mhurhangee/ep-ind-claims huggingface dataset:
A piston ring, comprising a body portion including a running surface, a flank surface, and a transition surface between said running surface and said flank surface; a running layer disposed over said running surface and over at least a portion of said transition surface, said running layer being formed of chromium nitride; a flank layer disposed over said flank surface and over at least a portion of said transition surface, said flank layer being formed of chromium; and a portion of said flank layer and a portion of said running layer overlapping one another, characterised by said running layer and said flank layer providing outermost surfaces of said piston ring. including a running surface, a flank surface, and a transition surface between said running surface and said flank surface; a running layer disposed over said running surface and over at least a portion of said transition surface, said running layer being formed of chromium nitride; a flank layer disposed over said flank surface and over at least a portion of said transition surface, said flank layer being formed of chromium; and a portion of said flank layer and a portion of said running layer overlapping one another, characterised by said running layer and said flank layer providing outermost surfaces of said piston ring.
A parallel light generation device comprising: a light source (1, 40) to emit light; and a lens to convert light emitted from the light source and entered from an incident surface of the lens into parallel light and to emit the parallel light from an exit surface of the lens, the incident surface being a convex surface, the exit surface being a cylindrical surface, wherein, in a plane perpendicular to an optical axis of the lens, a direction in which the cylindrical surface has zero curvature is a direction of generatrix of the lens, and a direction in which the cylindrical surface has non-zero curvature and that is orthogonal to the direction of generatrix is a direction of curvature of the lens, and the light source is disposed at a focal position in the direction of generatrix on a side of the incident surface of the lens, and emits light toward the incident surface of the lens, the light having a difference between a divergence angle in the direction of generatrix of the lens and a divergence angle in the direction of curvature of the lens; characterized in that a light beam in the direction of curvature of the lens is condensed and diverged by the convex surface, so that a beam diameter of the light beam is made larger, and wherein the light beam whose beam diameter is made larger is emitted to an outside of the lens, after the divergence angle thereof is reduced by the convex surface having the curvature on the exit surface. a light source (1, 40) to emit light; and a lens to convert light emitted from the light source and entered from an incident surface of the lens into parallel light and to emit the parallel light from an exit surface of the lens, the incident surface being a convex surface, the exit surface being a cylindrical surface, wherein, in a plane perpendicular to an optical axis of the lens, a direction in which the cylindrical surface has zero curvature is a direction of generatrix of the lens, and a direction in which the cylindrical surface has non-zero curvature and that is orthogonal to the direction of generatrix is a direction of curvature of the lens, and the light source is disposed at a focal position in the direction of generatrix on a side of the incident surface of the lens, and emits light toward the incident surface of the lens, the light having a difference between a divergence angle in the direction of generatrix of the lens and a divergence angle in the direction of curvature of the lens; characterized in that a light beam in the direction of curvature of the lens is condensed and diverged by the convex surface, so that a beam diameter of the light beam is made larger, and wherein the light beam whose beam diameter is made larger is emitted to an outside of the lens, after the divergence angle thereof is reduced by the convex surface having the curvature on the exit surface.
Compactor for the granulation of plastic materials, said compactor comprising a first zone or unit for loading and distribution suitable to be loaded with plastic material and to distribute said material loaded to other zones and/or units of said compactor; a second zone or unit comprising a rotating spinneret including a hollow cylindrical portion with a plurality of perforations and made to rotate by means of a motor, a plurality of compacting rollers made to rotate by said spinneret and distributed radially along the outer circumference of said spinneret at regular radial intervals, wherein the material is granulated by sinterisation deriving from the forced passage through said perforations in said hollow cylindrical portion of said spinneret under the action of said rollers; wherein said compactor comprises a third zone or unit for the forced infeed of said material at each of said rollers; characterized by comprising a corresponding plurality of rotating augers of supply each made to rotate by means of a gearmotor and housed at least partially in a tubular housing, in that said augers and respective tubular housings are arranged outside said spinneret and distributed radially along the external circumference of said spinneret at substantially regular radial intervals depending on the number of augers, and in that said material to be granulated is fed into each of said tubular housings through couplings and by falling along conduits and is propelled by each of said augers outside said spinneret in proximity of a corresponding roller.
