mhurhangee/patent-ind-claim-en huggingface dataset:
An inductive position sensor comprising: a substrate having a front exterior face and a back exterior face , the substrate having a longitudinal axis dividing the substrate into two laterally adjacent, non-overlapping first and second substrate sections positioned on opposed sides of a longitudinal axis (L) of the substrate , wherein the first and second substrate sections are located on a same face of the substrate; first and second inductive transmit coil circuits (256, 258; 356, 357) defined and located on the first and second substrate sections respectively; and first and second inductive receiver coil circuits (260, 262; 360, 361) defined and located on the first and second substrate sections respectively whereby each of the first and second inductive receiver circuits are at least partially surrounded by the first and second inductive transmit coil circuits (256, 258; 356, 357) respectively for reducing a coupling factor between the first and second inductive transmit coil circuits (256, 258; 356, 357), wherein the first inductive transmit coil circuit (256; 356) includes a plurality of transmit coil circuit traces (256a; 356a), wherein the plurality of transmit coil circuit traces (256a; 356a) extend in a semi-circular or quarter-circular pattern on the first substrate section . a substrate having a front exterior face and a back exterior face , the substrate having a longitudinal axis dividing the substrate into two laterally adjacent, non-overlapping first and second substrate sections positioned on opposed sides of a longitudinal axis (L) of the substrate , wherein the first and second substrate sections are located on a same face of the substrate; first and second inductive transmit coil circuits (256, 258; 356, 357) defined and located on the first and second substrate sections respectively; and first and second inductive receiver coil circuits (260, 262; 360, 361) defined and located on the first and second substrate sections respectively whereby each of the first and second inductive receiver circuits are at least partially surrounded by the first and second inductive transmit coil circuits (256, 258; 356, 357) respectively for reducing a coupling factor between the first and second inductive transmit coil circuits (256, 258; 356, 357),
A configuration method, comprising: sending , by a first network management device, network slice configuration information to a second network management device, wherein the network slice configuration information comprises information that indicates a network slice supported by an access network RAN, the second network management device having a function of configuring the RAN; and receiving , by the first network management device, a message from the second network management device and that indicates that configuration of the RAN is completed; wherein the first network management device is a network manager NM or a network slice management function NSMF module, and the second network management device is an element manager EM or a network function NF manager; or the first network management device is an NSMF module, the second network management device is a network slice subnet management function NSSMF module, and the EM or the NF manager is integrated into the NSSMF module; or the first network management device is an NSSMF module, and the second network management device is an EM or an NF manager. sending , by a first network management device, network slice configuration information to a second network management device, wherein the network slice configuration information comprises information that indicates a network slice supported by an access network RAN, the second network management device having a function of configuring the RAN; and receiving , by the first network management device, a message from the second network management device and that indicates that configuration of the RAN is completed; wherein the first network management device is a network manager NM or a network slice management function NSMF module, and the second network management device is an element manager EM or a network function NF manager; or the first network management device is an NSMF module, the second network management device is a network slice subnet management function NSSMF module, and the EM or the NF manager is integrated into the NSSMF module; or the first network management device is an NSSMF module, and the second network management device is an EM or an NF manager.
A communication control method used in a cellular communication system , the communication control method comprising: receiving, by a second Integrated Access and Backhaul, IAB, node, configuration information including a first path configuration for configuring a first path and a second path configuration for configuring a second path; performing, by the second IAB node, routing to the first path; receiving, by the second IAB node and from a first IAB node, a failure occurrence notification indicating occurrence of a failure in a backhaul link; and by the second IAB node and in response to reception of the failure occurrence notification, considering the first path as not available and performing routing to the second path. receiving, by a second Integrated Access and Backhaul, IAB, node, configuration information including a first path configuration for configuring a first path and a second path configuration for configuring a second path; performing, by the second IAB node, routing to the first path; receiving, by the second IAB node and from a first IAB node, a failure occurrence notification indicating occurrence of a failure in a backhaul link; and by the second IAB node and in response to reception of the failure occurrence notification, considering the first path as not available and performing routing to the second path.
