mhurhangee/ep-ind-claims huggingface dataset:
A system for retrieving vascular debris in a vasculature comprising: at least three segments (52, 56, 134a, 134b) expandable from a collapsed state to an expanded state, each of the at least three segments (52, 56, 134a, 134b) having (a) a waist (66, 76, 136) comprising a radially largest region of the segment and (b) two longitudinal ends; at least two intermediate portions (134a, 134b), each of the at least two intermediate portions (134a, 134b) comprising a pivot that connects adjacent segments (52, 56), each pivot having a diameter less than a diameter of the waist (66, 76, 136); a sheath configured to encase the at least three segments (52, 56, 134a, 134b) in the collapsed state; and a tether attached to a proximal most of the at least three segments and configured to position the at least three segments (52, 56, 134a, 134b) relative to the sheath; wherein each of the at least three segments (52, 56, 134a, 134b) comprises at least two struts (56, 138, 139, 68) that extend from a proximal end to a distal end of the segment; and each of the at least two struts (56, 138, 139, 68) extends from a proximal end of the segment and divides into at least two sub-struts (58c, 82) at the waist (66, 76, 136), with each of the two sub-struts (58c, 82) connecting to a circumferentially adjacent strut extending from the distal end of the segment. at least three segments (52, 56, 134a, 134b) expandable from a collapsed state to an expanded state, each of the at least three segments (52, 56, 134a, 134b) having (a) a waist (66, 76, 136) comprising a radially largest region of the segment and (b) two longitudinal ends; at least two intermediate portions (134a, 134b), each of the at least two intermediate portions (134a, 134b) comprising a pivot that connects adjacent segments (52, 56), each pivot having a diameter less than a diameter of the waist (66, 76, 136); a sheath configured to encase the at least three segments (52, 56, 134a, 134b) in the collapsed state; and a tether attached to a proximal most of the at least three segments and configured to position the at least three segments (52, 56, 134a, 134b) relative to the sheath; wherein each of the at least three segments (52, 56, 134a, 134b) comprises at least two struts (56, 138, 139, 68) that extend from a proximal end to a distal end of the segment; and each of the at least two struts (56, 138, 139, 68) extends from a proximal end of the segment and divides into at least two sub-struts (58c, 82) at the waist (66, 76, 136), with each of the two sub-struts (58c, 82) connecting to a circumferentially adjacent strut extending from the distal end of the segment.
A method, at a computing device, comprising: obtaining a plurality of timing advance parameters determined based, at least in part, on signals transmitted from a mobile device to a plurality of base stations on uplink channels to the plurality of base stations; selecting a timing advance parameter from among the plurality of timing advance parameters based on signals transmitted to a selected base station of the plurality of base stations, wherein the selected base station serves a cell other than a primary cell; and determining a locus of an estimated location of the mobile device based, at least in part, on a location of the selected base station and the selected timing advance parameter, characterized in that the selecting the timing advance parameter from among the plurality of timing advance parameters further comprises: a) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an expected frequency at which the selected timing advance parameter is updated, or b) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an absence of a grant of transmission resources on an uplink channel to a base station of the primary cell. obtaining a plurality of timing advance parameters determined based, at least in part, on signals transmitted from a mobile device to a plurality of base stations on uplink channels to the plurality of base stations; selecting a timing advance parameter from among the plurality of timing advance parameters based on signals transmitted to a selected base station of the plurality of base stations, wherein the selected base station serves a cell other than a primary cell; and determining a locus of an estimated location of the mobile device based, at least in part, on a location of the selected base station and the selected timing advance parameter, characterized in that the selecting the timing advance parameter from among the plurality of timing advance parameters further comprises: a) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an expected frequency at which the selected timing advance parameter is updated, or b) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an absence of a grant of transmission resources on an uplink channel to a base station of the primary cell. a) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an expected frequency at which the selected timing advance parameter is updated, or b) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an absence of a grant of transmission resources on an uplink channel to a base station of the primary cell.