A system (100; 200), comprising: a stimulation control circuit configured to: determine interventricular conduction characteristics between patient left and right ventricles for a plurality of heart rates or heart rate ranges; store, in a memory, a first pacing site configuration associated with a first subset of the VV conduction characteristics for a plurality of heart rate or heart rate ranges, and a second pacing site configuration associated with a second subset of the VV conduction characteristics for a plurality of heart rate or heart rate ranges; and select the first pacing site configuration or the second pacing site configuration for delivering cardiac stimulation according to a VV conduction condition characteristic at a sensed heart rate. determine interventricular conduction characteristics between patient left and right ventricles for a plurality of heart rates or heart rate ranges; store, in a memory, a first pacing site configuration associated with a first subset of the VV conduction characteristics for a plurality of heart rate or heart rate ranges, and a second pacing site configuration associated with a second subset of the VV conduction characteristics for a plurality of heart rate or heart rate ranges; and select the first pacing site configuration or the second pacing site configuration for delivering cardiac stimulation according to a VV conduction condition characteristic at a sensed heart rate.
Cathode for a lithium-sulfur cell, comprising - a current collector and - a cathode layer system (2, 3) applied to the current collector, wherein the cathode layer system (2, 3) comprises - at least one conductive layer and - at least one sulfur-containing layer which differs from the conductive layer, wherein the at least one conductive layer makes electrical contact with the current collector, wherein the at least one sulfur-containing layer has a structuring, characterized in that in each case a sulfur-containing layer comprises a multiplicity of sulfur-containing layer portions and at least one electrically conductive layer portion, and wherein the sulfur-containing layer portions are surrounded in each case by the at least one electrically conductive layer portion. - a current collector and - a cathode layer system (2, 3) applied to the current collector, - at least one conductive layer and - at least one sulfur-containing layer which differs from the conductive layer,
A method of identifying a location of a portable data tag, the method comprising: reading the data tag by a data tag reader module of a portable data tag reader device that includes operatively coupled components comprising an ultrasonic transducer, the data tag reader module, an orientation module, a data transmission interface, a reader device processor, and a memory; determining, by the reader device processor, a read zone of the portable data tag reader device, relative to the portable data tag reader device at least in part using data from the orientation module; transmitting, by the reader device processor and the data transmission interface, characteristics of the read zone; receiving the characteristics of the read zone from the portable data tag reader device on a data reception interface of a server operatively coupled to the portable data tag reader device, wherein the server includes operatively coupled components comprising an ultrasonic module operatively coupled to the ultrasonic transducer of the portable data tag reader device, the data reception interface, a server processor, and a memory; determining, by the server processor, a location of the portable data tag reader device at least in part using the ultrasonic module; and determining, by the server processor, the location of the portable data tag using the location of the portable data tag reader device and the read zone of the portable data tag reader device. reading the data tag by a data tag reader module of a portable data tag reader device that includes operatively coupled components comprising an ultrasonic transducer, the data tag reader module, an orientation module, a data transmission interface, a reader device processor, and a memory; determining, by the reader device processor, a read zone of the portable data tag reader device, relative to the portable data tag reader device at least in part using data from the orientation module; transmitting, by the reader device processor and the data transmission interface, characteristics of the read zone; receiving the characteristics of the read zone from the portable data tag reader device on a data reception interface of a server operatively coupled to the portable data tag reader device, wherein the server includes operatively coupled components comprising an ultrasonic module operatively coupled to the ultrasonic transducer of the portable data tag reader device, the data reception interface, a server processor, and a memory; determining, by the server processor, a location of the portable data tag reader device at least in part using the ultrasonic module; and determining, by the server processor, the location of the portable data tag using the location of the portable data tag reader device and the read zone of the portable data tag reader device.
A flavor source for a non-burning inhalation type tobacco product formed by thermal fusion bonding, comprising: a tobacco material having granular shape, a binding agent that binds the tobacco material, and a menthol component, wherein a proportion of a weight of the menthol component with respect to a weight of the tobacco material is 0.15 or more, and a difference between a solubility parameter of the binding agent and a solubility parameter of menthol component is 2.0 or less. a tobacco material having granular shape, a binding agent that binds the tobacco material, and a menthol component, wherein a proportion of a weight of the menthol component with respect to a weight of the tobacco material is 0.15 or more, and a difference between a solubility parameter of the binding agent and a solubility parameter of menthol component is 2.0 or less.