An intraosseous access device , comprising: a constant-torque spring assembly disposed in a housing ; a drive shaft extending from the housing , the drive shaft coupled to the constant-torque spring assembly ; and an intraosseous needle coupled to the drive shaft configured to provide intraosscous access to a medullary cavity of a patient, wherein the constant-torque spring assembly includes a metal ribbon reversely wound onto an output spool , the metal ribbon configured to wind onto a storage spool with a constant torque when the output spool is released, and wherein spindles of the output spool and the storage spool are coupled together by at least one elastomeric loop to prevent any timing-related errors between the output spool and the storage spool . a constant-torque spring assembly disposed in a housing ; a drive shaft extending from the housing , the drive shaft coupled to the constant-torque spring assembly ; and an intraosseous needle coupled to the drive shaft configured to provide intraosscous access to a medullary cavity of a patient, wherein the constant-torque spring assembly includes a metal ribbon reversely wound onto an output spool , the metal ribbon configured to wind onto a storage spool with a constant torque when the output spool is released, and wherein spindles of the output spool and the storage spool are coupled together by at least one elastomeric loop to prevent any timing-related errors between the output spool and the storage spool .
A method comprising: mixing a date seed powder and a homogenizer with a fluid comprising water to provide a water-based drilling fluid, wherein the homogenizer suspends the date seed powder in the water, and wherein the date seed powder has a size distribution of less than 150 μm; and using the water-based drilling fluid to drill a wellbore. mixing a date seed powder and a homogenizer with a fluid comprising water to provide a water-based drilling fluid, wherein the homogenizer suspends the date seed powder in the water, and wherein the date seed powder has a size distribution of less than 150 μm; and using the water-based drilling fluid to drill a wellbore.
A flux coating device for a solar cell panel, comprising: a flux bath configured to receive flux and having an inlet and an outlet , wherein the inlet and the outlet of the flux bath are configured to pass an interconnector below a surface of the flux , characterized in that a supplying member or a spouting member is formed at a lower portion of the flux bath configured to supply, jet, spray, eject, or spout the flux in an upward direction, and the supplying member is configured to only operate when the interconnector passes. a flux bath configured to receive flux and having an inlet and an outlet , wherein the inlet and the outlet of the flux bath are configured to pass an interconnector below a surface of the flux , characterized in that a supplying member or a spouting member is formed at a lower portion of the flux bath configured to supply, jet, spray, eject, or spout the flux in an upward direction, and the supplying member is configured to only operate when the interconnector passes.
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities, each staple cavity having one of a plurality of surgical staples disposed therein; and wherein at least a portion of the plurality of staples include an effective amount of at least one matrix metalloproteinase (MMP) inhibitor being effective to prevent at least one of MMP-mediated extracellular matrix degeneration and inflammation during wound healing in the tissue in a predetermined manner, characterized in that the at least one MMP inhibitor is disposed on at least a portion of the plurality of staples, wherein the at least one MMP inhibitor comprises a substance that is configured to permit or enhance adhesion of the MMP inhibitor to an outer surface of the staples; and wherein the substance is an absorbable polymer, and wherein the absorbable polymer is porous. a cartridge body having a plurality of staple cavities, each staple cavity having one of a plurality of surgical staples disposed therein; and wherein at least a portion of the plurality of staples include an effective amount of at least one matrix metalloproteinase (MMP) inhibitor being effective to prevent at least one of MMP-mediated extracellular matrix degeneration and inflammation during wound healing in the tissue in a predetermined manner, characterized in that the at least one MMP inhibitor is disposed on at least a portion of the plurality of staples, wherein the at least one MMP inhibitor comprises a substance that is configured to permit or enhance adhesion of the MMP inhibitor to an outer surface of the staples; and wherein the substance is an absorbable polymer, and wherein the absorbable polymer is porous.
