mhurhangee/ep-ind-claims huggingface dataset:
A maritime light source comprising - a bottom housing, and - a lid (1201, 1202, 1203) comprising: - a lens portion adapted to scatter light from an associated light source over an angle of at least 180 degrees in a substantially uniform manner, and - a button portion comprising a flexible push button membrane, and - a water proof sealing between the bottom housing and the lid, characterized in that: the lid comprises first and second thermoplastic polymer layers, the first polymer layer being substantially stiffer than the second polymer layer, and that the first polymer layer comprises an opening, said opening being substantially filled with at least part of the second polymer layer thereby defining an integrated membrane of the button portion in said opening. - a bottom housing, and - a lid (1201, 1202, 1203) comprising: - a lens portion adapted to scatter light from an associated light source over an angle of at least 180 degrees in a substantially uniform manner, and - a button portion comprising a flexible push button membrane, and - a lens portion adapted to scatter light from an associated light source over an angle of at least 180 degrees in a substantially uniform manner, and - a button portion comprising a flexible push button membrane, and - a water proof sealing between the bottom housing and the lid, characterized in that: the lid comprises first and second thermoplastic polymer layers, the first polymer layer being substantially stiffer than the second polymer layer, and that the first polymer layer comprises an opening, said opening being substantially filled with at least part of the second polymer layer thereby defining an integrated membrane of the button portion in said opening. the lid comprises first and second thermoplastic polymer layers, the first polymer layer being substantially stiffer than the second polymer layer, and that the first polymer layer comprises an opening, said opening being substantially filled with at least part of the second polymer layer thereby defining an integrated membrane of the button portion in said opening.
Elongate arrangement for emitting light, comprising a plurality of LED light sources and a plurality of lenses arranged after the LED light sources in the light emission direction, wherein a reflector (7, 8) for influencing the light emitted from the lenses is arranged after the lenses in the light emission direction, characterized in that the light intensity distribution curve of the light emitted from each lens in the C0/C180 plane has one or more wings which are separate from one another and which each lie substantially in an angle range of 0° to 90° relative to an axis parallel to the light emission direction through the light centre of the respective lens and each have a tip region and flank regions adjoining the latter on both sides, in which flank regions the light intensity falls to a considerably lower value than in the tip region, wherein the tip region lies at angles greater than 0° and one of the flanks falls towards the angle range around 0°, and in that the lenses are joined together to form an elongate optical element.
A method for manufacturing a degradable implant, in particular a degradable intraluminal endoprosthesis, comprising a body having a coating on at least a portion of the surface thereof, said method comprising the following steps: a) providing the implant body, b) applying the coating to the surface of the implant body, wherein the coating comprises unfilled cavities, preferably in the form of microbubbles. a) providing the implant body, b) applying the coating to the surface of the implant body, wherein the coating comprises unfilled cavities, preferably in the form of microbubbles.
A lighting device comprising a plurality of LED light sources each provided with a collimating member having a main direction of light propagation, and an at least partially transparent optical arrangement (4, 6) positioned adjacent to the collimating members such that light generated by the LED light sources and propagated by the collimating members into the main direction of light propagation passes through the optical arrangement (4, 6), wherein the optical arrangement (4, 6) has a microstructure with a plurality of refractive cells configured to shape the light passing through the optical arrangement (4, 6), characterized in that each of the plurality of refractive cells has a shoulder angle (α) relative to the main direction of light propagation the plurality of refractive cells has refractive cells with differing shoulder angles (α), and the plurality of refractive cells comprise bases having the same size being hexagonal, wherein each of the refractive cells comprises a dome extending from a ground plane wherein the domes extend from the ground plane towards the LED light sources. a plurality of LED light sources each provided with a collimating member having a main direction of light propagation, and an at least partially transparent optical arrangement (4, 6) positioned adjacent to the collimating members such that light generated by the LED light sources and propagated by the collimating members into the main direction of light propagation passes through the optical arrangement (4, 6), wherein the optical arrangement (4, 6) has a microstructure with a plurality of refractive cells configured to shape the light passing through the optical arrangement (4, 6), characterized in that each of the plurality of refractive cells has a shoulder angle (α) relative to the main direction of light propagation the plurality of refractive cells has refractive cells with differing shoulder angles (α), and the plurality of refractive cells comprise bases having the same size being hexagonal, wherein each of the refractive cells comprises a dome extending from a ground plane wherein the domes extend from the ground plane towards the LED light sources.