Apparatus for intraluminally treating atrial fibrillation, the apparatus comprising: a catheter configured to deliver high intensity focused ultrasound (HIFU) energy to the heart from a position in the esophagus, from the aorta, or from the great veins of the heart such as the inferior vena cava, superior cava or the right atrium itself; an ultrasound imaging system disposed at a distal portion within the catheter; a high intensity focused ultrasound (HIFU) system disposed within the catheter in alignment with the ultrasound imaging system, said high intensity focused ultrasound (HIFU) system including a linear array of high intensity focused ultrasound (HIFU) elements located on independently steerable actuators configured to create multiple lesions from a single said position, wherein the linear array of high intensity focused ultrasound (HIFU) elements is arranged along a longitudinal axis of the catheter; and a controller operably connected to the ultrasound imaging system and high intensity focused ultrasound (HIFU) system to control said steerable actuators, with said controller programmable to adjust the focal point of the high intensity focused ultrasound (HIFU) system to any point in the field of view of said imaging system to create said lesions in a target tissue by delivering energy from a number of high intensity focused ultrasound (HIFU) elements without significantly heating or ablating intervening tissue. a catheter configured to deliver high intensity focused ultrasound (HIFU) energy to the heart from a position in the esophagus, from the aorta, or from the great veins of the heart such as the inferior vena cava, superior cava or the right atrium itself; an ultrasound imaging system disposed at a distal portion within the catheter; a high intensity focused ultrasound (HIFU) system disposed within the catheter in alignment with the ultrasound imaging system, said high intensity focused ultrasound (HIFU) system including a linear array of high intensity focused ultrasound (HIFU) elements located on independently steerable actuators configured to create multiple lesions from a single said position, wherein the linear array of high intensity focused ultrasound (HIFU) elements is arranged along a longitudinal axis of the catheter; and a controller operably connected to the ultrasound imaging system and high intensity focused ultrasound (HIFU) system to control said steerable actuators, with said controller programmable to adjust the focal point of the high intensity focused ultrasound (HIFU) system to any point in the field of view of said imaging system to create said lesions in a target tissue by delivering energy from a number of high intensity focused ultrasound (HIFU) elements without significantly heating or ablating intervening tissue.
Container for housing at least one product, said container comprising a plurality of hollow elements being joined together in one piece, each hollow element of said plurality of hollow elements comprising: - a base, - at least one lateral wall emerging from the base and defining with this latter a seat configured to receive at least one product, the lateral wall defining at least one opening delimited by a free edge and configured to allow the introduction and withdrawal of at least one product from said seat, wherein the container is made by folding a single flat blank made of paper sheet material, wherein the container comprises an outer edge with a closed profile, opposed to the bases of the plurality of hollow elements and delimiting an upper access of the container, wherein the seats of the plurality of hollow elements are defined within said outer edge, wherein the container further comprises at least one panel joined in one piece to at least one part of the outer edge of the container, characterized by the fact that the panel is fixed, optionally by gluing, at least to the lateral wall at an area distinct and distanced from the perimetral outer edge. - a base, - at least one lateral wall emerging from the base and defining with this latter a seat configured to receive at least one product, the lateral wall defining at least one opening delimited by a free edge and configured to allow the introduction and withdrawal of at least one product from said seat, wherein the container is made by folding a single flat blank made of paper sheet material, wherein the container comprises an outer edge with a closed profile, opposed to the bases of the plurality of hollow elements and delimiting an upper access of the container, wherein the seats of the plurality of hollow elements are defined within said outer edge, wherein the container further comprises at least one panel joined in one piece to at least one part of the outer edge of the container, characterized by the fact that the panel is fixed, optionally by gluing, at least to the lateral wall at an area distinct and distanced from the perimetral outer edge.
An integrated circuit including at least one three transistor random access memory, 3T RAM, cell (1, 1'), comprising: a first transistor (10, 10') having a first gate connected as a storage node; a second transistor (20, 20') connected between the first transistor and a read bit line having a second gate connected to a read word line; a third transistor (30, 30') connected between the storage node and a write bit line having a third gate connected to a write word line; and a further bit line connected to a source of the first transistor (10, 10'), wherein the first transistor (10, 10') is a ferroelectric-based field effect transistor, FeFET, wherein a gate dielectric of the second transistor and a gate dielectric of the third transistor are gate oxides, characterised in, that a gate oxide thickness of the third transistor is larger than a gate oxide thickness of the second transistor (20, 20') such that the third transistor (30, 30') is adapted to sustain a double gate electrical field relative to the second transistor (20, 20'). a first transistor (10, 10') having a first gate connected as a storage node; a second transistor (20, 20') connected between the first transistor and a read bit line having a second gate connected to a read word line; a third transistor (30, 30') connected between the storage node and a write bit line having a third gate connected to a write word line; and a further bit line connected to a source of the first transistor (10, 10'), wherein the first transistor (10, 10') is a ferroelectric-based field effect transistor, FeFET, wherein a gate dielectric of the second transistor and a gate dielectric of the third transistor are gate oxides, characterised in, that a gate oxide thickness of the third transistor is larger than a gate oxide thickness of the second transistor (20, 20') such that the third transistor (30, 30') is adapted to sustain a double gate electrical field relative to the second transistor (20, 20').