Diagnostic apparatus for a sand metering device for a sanding system for a rail vehicle, wherein the diagnostic apparatus comprises the following features: a detection device, which is configured to detect at least one parameter of the sand metering device of the sanding system and to provide a detection signal representing the parameter, and an evaluation device, which is configured to output a metering error signal using the detection signal, which metering error signal indicates a malfunction of the sand metering device when the parameter differs from a target parameter, characterized in that the detection device is configured to identify as the parameter a position of a reciprocating piston of a sand metering device of the sanding system and to provide as the detection signal a position signal representing the position, wherein the evaluation device is configured to output a sand metering error signal using the position signal as the metering error signal, which sand metering error signal indicates a malfunction of the sand metering device if the position deviates from a target position. a detection device, which is configured to detect at least one parameter of the sand metering device of the sanding system and to provide a detection signal representing the parameter, and an evaluation device, which is configured to output a metering error signal using the detection signal, which metering error signal indicates a malfunction of the sand metering device when the parameter differs from a target parameter, characterized in that the detection device is configured to identify as the parameter a position of a reciprocating piston of a sand metering device of the sanding system and to provide as the detection signal a position signal representing the position, wherein the evaluation device is configured to output a sand metering error signal using the position signal as the metering error signal, which sand metering error signal indicates a malfunction of the sand metering device if the position deviates from a target position.
A cosmetic skin care product, comprising: a. an applicator comprising a first uni-directional magnetic array, wherein the first magnetic array has a pitch of between 1.7 mm and 2.5 mm and a magnetic field strength of between 24.0 and 36.0 mT; and b. a skin care composition comprising palmitoyl-lysine-threonine-threonine-lysine-serine peptide (Pal-KTTKS) and a dermatologically acceptable carrier. a. an applicator comprising a first uni-directional magnetic array, wherein the first magnetic array has a pitch of between 1.7 mm and 2.5 mm and a magnetic field strength of between 24.0 and 36.0 mT; and b. a skin care composition comprising palmitoyl-lysine-threonine-threonine-lysine-serine peptide (Pal-KTTKS) and a dermatologically acceptable carrier.
A water-proof connector comprising: a connector housing (10, 50) in which a plurality of cavities are formed for accommodating contacts; and a wire seal that has a plurality of contact insertion holes formed at positions corresponding to the cavities and provides sealing by the inner peripheries of the contact insertion holes coming into intimate contact with electrical wires connected to the contacts when the contacts are inserted into the cavities through the contact insertion holes, wherein the connector housing comprises: an outer housing having a recess; and an inner housing to be fitted into the recess with the wire seal interposed between the outer housing and the inner housing, a plurality of boss pins for positioning the wire seal with respect to the outer housing are formed in a region of the outer housing in which electrical wire insertion holes are formed, a plurality of pin insertion holes into which the boss pins are inserted are formed in the wire seal, and the boss pins are tapered from a tip end part toward a base end part so as to have at least a surface facing toward an outer periphery of the wire seal inclined from the inner side of the wire seal toward the outer side, characterized in that the plurality of boss pins are disposed along an outer peripheral part of said region of the outer housing; and of the plurality of boss pins, the boss pins disposed along the outer peripheral part of said region of the outer housing along a shorter side of the outer housing are longer than the other boss pins.
A protector with a sensor comprising: an installation base member operatively coupled on a peripheral edge of an opening/closing panel which moves between at least two positions to open and close an opening of an automobile body or on a peripheral edge of said opening of the automobile body, the opening/closing panel including a door and a sun roof of an automobile; and a hollow part unified with the installation base member, the hollow part having two core wires and a space provided therein, the space being positioned between the two core wires; said installation base member and said hollow part forming an extrusion molded part made of a rubber like elastic body which is extrusion molded, in which: when an object is disposed between said opening/closing panel and said opening and makes contact with said hollow part when said opening/closing panel is moved towards a closed position, a corresponding change in electric signal detects said object; and in a terminal part of said extrusion molded part, said core wires drawn out in a longitudinal direction are connected with two leads, said two leads being joined with a control unit or an electrical component, and a side of one end of an insert made of a non-conductive material is inserted in and fills up said space, and said terminal part of said extrusion molded part is die molded, characterized in that the terminal part of said extrusion molded part which is extrusion molded has a primary sealing layer and a secondary sealing layer formed thereon by means of injection molding respectively, said primary sealing layer covering wire connection parts of said core wires and said leads and a side of another end of said insert while also covering a ground part on a surface of said hollow part of the terminal part of said extrusion molded part, and said secondary sealing layer being piled on and covering the primary sealing layer, and said secondary sealing layer forming an external shape of a product. when an object is disposed between said opening/closing panel and said opening and makes contact with said hollow part when said opening/closing panel is moved towards a closed position, a corresponding change in electric signal detects said object; and in a terminal part of said extrusion molded part, said core wires drawn out in a longitudinal direction are connected with two leads, said two leads being joined with a control unit or an electrical component, and a side of one end of an insert made of a non-conductive material is inserted in and fills up said space, and said terminal part of said extrusion molded part is die molded, characterized in that
A laminated piezoelectric element comprising a laminated structure in which piezoelectric layers and internal electrode layers are alternately laminated to each other, characterized in that regions of the piezoelectric layers in the vicinity of end portions of the internal electrode layers each contain metal phases, and wherein the metal phases are dispersively present in each of the regions of the piezoelectric layers in the vicinities of the end portions of the internal electrode layers.
