mhurhangee/ep-ind-claims huggingface dataset:
Helicoidal, mixed polarization mono-conical antenna comprising: a supporting structure with a longitudinal axis; a plurality of ground conductors connected to an area around a first portion of the supporting structure so as to be arranged in a radial pattern relative to the axis in order to define a ground plane of the antenna, which is orthogonal to the axis; at least three signal conductors, which have respective first ends that are connected to a second portion of the supporting structure and respective second ends that are connected to a third portion of the supporting structure located between the first portion and the second portion along the axis; said antenna being characterized in that said at least three signal conductors are wound in a helicoidal manner relative to the axis and are shaped so as to define a substantially frusto-conical volume, having a larger base and a smaller base, which is coaxial to the axis and is oriented with said smaller base towards the first portion; said antenna 1 moreover comprising a coaxial power supply connector having a hot pole electrically connected to said second ends.
A buffer status report reporting method comprising: Determining, by a terminal, a first logical channel used to transmit first-type service data, wherein data processing duration required by the first-type service data is less than a first specified threshold; and triggering, by the terminal, a first buffer status report, BSR, based on the first logical channel when determining that the first-type service data that can be used to be sent exists on the first logical channel, wherein the triggering, by the terminal, a first BSR based on the first logical channel comprises: determining, by the terminal based on a correspondence between a service type and a basic data unit size, a first basic data unit size corresponding to a service type of the first-type service data, wherein the correspondence is preset or is indicated by a base station to the terminal; determining, by the terminal, that a data volume of the first-type service data is N times the first basic data unit size; and adding, by the terminal, a value of N to the first BSR. Determining, by a terminal, a first logical channel used to transmit first-type service data, wherein data processing duration required by the first-type service data is less than a first specified threshold; and triggering, by the terminal, a first buffer status report, BSR, based on the first logical channel when determining that the first-type service data that can be used to be sent exists on the first logical channel, determining, by the terminal based on a correspondence between a service type and a basic data unit size, a first basic data unit size corresponding to a service type of the first-type service data, wherein the correspondence is preset or is indicated by a base station to the terminal; determining, by the terminal, that a data volume of the first-type service data is N times the first basic data unit size; and adding, by the terminal, a value of N to the first BSR.
An apparatus for measuring biomedical data, in conjunction with a measurement strip for measuring biomedical data, the apparatus comprising: a plurality of detection units arranged within a strip reception area on a plane and spaced apart from each other to detect, respectively, a plurality of areas of the measurement strip wherein each of the detection units includes a light-emitting unit and a light-receiving unit; a measurement type determination unit for determining whether reactive portions at which biomedical data are to be measured are present in areas of the measurement strip corresponding to the respective detection units based on detection results obtained by the detection units and determining a single type of measurement based on results of the determination; a biomedical data measurement unit for activating part or all of the detection units according to the type of measurement determined by the measurement type determination unit wherein the respective detection units are configured to measure different biomedical data using different types of measurement, and measuring the biomedical data using the activated detection units; and an output unit for outputting the measured biomedical data. a plurality of detection units arranged within a strip reception area on a plane and spaced apart from each other to detect, respectively, a plurality of areas of the measurement strip wherein each of the detection units includes a light-emitting unit and a light-receiving unit; a measurement type determination unit for determining whether reactive portions at which biomedical data are to be measured are present in areas of the measurement strip corresponding to the respective detection units based on detection results obtained by the detection units and determining a single type of measurement based on results of the determination; a biomedical data measurement unit for activating part or all of the detection units according to the type of measurement determined by the measurement type determination unit wherein the respective detection units are configured to measure different biomedical data using different types of measurement, and measuring the biomedical data using the activated detection units; and an output unit for outputting the measured biomedical data.
A wireless communication method comprising: Transmitting, from a base station, BS, to a user equipment, UE, information indicating a resource designated as a Zero-Power, ZP, Reference Signal, RS, or an Interference Measurement Resource, IMR, dynamically; and Receiving, with the UE, the ZP RS or the IMR from the BS using the information, wherein the resource is designated in a unit of one Resource Element, RE, the information indicates the resource as a bit-map format, and the resource is designated from predetermined resources used in an 1-port Channel State Information, CSI-RS mapping configuration. Transmitting, from a base station, BS, to a user equipment, UE, information indicating a resource designated as a Zero-Power, ZP, Reference Signal, RS, or an Interference Measurement Resource, IMR, dynamically; and Receiving, with the UE, the ZP RS or the IMR from the BS using the information, wherein the resource is designated in a unit of one Resource Element, RE, the information indicates the resource as a bit-map format, and the resource is designated from predetermined resources used in an 1-port Channel State Information, CSI-RS mapping configuration.