A system for preparing a radiofrequency identification tag for attachment on a support, comprising a device for placing at least one radiofrequency identification tag, configured so as to place the tag on the support, the system being characterised in that the placement device comprises: - an actuation member movable between a loading position and a placement position, the placement position being distinct from the loading position, and - a holding member having a release configuration of the tag, and a holding configuration of the tag, the holding member being in the holding configuration of the tag upon a movement of the actuation member between the loading position and the placement position. - an actuation member movable between a loading position and a placement position, the placement position being distinct from the loading position, and - a holding member having a release configuration of the tag, and a holding configuration of the tag, the holding member being in the holding configuration of the tag upon a movement of the actuation member between the loading position and the placement position.
A single-module circuit breaker comprising: a first portion of a housing, wherein the first portion includes: overcurrent detection componentry configured to detect an overcurrent condition; a second portion of the housing, wherein the second portion includes: leakage current detection componentry configured to detect a leakage current condition; and a third portion of the housing proximate the first portion and the second portion, wherein the first, second and third portions are aligned longitudinally in the housing and, wherein the third portion includes: a contact mechanism, a first conduction path, and a second conduction path; wherein the contact mechanism is configured to disrupt the first and second conduction paths in response to at least one of the overcurrent condition and the leakage current condition; and wherein the first conduction path and the second conduction path are independent conduction paths, and wherein the leakage current detection componentry is further configured to detect a current imbalance between the first conduction path and the second conduction path. a first portion of a housing, wherein the first portion includes: overcurrent detection componentry configured to detect an overcurrent condition; overcurrent detection componentry configured to detect an overcurrent condition; a second portion of the housing, wherein the second portion includes: leakage current detection componentry configured to detect a leakage current condition; and leakage current detection componentry configured to detect a leakage current condition; and a third portion of the housing proximate the first portion and the second portion, wherein the first, second and third portions are aligned longitudinally in the housing and, wherein the third portion includes: a contact mechanism, a first conduction path, and a second conduction path; wherein the contact mechanism is configured to disrupt the first and second conduction paths in response to at least one of the overcurrent condition and the leakage current condition; and wherein the first conduction path and the second conduction path are independent conduction paths, and wherein the leakage current detection componentry is further configured to detect a current imbalance between the first conduction path and the second conduction path. a contact mechanism, a first conduction path, and a second conduction path;
A method of visualizing a sequence of 3D ultrasound images of an object in motion, wherein said motion is a complex motion composed of motion components from a plurality of origins, the method comprising: acquiring said sequence of 3D ultrasound images, said sequence including a first 3D ultrasound image acquired at a first point in time and a second 3D ultrasound image acquired at a second point in time, wherein the 3D ultrasound images are decomposable in a plurality of slices each depicting a different segment of the object; providing a motion tracking model modelling a contribution to the complex motion, said contribution originating from a subset of said motion components; determining said complex motion from the first and second 3D ultrasound images; and visualizing a contribution of the motion tracking model to the complex motion of said object in order to obtain a motion-decomposed visualization of said complex motion, and characterized in that: the motion tracking model comprises a reference rotation and wherein said visualizing comprises visualizing a rotation of the segments of said object relative to said reference rotation and wherein providing the motion tracking model comprises providing a predefined motion tracking model. acquiring said sequence of 3D ultrasound images, said sequence including a first 3D ultrasound image acquired at a first point in time and a second 3D ultrasound image acquired at a second point in time, wherein the 3D ultrasound images are decomposable in a plurality of slices each depicting a different segment of the object; providing a motion tracking model modelling a contribution to the complex motion, said contribution originating from a subset of said motion components; determining said complex motion from the first and second 3D ultrasound images; and visualizing a contribution of the motion tracking model to the complex motion of said object in order to obtain a motion-decomposed visualization of said complex motion, and characterized in that: the motion tracking model comprises a reference rotation and wherein said visualizing comprises visualizing a rotation of the segments of said object relative to said reference rotation and wherein providing the motion tracking model comprises providing a predefined motion tracking model.
A composition comprising: a perfluoroelastomer, carbon black in an amount of 55 to 75 parts by weight per 100 parts by weight of the perfluoroelastomer, and a crosslinking agent represented by the following formula: wherein in the formula, A is a single bond, -O-, an alkylene group, or a fluoroalkylene group; R 1, R 2, and R 3 are independently a hydrogen atom, a fluorine atom, an alkyl group, or a fluoroalkyl group; and provided that at least one of R 1, R 2, and R 3 is a fluorine atom or a fluoroalkyl group. a perfluoroelastomer, carbon black in an amount of 55 to 75 parts by weight per 100 parts by weight of the perfluoroelastomer, and a crosslinking agent represented by the following formula: wherein in the formula, A is a single bond, -O-, an alkylene group, or a fluoroalkylene group; R 1, R 2, and R 3 are independently a hydrogen atom, a fluorine atom, an alkyl group, or a fluoroalkyl group; and provided that at least one of R 1, R 2, and R 3 is a fluorine atom or a fluoroalkyl group.