A method of scheduling an uplink data service in a mobile communication system supporting the uplink data service, comprising the steps of: receiving one of a transmit, Tx, power and a Tx power margin from a user equipment, UE (301, 401, 503, 703, 800), by a Node B (502, 702); receiving a maximum UE transmitter power (507, 707) from a radio network controller, RNC (501, 701), by the Node B (502, 702), the maximum UE transmitter power (507, 707) being selected by the RNC (501, 701) as the lower of a maximum allowed uplink, UL, Tx power (403, 505, 705) determined for the UE (301, 401, 503, 703, 800) by the RNC (501, 701) and a maximum Tx power corresponding to a power class of the UE (301, 401, 503, 703, 800); and scheduling uplink packet transmission from the UE (301, 401, 503, 703, 800) based on one of the Tx power and the Tx power margin and the maximum UE transmitter power (507, 707) by the Node B (502, 702). receiving one of a transmit, Tx, power and a Tx power margin from a user equipment, UE (301, 401, 503, 703, 800), by a Node B (502, 702); receiving a maximum UE transmitter power (507, 707) from a radio network controller, RNC (501, 701), by the Node B (502, 702), the maximum UE transmitter power (507, 707) being selected by the RNC (501, 701) as the lower of a maximum allowed uplink, UL, Tx power (403, 505, 705) determined for the UE (301, 401, 503, 703, 800) by the RNC (501, 701) and a maximum Tx power corresponding to a power class of the UE (301, 401, 503, 703, 800); and scheduling uplink packet transmission from the UE (301, 401, 503, 703, 800) based on one of the Tx power and the Tx power margin and the maximum UE transmitter power (507, 707) by the Node B (502, 702).
A semiconductor light emitting device, comprising: a base having a cavity (2a, 2b, 2c) provided therein; a light emitting diode chip mounted on the bottom of the cavity; a transparent resin layer filled in the cavity and covering the light emitting diode chip, a wavelength conversion layer including a fluorescent material formed onto the transparent resin layer and formed in the cavity, characterized by one of a heat conducting mesh and a heat conducting wire embedded into or covered by the wavelength conversion layer, the one of a heat conducting mesh and a heat conducting wire being mechanically attached to the base. a base having a cavity (2a, 2b, 2c) provided therein; a light emitting diode chip mounted on the bottom of the cavity; a transparent resin layer filled in the cavity and covering the light emitting diode chip, a wavelength conversion layer including a fluorescent material formed onto the transparent resin layer and formed in the cavity, characterized by one of a heat conducting mesh and a heat conducting wire embedded into or covered by the wavelength conversion layer, the one of a heat conducting mesh and a heat conducting wire being mechanically attached to the base.
A cable fitting, comprising: a gland nut including first threads, an axial gland bore, and a first sloped surface along a portion of the axial gland bore; a body including second threads configured to receive the first threads, an axial body bore, and a second sloped surface along a portion of the axial body bore; and a chuck including multiple segments that form a ring that is configured to receive a cable, wherein each of the multiple segments includes a distal end tapered surface and a proximal end tapered surface, and wherein each of the multiple segments includes teeth along an inwardly-facing surface, wherein the gland nut, the body, and the chuck are configured to form an axial pathway for receiving a cable, wherein, when the first threads of the gland nut are advanced onto the second threads of the body, the first sloped surface is configured to apply a first compressive force to the distal end tapered surfaces, and the second sloped surface is configured to apply a second compressive force to the proximal end tapered surfaces, and wherein the compressive forces cause inward deformation of the chuck to reduce an inside diameter of the ring and secure the cable within the axial pathway. a gland nut including first threads, an axial gland bore, and a first sloped surface along a portion of the axial gland bore; a body including second threads configured to receive the first threads, an axial body bore, and a second sloped surface along a portion of the axial body bore; and a chuck including multiple segments that form a ring that is configured to receive a cable, wherein each of the multiple segments includes a distal end tapered surface and a proximal end tapered surface, and wherein each of the multiple segments includes teeth along an inwardly-facing surface,