A method for printing an article using a selective toner electrophotographic process, the method comprising: successively depositing multiple layers of part material and support material, the layers deposited substantially parallel to a first plane; wherein: a) the multiple layers (106, 108) of part material and support material extend in a direction perpendicular to the first plane; and b) at least some of the layers of part material and support material are separated from each other in the first plane to form a gap between part material and support material within a layer; the method being characterized in that it further comprises the following steps: deposit of an edge enhancement layer (116, 118) between at least some of the multiple layers (106, 108) of part material and support material; the edge enhancement layer comprising a layer of part material or a layer of support material selectively printed adjacent to the gap of a previous layer; application of heat and pressure to the part material and support material such that a portion of the part material and support material flows into and at least partially fills the gap between the part material and support material. successively depositing multiple layers of part material and support material, the layers deposited substantially parallel to a first plane; wherein: a) the multiple layers (106, 108) of part material and support material extend in a direction perpendicular to the first plane; and b) at least some of the layers of part material and support material are separated from each other in the first plane to form a gap between part material and support material within a layer; a) the multiple layers (106, 108) of part material and support material extend in a direction perpendicular to the first plane; and b) at least some of the layers of part material and support material are separated from each other in the first plane to form a gap between part material and support material within a layer; the method being characterized in that it further comprises the following steps: deposit of an edge enhancement layer (116, 118) between at least some of the multiple layers (106, 108) of part material and support material; the edge enhancement layer comprising a layer of part material or a layer of support material selectively printed adjacent to the gap of a previous layer; application of heat and pressure to the part material and support material such that a portion of the part material and support material flows into and at least partially fills the gap between the part material and support material. deposit of an edge enhancement layer (116, 118) between at least some of the multiple layers (106, 108) of part material and support material; the edge enhancement layer comprising a layer of part material or a layer of support material selectively printed adjacent to the gap of a previous layer; application of heat and pressure to the part material and support material such that a portion of the part material and support material flows into and at least partially fills the gap between the part material and support material.
A filter assembly (300;500;700;800) for an enclosure, comprising: an enclosure side (304;504) and an outer side (302;502) opposite from the enclosure side; a first layer (320;520;720;820) which is gas permeable positioned at the outer side of the filter assembly; and an adsorbent layer (310;510;710;810), wherein said first layer (320;520;720;820) is positioned on an outer face of said adsorbent layer; and wherein the enclosure side of the filter assembly comprises: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750;850) a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to the enclosure at the weld area (360;560;760;860); the filter assembly characterized in that: the adsorbent layer (310;510;710;810) comprises adsorbent particles dispersed in a fine fiber web; and in that the adhesive in the adhesive zone (350;550;750;850) is adapted to secure the first layer (320;520;720;820) to the enclosure. an enclosure side (304;504) and an outer side (302;502) opposite from the enclosure side; a first layer (320;520;720;820) which is gas permeable positioned at the outer side of the filter assembly; and an adsorbent layer (310;510;710;810), wherein said first layer (320;520;720;820) is positioned on an outer face of said adsorbent layer; and wherein the enclosure side of the filter assembly comprises: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750;850) a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to the enclosure at the weld area (360;560;760;860); the filter assembly characterized in that: an adhesive zone (350;550;750;850) in which adhesive is present having an outer adhesive perimeter and an inner adhesive perimeter that defines an exit window portion that is completely surrounded by the adhesive zone (350;550;750;850) a weld area (360;560;760;860) completely surrounding the adhesive zone (350;550;750;850), where the first layer (320;520;720;820) of the filter assembly (300;500;700;800) is heat-sealable to the enclosure at the weld area (360;560;760;860); the filter assembly characterized in that: the adsorbent layer (310;510;710;810) comprises adsorbent particles dispersed in a fine fiber web; and in that the adhesive in the adhesive zone (350;550;750;850) is adapted to secure the first layer (320;520;720;820) to the enclosure.
