band signals in the second optical spectrum (B) and a fourth signal comprising sub-band signals in the first optical spectrum (A); and outputting the third signal to a third sub-band multiplexer ; and outputting the fourth signal to a fourth sub-band multiplexer ; receiving the sub-band signals of the first signal from a first group of transceivers in communication with the first sub-band multiplexer ; outputting the sub-band signals of the third signal to the first group of transceivers through the second sub-band multiplexer ; receiving the sub-band signals of the second signal from a second group of transceivers in communication with the third sub-band multiplexer ; and outputting the sub-band signals of the fourth signal to the second group of transceivers through the fourth sub-band multiplexer .
A sensor assembly for attachment to a ground engaging tool , wherein the sensor assembly comprises an inner case and an outer case , wherein the inner case houses a sensor configured to measure a gap to an adjacent surface, wherein the outer case is provided with a first cavity for receiving the inner case through an opening of the first cavity such that the inner case is movably guided in the outer case for movement into and out of the outer case along a predetermined path of movement , and wherein the sensor assembly comprises a biasing means adapted to bias the inner case out of the outer case along said predetermined path of movement .
A method of resistance spot welding to join a sheet combination by squeezing the sheet combination between a pair of electrodes and passing current while applying electrode force, the sheet combination being a plurality of overlapping steel sheets including at least one galvanized steel sheet or high tensile strength steel sheet with a tensile strength of 780 MPa or more, the galvanized steel sheet having, on a surface thereof, a coated layer with zinc as a main component, the method comprising: starting electric current passage in a state satisfying 0.9 × t ≤ L ≤ 1.1 × t where t is a total thickness of the overlapping steel sheets and L is a distance between tips of the pair of electrodes; and dividing electric current into main current and initial current that precedes the main current and is two-step current, setting a current value I 1 in a first step of the initial current to satisfy I m × 1.1 ≤ I 1 ≤ 15.0 kA with respect to a current value I m during the main current, and setting a current value I 2 in a second step to no current or low current satisfying 0 ≤ I 2 ≤ I m × 0.7 , wherein 10 ms ≤ T 1 ≤ 100 ms 10 ms ≤ T 2 ≤ 100 ms where T 1 is a welding time in the first step of the initial current, and T 2 is a welding time or a non-welding time in the second step following the first step. starting electric current passage in a state satisfying 0.9 × t ≤ L ≤ 1.1 × t where t is a total thickness of the overlapping steel sheets and L is a distance between tips of the pair of electrodes; and dividing electric current into main current and initial current that precedes the main current and is two-step current, setting a current value I 1 in a first step of the initial current to satisfy I m × 1.1 ≤ I 1 ≤ 15.0 kA with respect to a current value I m during the main current, and setting a current value I 2 in a second step to no current or low current satisfying 0 ≤ I 2 ≤ I m × 0.7 , wherein 10 ms ≤ T 1 ≤ 100 ms 10 ms ≤ T 2 ≤ 100 ms where T 1 is a welding time in the first step of the initial current, and T 2 is a welding time or a non-welding time in the second step following the first step.
An implantable medical device, comprising: an electrical circuit; and a hermetic enclosure defining a cavity for retaining the electrical circuit and comprising: a glass lid having an internal surface facing the cavity and an opposing external surface facing away from the cavity and separated from the internal surface by a lid thickness; wherein the glass lid comprises: a glass wafer base layer defining the internal surface; a glass wafer top layer defining the external surface; and a hermetically sealed interface between the glass wafer base layer and the glass wafer top layer along the interface that is embedded within the lid, wherein the glass wafer base layer is fusion bonded to the glass wafer top layer; and an electrically conductive feedthrough extending through the glass lid, the feedthrough comprising: a first feedthrough member having an inner face electrically coupled to the electrical circuit, the first feedthrough member extending from the inner face partially through the lid thickness and to an exteriorly-facing outer face embedded within the lid, and an electrically conductive trace at least partially embedded in the lid between the glass wafer top layer and the glass wafer base layer , extending away from the exteriorly-facing outer face and electrically coupling the exteriorly-facing outer face to an electrical connection point located along the lid external surface. an electrical circuit; and a hermetic enclosure defining a cavity for retaining the electrical circuit and comprising: a glass wafer base layer defining the internal surface; a glass wafer top layer defining the external surface; and a hermetically sealed interface between the glass wafer base layer and the glass wafer top layer along the interface that is embedded within the lid, wherein the glass wafer base layer is fusion bonded to the glass wafer top layer; and an electrically conductive feedthrough extending through the glass lid, the feedthrough comprising: a first feedthrough member having an inner face electrically coupled to the electrical circuit, the first feedthrough member extending from the inner face partially through the lid thickness and to an exteriorly-facing outer face embedded within the lid, and an electrically conductive trace at least partially embedded in the lid between the glass wafer top layer and the glass wafer base layer , extending away from the exteriorly-facing outer face and electrically coupling the exteriorly-facing outer face to an electrical connection point located along the lid external surface. a first feedthrough member having an inner face electrically coupled to the electrical circuit, the first feedthrough member extending from the inner face partially through the lid thickness and to an exteriorly-facing outer face embedded within the lid, and an electrically conductive trace at least partially embedded in the lid between the glass wafer top layer and the glass wafer base layer , extending away from the exteriorly-facing outer face and electrically coupling the exteriorly-facing outer face to an electrical connection point located along the lid external surface.