A control method of a user terminal device comprising: when a call request message (S115) is received from another terminal device , determining state information of a satellite device connected to the user terminal device ; determining communication configuration information with the other terminal device based on the state information of the satellite device and transmitting a call response message (S125) comprising the communication configuration information to the other terminal device ; and receiving voice data (S130) from the other terminal device using a communication method using a first bandwidth corresponding to the communication configuration, and transmitting voice data (S140) to the other terminal device using a communication method using a second bandwidth corresponding to the communication configuration information, the control method being characterized in that the state information of the satellite device comprises information regarding a bandwidth that is supported by the satellite device , and in that determining communication configuration information comprises determining the second bandwidth to transmit voice data to the other terminal device based on a bandwidth that is supported by the user terminal device and determining the first bandwidth to receive voice data from the other terminal device based on the bandwidth that is supported by the satellite device . when a call request message (S115) is received from another terminal device , determining state information of a satellite device connected to the user terminal device ; determining communication configuration information with the other terminal device based on the state information of the satellite device and transmitting a call response message (S125) comprising the communication configuration information to the other terminal device ; and receiving voice data (S130) from the other terminal device using a communication method using a first bandwidth corresponding to the communication configuration, and transmitting voice data (S140) to the other terminal device using a communication method using a second bandwidth corresponding to the communication configuration information, the control method being characterized in that the state information of the satellite device comprises information regarding a bandwidth that is supported by the satellite device , and in that determining communication configuration information comprises determining the second bandwidth to transmit voice data to the other terminal device based on a bandwidth that is supported by the user terminal device and determining the first bandwidth to receive voice data from the other terminal device based on the bandwidth that is supported by the satellite device .
A method for detecting tampering of a target detection system , the system comprising a control unit in signal communication with a set of present sensors, each sensor of the set of present sensors being a tamper detection sensor associated with a detection member configured to detect a target in a predetermined detection area, said method comprising the steps of: - setting up of an overall sensor coordination logic, said control unit being configured to process, based on said overall logic, tamper detection data from a predetermined set of sensors comprising a plurality of tamper detection sensors, the set of present sensors being a subset of the predetermined set; characterised in that the method further comprises the steps of: - controlling, by the control unit, the operating state of each sensor of the set of the present sensors to define, in the predetermined set, a subset of present and working sensors and a subset of missing and/or non-working sensors; - defining, by the control unit, a reduced sensor coordination logic, excluding the subset of missing and/or non-working sensors from the overall logic; - acquiring a tamper detection data by each sensor of the subset of present and working sensors; - determining a tamper state of the target detection system by processing, by the control unit, the detection data acquired by the subset of present and working sensors based on the reduced logic. - setting up of an overall sensor coordination logic, said control unit being configured to process, based on said overall logic, tamper detection data from a predetermined set of sensors comprising a plurality of tamper detection sensors, the set of present sensors being a subset of the predetermined set; - controlling, by the control unit, the operating state of each sensor of the set of the present sensors to define, in the predetermined set, a subset of present and working sensors and a subset of missing and/or non-working sensors; - defining, by the control unit, a reduced sensor coordination logic, excluding the subset of missing and/or non-working sensors from the overall logic; - acquiring a tamper detection data by each sensor of the subset of present and working sensors; - determining a tamper state of the target detection system by processing, by the control unit, the detection data acquired by the subset of present and working sensors based on the reduced logic.
A medical stent having a first end , a second end , and a central longitudinal axis extending from the first end to the second end, comprising: a plurality of first filaments each extending in a first helical path around the central longitudinal axis in a first direction; and a plurality of second filaments each extending in a second helical path around the central longitudinal axis in a second direction; wherein the plurality of first filaments is interwoven with the plurality of second filaments ; wherein the first helical path of at least one of the plurality of first filaments includes a circumferential offset disposed between the first end and the second end , wherein the at least one of the plurality of first filaments includes an anti-migration loop protruding radially outward from an outer surface of the medical stent at the circumferential offset, wherein the circumferential offset forms the anti-migration loop , at least a portion of the anti-migration loop being oriented substantially perpendicular to the central longitudinal axis , and a portion of the anti-migration loop being angled toward the first end or the second end of the medical stent. a plurality of first filaments each extending in a first helical path around the central longitudinal axis in a first direction; and a plurality of second filaments each extending in a second helical path around the central longitudinal axis in a second direction; wherein the plurality of first filaments is interwoven with the plurality of second filaments ; wherein the first helical path of at least one of the plurality of first filaments includes a circumferential offset disposed between the first end and the second end , wherein the at least one of the plurality of first filaments includes an anti-migration loop protruding radially outward from an outer surface of the medical stent at the circumferential offset, wherein the circumferential offset forms the anti-migration loop , at least a portion of the anti-migration loop being oriented substantially perpendicular to the central longitudinal axis , and a portion of the anti-migration loop being angled toward the first end or the second end of the medical stent.