An electrical machine including a rotor having windings and a stator, the stator being provided with superconducting first electrical windings; and a first set of screen electrical windings, provided in the form of one or more further superconducting electrical windings, arranged around and radially outward of the first electrical windings; wherein the first set of screen electrical windings is arranged to be supplied with an electrical current for generating a magnetic field of suitable magnitude and phase to reduce the magnitude of the magnetic field, generated by the first electrical windings during operation of the electrical machine, radially outwards of the first set of screen electrical windings, characterised in that the electrical machine further includes a second set of screen electrical windings arranged around and radially outward of the first set of screen electrical windings, the second set of screen electrical windings being arranged to be supplied with an electrical current for generating a magnetic field of suitable magnitude and phase to reduce, radially outwards of the second set of screen electrical windings, the magnitude of the magnetic field generated during operation of the electrical machine by the windings provided on the rotor.
A manhole cover for manholes, sewer accesses or drainage channels, comprising a reinforcing element and a body made of plastic, which is connected to the reinforcing element, the manhole cover being designed to close a manhole, sewer access or drainage channel and the reinforcing element being formed in such a way that it can rest on a bearing surface on the manhole, sewer access or drainage channel when the manhole, sewer access or drainage channel is closed by means of the manhole cover, and the body made of plastic comprising ribs, which can extend perpendicularly or at an angle of more than 45° to the surface surrounding the manhole, sewer access or drainage channel when the manhole, sewer access or drainage channel is closed, the reinforcing element being manufactured from a metal, wherein the ribs rest on the upper side of the reinforcing element, and the reinforcing element also comprises one of the following features: - the reinforcing element is arched, - the reinforcing element comprises an outer encircling strip and a central plate, which are each connected to the body made of plastic, and the central plate or a rod connected to a plate and extending in an axial direction is connected to the outer encircling strip by spokes, rods or cables, - the reinforcing element is constructed from intersecting, vertically aligned elements, - beads are formed in the reinforcing element. - the reinforcing element is arched, - the reinforcing element comprises an outer encircling strip and a central plate, which are each connected to the body made of plastic, and the central plate or a rod connected to a plate and extending in an axial direction is connected to the outer encircling strip by spokes, rods or cables, - the reinforcing element is constructed from intersecting, vertically aligned elements, - beads are formed in the reinforcing element.
Disruptor device consisting in a frame, said frame having a Water Jet system to disaggregate one portion of a tread or a sidewall of a tire, an hydraulic power unit, a control cabinet with PLC and control panel a lower assembly, an upper assembly, an hopper for collection of fragmented materials, a group for the forced ventilation system - the upper assembly consisting on a frame divided in two identical first half-frame and second half-frame (20-b); - the upper assembly being supported to the frame by two arms (la,lb); - the upper assembly presenting a series of rollers and a movable plate positioned on each half-frame (20a,20b) between two of these rollers and supporting an upper nozzles head supplied by high pressure water through a piping system; - the lower assembly presenting a set of rollers mounted on a fixed frame; - in the space between two of rollers, a slide for nozzle-head that supports one or more, left and right, lower nozzles supplied by high pressure water through a piping system being scrolling, the disruptor device being further characterized in that it comprises air water separation means and a vibrating screen. - the upper assembly consisting on a frame divided in two identical first half-frame and second half-frame (20-b); - the upper assembly being supported to the frame by two arms (la,lb); - the upper assembly presenting a series of rollers and a movable plate positioned on each half-frame (20a,20b) between two of these rollers and supporting an upper nozzles head supplied by high pressure water through a piping system; - the lower assembly presenting a set of rollers mounted on a fixed frame; - in the space between two of rollers, a slide for nozzle-head that supports one or more, left and right, lower nozzles supplied by high pressure water through a piping system being scrolling, the disruptor device being further characterized in that it comprises air water separation means and a vibrating screen.
An apparatus comprising an integrated circuit to be used in a wireless station (102, 202, 302), STA, the integrated circuit configured to cause the wireless station to: send a time-of-flight, ToF, measurement request to an access point (AP1, AP2, AP3, AP4, APN), AP; receive a message from the AP, the message comprises a neighbor report element comprising a neighbor list, the neighbor report element comprises an indication of ToF capabilities of an AP of said neighbor list; perform ToF measurements with two or more APs from the neighbor list; and determine a location of the wireless station based on the ToF measurements with at least some of the two or more APs. send a time-of-flight, ToF, measurement request to an access point (AP1, AP2, AP3, AP4, APN), AP; receive a message from the AP, the message comprises a neighbor report element comprising a neighbor list, the neighbor report element comprises an indication of ToF capabilities of an AP of said neighbor list; perform ToF measurements with two or more APs from the neighbor list; and determine a location of the wireless station based on the ToF measurements with at least some of the two or more APs.