An article of footwear (12; 12A) comprising: a strobel (10; 10A; 10B; 10C; 10D; 10E; 10F) including: a polymeric bladder (16; 16A; 16B; 16D; 16E; 16F; 16G; 16H; 16I) defining an interior cavity and configured to retain a fluid in the interior cavity , the polymeric bladder (16; 16A; 16B; 16D; 16E; 16F; 16G; 16H; 16I) having a peripheral flange extending around at least a portion of a perimeter of the interior cavity ; and wherein the peripheral flange defines a groove extending along the peripheral flange , an upper , wherein the strobel (10; 10A; 10B; 10C; 10D; 10E; 10F) is secured to the upper by a series of stitches extending through the peripheral flange in the groove . a strobel (10; 10A; 10B; 10C; 10D; 10E; 10F) including: a polymeric bladder (16; 16A; 16B; 16D; 16E; 16F; 16G; 16H; 16I) defining an interior cavity and configured to retain a fluid in the interior cavity , the polymeric bladder (16; 16A; 16B; 16D; 16E; 16F; 16G; 16H; 16I) having a peripheral flange extending around at least a portion of a perimeter of the interior cavity ; and wherein the peripheral flange defines a groove extending along the peripheral flange , a polymeric bladder (16; 16A; 16B; 16D; 16E; 16F; 16G; 16H; 16I) defining an interior cavity and configured to retain a fluid in the interior cavity , the polymeric bladder (16; 16A; 16B; 16D; 16E; 16F; 16G; 16H; 16I) having a peripheral flange extending around at least a portion of a perimeter of the interior cavity ; and wherein the peripheral flange defines a groove extending along the peripheral flange , an upper , wherein the strobel (10; 10A; 10B; 10C; 10D; 10E; 10F) is secured to the upper by a series of stitches extending through the peripheral flange in the groove .
A process of making acrylic acid comprising in process flow order: a) providing a mixed feed gas comprising propylene to a first reaction stage of a single shell open interstage reactor, comprising a plurality of reaction tubes filled with a mixed metal oxide catalyst; b) oxidizing the propylene in the first reaction stage to produce a process gas comprising acrolein; c) cooling the process gas in an interstage heat exchanger, preferably having tubes that are coaxially continuous with the reaction tubes of a reaction stage; d) passing the cooled process gas through an open interstage region comprising no reaction tubes; e) passing the process gas to a second reaction stage of the single shell open interstage reactor, comprising a plurality of reaction tubes filled with a mixed metal oxide catalyst; and f) oxidizing the acrolein in the second reaction stage to produce a product gas comprising acrylic acid. a) providing a mixed feed gas comprising propylene to a first reaction stage of a single shell open interstage reactor, comprising a plurality of reaction tubes filled with a mixed metal oxide catalyst; b) oxidizing the propylene in the first reaction stage to produce a process gas comprising acrolein; c) cooling the process gas in an interstage heat exchanger, preferably having tubes that are coaxially continuous with the reaction tubes of a reaction stage; d) passing the cooled process gas through an open interstage region comprising no reaction tubes; e) passing the process gas to a second reaction stage of the single shell open interstage reactor, comprising a plurality of reaction tubes filled with a mixed metal oxide catalyst; and f) oxidizing the acrolein in the second reaction stage to produce a product gas comprising acrylic acid.