A method for wireless communication by a user equipment, UE, comprising: receiving, in a first slot of a plurality of aggregated slots, a first indication in downlink control information, DCI, that triggers a set of zero power, ZP, channel state information reference signal, CSI-RS, resources from multiple sets of ZP CSI-RS resources; determining, based at least in part on the first indication received in the first slot of the plurality of aggregated slots, a rate matching behavior for processing a physical downlink shared channel, PDSCH transmission received in the first slot and at least a second slot, subsequent to the first slot, of the plurality of aggregated slots, wherein determining the rate matching behavior comprises determining that the triggered set of ZP CSI-RS resources is associated with each slot of the plurality of aggregated slots, including the first slot and the second slot; and processing the PDSCH transmission received in the first slot and at least the second slot in accordance with the rate matching behavior. receiving, in a first slot of a plurality of aggregated slots, a first indication in downlink control information, DCI, that triggers a set of zero power, ZP, channel state information reference signal, CSI-RS, resources from multiple sets of ZP CSI-RS resources; determining, based at least in part on the first indication received in the first slot of the plurality of aggregated slots, a rate matching behavior for processing a physical downlink shared channel, PDSCH transmission received in the first slot and at least a second slot, subsequent to the first slot, of the plurality of aggregated slots, wherein determining the rate matching behavior comprises determining that the triggered set of ZP CSI-RS resources is associated with each slot of the plurality of aggregated slots, including the first slot and the second slot; and processing the PDSCH transmission received in the first slot and at least the second slot in accordance with the rate matching behavior.
A plant growing system (1, 11), comprising: a first light source for irradiating red light to a plant; a second light source for irradiating far-red light to the plant; a control part that controls irradiating operations of the first light source and the second light source; and a time setting part that sets a time zone in which the control part operates the first light source and the second light source, characterized in that the time setting part is designed such that the first light source starts red light irradiation before sunset and the second light source starts far-red light irradiation after the red light irradiation. a first light source for irradiating red light to a plant; a second light source for irradiating far-red light to the plant; a control part that controls irradiating operations of the first light source and the second light source; and a time setting part that sets a time zone in which the control part operates the first light source and the second light source,
A method for managing occurrences of non-physical attributes during simulation of a hydrocarbon production system, comprising: collecting production system data; and causing one or more processors to: perform a simulation based on the collected data, a fluid model, and a fully-coupled set of equations; expedite convergence of a solution for the simulation by reducing occurrences of non-physical attributes during the simulation; and output control parameters determined for the solution for use with the production system, wherein reducing occurrence of non-physical attributes during the simulation comprises calculating a component mobility during iteration n+1 as: mo b i n + 1 = mo b i n + d p n + 1 dmo b i n dp + ∑ j = 1 nc d m j n + 1 dmo b i n d m j, where mo b i n is a mobility value for iteration n and component i, d p n + 1 dmo b i n dp is the linear change in mobility of component i caused by the change in pressure for iteration n +1, and ∑ j = 1 nc d m j n + 1 dmo b i n d m j is the sum of linear change in mobility of component i caused by the change in mass of each component for iteration n +1. collecting production system data; and causing one or more processors to: perform a simulation based on the collected data, a fluid model, and a fully-coupled set of equations; expedite convergence of a solution for the simulation by reducing occurrences of non-physical attributes during the simulation; and output control parameters determined for the solution for use with the production system, wherein reducing occurrence of non-physical attributes during the simulation comprises calculating a component mobility during iteration n+1 as: mo b i n + 1 = mo b i n + d p n + 1 dmo b i n dp + ∑ j = 1 nc d m j n + 1 dmo b i n d m j, where mo b i n is a mobility value for iteration n and component i, d p n + 1 dmo b i n dp is the linear change in mobility of component i caused by the change in