An insulating bobbin (10; 10A; 10B; 10C, 20, 30) for disposition between a stator core and a stator winding of a stator of a rotating machine, the stator winding being wound around the stator core by way of the insulating bobbin (10; 10A; 10B; 10C, 20, 30), the insulating bobbin (10; 10A; 10B; 10C) comprising: a pair of coil end sections (11; 11C) at which end portions of the stator winding are disposed, and which are upper and lower surfaces; a pair of slot side sections (12; 12C) forming slots for winding thereon the stator winding, and which are two lateral surfaces; and four corner sections (13; 13A; 13C) each having a curved surface and each connecting between one of the coil end sections (11; 11C) and one of the slot side sections (12; 12C); the coil end sections (11; 11C), the corner sections (13; 13A; 13C) and the slot side sections (12; 12C) constituting a rectangular frame, characterized in that each of the the corner sections (13; 13A; 13C) having a first radius (r1; k1) of curvature at a side closer to the coil end section (11; 11C) and a second radius (r2; k2) of curvature at a side closer to the slot side section (12; 12C), the second radius (r2; k2) of curvature being larger than the first radius (r1; k1) of curvature, wherein the corner section (13; 13A; 13C) being curved to have a part-elliptic cross sectional shape which is constituted by a quarter of an ellipse, wherein the part-elliptic cross sectional shape has a short axis disposed in parallel with the coil end section (11; 11C), wherein the ratio of the length of a long axis of the part-elliptic cross sectional shape to the length of the short axis is in a predetermined range from 4:1 to 6:1. a pair of coil end sections (11; 11C) at which end portions of the stator winding are disposed, and which are upper and lower surfaces; a pair of slot side sections (12; 12C) forming slots for winding thereon the stator winding, and which are two lateral surfaces; and four corner sections (13; 13A; 13C) each having a curved surface and each connecting between one of the coil end sections (11; 11C) and one of the slot side sections (12; 12C); the coil end sections (11; 11C), the corner sections (13; 13A; 13C) and the slot side sections (12; 12C) constituting a rectangular frame, characterized in that each of the the corner sections (13; 13A; 13C) having a first radius (r1; k1) of curvature at a side closer to the coil end section (11; 11C) and a second radius (r2; k2) of curvature at a side closer to the slot side section (12; 12C), the second radius (r2; k2) of curvature being larger than the first radius (r1; k1) of curvature, wherein the corner section (13; 13A; 13C) being curved to have a part-elliptic cross sectional shape which is constituted by a quarter of an ellipse, wherein the part-elliptic cross sectional shape has a short axis disposed in parallel with the coil end section (11; 11C), wherein the ratio of the length of a long axis of the part-elliptic cross sectional shape to the length of the short axis is in a predetermined range from 4:1 to 6:1.
A system for use with an implantable medical device for detecting and/or distinguishing between hypoglycemia and hyperglycemia, said system comprising: a detector operative to detect amplitude-based parameters representative of: 1) amplitudes of one or more selected electrical events of the heart comprising atrial depolarization events, ventricular depolarization events, and ventricular repolarization events, and 2) rates of change of amplitudes of one or more selected electrical events of the heart comprising atrial depolarization events, ventricular depolarization events, and ventricular repolarization events; and a hypoglycemia/hyperglycemia unit operative to detect and/or distinguish hypoglycemia and hyperglycemia from one another based on the amplitude-based parameters. a detector operative to detect amplitude-based parameters representative of: 1) amplitudes of one or more selected electrical events of the heart comprising atrial depolarization events, ventricular depolarization events, and ventricular repolarization events, and 2) rates of change of amplitudes of one or more selected electrical events of the heart comprising atrial depolarization events, ventricular depolarization events, and ventricular repolarization events; and a hypoglycemia/hyperglycemia unit operative to detect and/or distinguish hypoglycemia and hyperglycemia from one another based on the amplitude-based parameters.