A conical needle , comprising: a hollow needle body , having a distal end , and a proximal end , , the needle body , having a substantially consistent cross-sectional diameter along the entire length of a longitudinal axis , of the needle body , between the proximal end , and the distal end , of the needle body , , the interior of the needle body , defining a fluid pathway , extending along the longitudinal axis , ; a conical portion , located at the distal end , of the needle body , , the conical portion , defining a single, smooth sidewall , , a distal end , , and a proximal end , and forming a sharp tip , located at the distal end , of the conical portion , , the conical portion , integrally formed with the body , ; and an ovular lateral opening , located fully within the sidewall , of the conical portion , , the lateral opening , being in fluid communication with the fluid pathway , , the conical portion , and the lateral opening , define a tip distance (X 1 ), (3X 1 ) and an opening length (L), , the opening length (L), being greater than the tip distance (X 1 ), (3X 1 ). a hollow needle body , having a distal end , and a proximal end , , the needle body , having a substantially consistent cross-sectional diameter along the entire length of a longitudinal axis , of the needle body , between the proximal end , and the distal end , of the needle body , , the interior of the needle body , defining a fluid pathway , extending along the longitudinal axis , ; a conical portion , located at the distal end , of the needle body , , the conical portion , defining a single, smooth sidewall , , a distal end , , and a proximal end , and forming a sharp tip , located at the distal end , of the conical portion , , the conical portion , integrally formed with the body , ; and an ovular lateral opening , located fully within the sidewall , of the conical portion , , the lateral opening , being in fluid communication with the fluid pathway , , the conical portion , and the lateral opening , define a tip distance (X 1 ), (3X 1 ) and an opening length (L), , the opening length (L), being greater than the tip distance (X 1 ), (3X 1 ).
A method by a stand-alone non-public network, SNPN, to which a user equipment, UE, is onboarding in a wireless communication system, the method comprising: receiving, from the UE , a unique identifier of the UE, wherein the unique identifier of the UE takes a form of a network access identifier; selecting a default credential server based on information included in realm part of the unique identifier of the UE; and receiving, from the default credential server , address information of a provisioning server during authentication procedure for the UE. receiving, from the UE , a unique identifier of the UE, wherein the unique identifier of the UE takes a form of a network access identifier; selecting a default credential server based on information included in realm part of the unique identifier of the UE; and receiving, from the default credential server , address information of a provisioning server during authentication procedure for the UE.
A mobile device comprising: first communicating means for communicating with a first and a second base station (5-1, 5-2) using an Evolved Universal Terrestrial Radio Access, E-UTRA, radio technology; second communicating means for communicating with a wireless communications device using at least one other radio technology; means for detecting interference arising with respect to said second base station (5-2) as a result of coexistence of said E-UTRA and other radio technologies within said mobile device ; providing means for providing, to said first base station (5-1) and responsive to detecting said interference arising as a result of said coexistence, a dedicated radio resource control, RRC, in-device-coexistence indication message including information identifying at least one of a Global Navigation Satellite System, GNSS, a wireless local area network, WLAN, and a Bluetooth radio technology to which in-device-coexistence, IDC, interference is caused from the E-UTRA radio technology; and receiving means for receiving from at least one of said first and second base stations (5-1, 5-2), responsive to providing said IDC information, control information for alleviating said interference; wherein said first communicating means is operable to control communication with the first and/or the second base stations (5-1, 5-2), based on said control information, whereby to alleviate the detected interference. first communicating means for communicating with a first and a second base station (5-1, 5-2) using an Evolved Universal Terrestrial Radio Access, E-UTRA, radio technology; second communicating means for communicating with a wireless communications device using at least one other radio technology; means for detecting interference arising with respect to said second base station (5-2) as a result of coexistence of said E-UTRA and other radio technologies within said mobile device ; providing means for providing, to said first base station (5-1) and responsive to detecting said interference arising as a result of said coexistence, a dedicated radio resource control, RRC, in-device-coexistence indication message including information identifying at least one of a Global Navigation Satellite System, GNSS, a wireless local area network, WLAN, and a Bluetooth radio technology to which in-device-coexistence, IDC, interference is caused from the E-UTRA radio technology; and receiving means for receiving from at least one of said first and second base stations (5-1, 5-2), responsive to providing said IDC information, control information for alleviating said interference; wherein said first communicating means is operable to control communication with the first and/or the second base stations (5-1, 5-2), based on said control information, whereby to alleviate the detected interference.