pressure for iteration n +1, and ∑ j = 1 nc d m j n + 1 dmo b i n d m j is the sum of linear change in mobility of component i caused by the change in mass of each component for iteration n +1. perform a simulation based on the collected data, a fluid model, and a fully-coupled set of equations; expedite convergence of a solution for the simulation by reducing occurrences of non-physical attributes during the simulation; and output control parameters determined for the solution for use with the production system, wherein reducing occurrence of non-physical attributes during the simulation comprises calculating a component mobility during iteration n+1 as: mo b i n + 1 = mo b i n + d p n + 1 dmo b i n dp + ∑ j = 1 nc d m j n + 1 dmo b i n d m j, where mo b i n is a mobility value for iteration n and component i, d p n + 1 dmo b i n dp is the linear change in mobility of component i caused by the change in pressure for iteration n +1, and ∑ j = 1 nc d m j n + 1 dmo b i n d m j is the sum of linear change in mobility of component i caused by the change in mass of each component for iteration n +1.
An antenna comprising: a substrate; and a conductor pattern on the substrate, wherein the conductor pattern comprises first and second conductor areas (16, 18), wherein the first conductor area is generally at a first end of the substrate and the second conductor area is generally at an opposing second end of the substrate, wherein a first direction extends between the first and second ends of the substrate; wherein the first conductor area has two arms, the two first conductor area arms extend parallel to the first direction and define a first slot between them; wherein the second conductor area has two arms with a second slot defined between them, and the two second conductor area arms extend parallel to the first direction, wherein the two second conductor area arms sit within the first slot with a portion of the first slot at the outer sides of the two second conductor area arms, wherein the second conductor area has a main body extending parallel to the first direction but opposite to the two second conductor arms; a first feeding port which bridges an end of one of the two second conductor area arms and a base of the first slot; a second feeding port which bridges an end of the other of the two second conductor area arms and the base of the first slot; and a third feeding port for the second conductor area, wherein the third feeding port is adjacent to the second end of the substrate. a substrate; and a conductor pattern on the substrate, wherein the conductor pattern comprises first and second conductor areas (16, 18), wherein the first conductor area is generally at a first end of the substrate and the second conductor area is generally at an opposing second end of the substrate, wherein a first direction extends between the first and second ends of the substrate; wherein the first conductor area has two arms, the two first conductor area arms extend parallel to the first direction and define a first slot between them; wherein the second conductor area has two arms with a second slot defined between them, and the two second conductor area arms extend parallel to the first direction, wherein the two second conductor area arms sit within the first slot with a portion of the first slot at the outer sides of the two second conductor area arms, wherein the second conductor area has a main body extending parallel to the first direction but opposite to the two second conductor arms; a first feeding port which bridges an end of one of the two second conductor area arms and a base of the first slot; a second feeding port which bridges an end of the other of the two second conductor area arms and the base of the first slot; and a third feeding port for the second conductor area, wherein the third feeding port is adjacent to the second end of the substrate.
A heat exchanger, in particular a flat pipe evaporator for a motor vehicle air conditioning system, comprising at least one collecting tank made of sheet metal, which is divided in the longitudinal direction into at least two chambers, and the ends of pipes, in particular flat pipes, are introduced in the base thereof, which collecting tank has a tunnel-shaped collecting tank part, an essentially flat collecting tank part, which forms the base, and covers which are arranged in each case on the front side, characterised in that at least one cover is embodied in a flat manner, at least in the area of its outer edge, and is positioned in the collecting tank with a positive fit, the cover is introduced from the front side and on the collecting tank side lies against a number of stops that are formed on the tunnel-shaped part of the collecting tank and/or on the flat part of the collecting tank, wherein the stops are formed as stop pins using an embossing technique and in that the cover is secured by bent brackets.