A stir tool for a food processing appliance , the stir tool comprising: an elongate body having a scraping foot at a distal end for scraping working medium from the inside of a container of the food processing appliance, and an attachment mechanism comprising a connector at a proximal end for removably attaching the stir tool to a drive outlet of the food processing appliance to receive drive; and an adjustment mechanism for varying a distance between the connector and the scraping foot , the stir tool comprising first and second members which are relatively moveable by way of the adjustment mechanism, characterized in that the adjustment mechanism comprises a threaded element associated with the first member and having a first thread, and an adjustment wheel associated with the second member and having a second thread that engages with the first thread such that rotation of the adjustment wheel causes relative axial movement between the first and second member along the threaded element; thereby causing variation of the distance between the scraping foot and the connector, and further comprising a locking element for selectively locking the adjustment mechanism to prevent the variation of the distance between the connector and the scraping foot.
A vehicle tire comprising: a first bead core and a second bead core spaced apart from each other; a first casing layer spanning between the first bead core and the second bead core and wrapped around the first bead core and the second bead core, the first casing layer having first edge sections that overlap with each other at a zenith of the vehicle tire and terminate at first edges on opposing sides of the zenith; a second casing layer spanning between the first bead core and the second bead core and wrapped around the first bead core and the second bead core, the second casing layer having second edge sections that do not overlap with each other and terminate at second edges ; and a tread layer spanning the zenith; characterised in that the first casing layer wraps around and encloses the second casing layer , and each second edge of the second edges is substantially aligned with different ones of the first edges . a first bead core and a second bead core spaced apart from each other; a first casing layer spanning between the first bead core and the second bead core and wrapped around the first bead core and the second bead core, the first casing layer having first edge sections that overlap with each other at a zenith of the vehicle tire and terminate at first edges on opposing sides of the zenith; a second casing layer spanning between the first bead core and the second bead core and wrapped around the first bead core and the second bead core, the second casing layer having second edge sections that do not overlap with each other and terminate at second edges ; and a tread layer spanning the zenith; characterised in that the first casing layer wraps around and encloses the second casing layer , and each second edge of the second edges is substantially aligned with different ones of the first edges .
A cable jacket comprising a random heterophasic polypropylene copolymer, the random heterophasic polypropylene copolymer comprising a matrix (M) being a random propylene copolymer (R-PP) and dispersed therein an elastomeric propylene copolymer (E), wherein the random propylene copolymer (R-PP) comprises a first propylene copolymer fraction (R-PP1) having a comonomer content in the range of 0.8 to 6.0 mol% and a second propylene copolymer fraction (R-PP2) having a comonomer content in the range of 7.2 to 20.0 mol%, based on the overall amount of fractions (R-PP1) and (R-PP2), and wherein said random heterophasic polypropylene copolymer has MFR 2 (230°C) measured according to ISO 1133 in the range of 0.5 to 15 g/10 min, and Charpy impact strength measured according to ISO 179-1/1eA at -20°C in the range of 5 to 20 kJ/m 2 . wherein the random propylene copolymer (R-PP) comprises a first propylene copolymer fraction (R-PP1) having a comonomer content in the range of 0.8 to 6.0 mol% and a second propylene copolymer fraction (R-PP2) having a comonomer content in the range of 7.2 to 20.0 mol%, based on the overall amount of fractions (R-PP1) and (R-PP2), and wherein said random heterophasic polypropylene copolymer has MFR 2 (230°C) measured according to ISO 1133 in the range of 0.5 to 15 g/10 min, and Charpy impact strength measured according to ISO 179-1/1eA at -20°C in the range of 5 to 20 kJ/m 2 .