A pixel substrate, comprising: a photoelectric conversion element comprising a doped region and a substrate region, wherein the doped region and the substrate region form a pn junction; a pixel circuit electrically connected to a first supply line and the photoelectric conversion element, and a protection circuit configured to short-circuit the first supply line and the substrate region when a voltage difference between the first supply line and the substrate region falls below a negative threshold voltage, wherein the protection circuit comprises a photoelectric current source and a main transistor circuit with a switchable current path between the first supply line and the substrate region, and wherein the photoelectric current source is configured to switch on the switchable current path when a voltage difference between the first supply line and the substrate region falls below the negative threshold voltage. a photoelectric conversion element comprising a doped region and a substrate region, wherein the doped region and the substrate region form a pn junction; a pixel circuit electrically connected to a first supply line and the photoelectric conversion element, and a protection circuit configured to short-circuit the first supply line and the substrate region when a voltage difference between the first supply line and the substrate region falls below a negative threshold voltage, wherein the protection circuit comprises a photoelectric current source and a main transistor circuit with a switchable current path between the first supply line and the substrate region, and wherein the photoelectric current source is configured to switch on the switchable current path when a voltage difference between the first supply line and the substrate region falls below the negative threshold voltage.
A production method of a thermoplastic resin composition comprising: compounding 0.001 to 50 parts by mass of a metal complex with respect to 100 parts by mass of a thermoplastic acrylic resin, and kneading it under a condition of a kneading temperature of 225 to 300°C and of a kneading time of 0.5 to 30 minutes, wherein the metal of the metal complex is aluminum. compounding 0.001 to 50 parts by mass of a metal complex with respect to 100 parts by mass of a thermoplastic acrylic resin, and kneading it under a condition of a kneading temperature of 225 to 300°C and of a kneading time of 0.5 to 30 minutes, wherein the metal of the metal complex is aluminum.
A Cu column containing: purity which is equal to or higher than 99.9% and equal to or lower than 99.995%, arithmetic mean roughness which is equal to or less than 0.3μm, and Vickers hardness which is equal to or higher than 20HV and equal to or less than 60HV, wherein an alpha dose is equal to or less than 0.0200 cph/cm 2, and wherein said Cu column is composed of a cylinder column form which has a diameter of the top surface of 1-300μm, a diameter of the bottom surface of 1-300μm, and a height of 1-3000μm, and wherein the arithmetic mean roughness is equal to or less than 0.3μm across an entire outermost surface of said Cu column. purity which is equal to or higher than 99.9% and equal to or lower than 99.995%, arithmetic mean roughness which is equal to or less than 0.3μm, and Vickers hardness which is equal to or higher than 20HV and equal to or less than 60HV, wherein an alpha dose is equal to or less than 0.0200 cph/cm 2, and wherein said Cu column is composed of a cylinder column form which has a diameter of the top surface of 1-300μm, a diameter of the bottom surface of 1-300μm, and a height of 1-3000μm, and wherein the arithmetic mean roughness is equal to or less than 0.3μm across an entire outermost surface of said Cu column.
A method performed by user equipment, UE,, comprising: determining, upon one of a plurality of radio link control, RLC, entities, associated with a packet duplication bearer, of the UE indicating that the maximum number of retransmissions has been reached, that the UE sends, without triggering RRC connection reestablishment caused by a radio link failure, an indication message, to report an RLC failure, if a logical channel for transmitting a duplicate PDCP Protocol Data Unit is associated to one or more secondary cells, SCells, but neither primary cell, PCell nor Secondary Cell Group, SCG, cell in which the UE is instructed to perform random access when performing an SCG change procedure; wherein, the logical channel is mapped to the RLC entity, a logical channel identity of the logical channel is included in the indication message. determining, upon one of a plurality of radio link control, RLC, entities, associated with a packet duplication bearer, of the UE indicating that the maximum number of retransmissions has been reached, that the UE sends, without triggering RRC connection reestablishment caused by a radio link failure, an indication message, to report an RLC failure, if a logical channel for transmitting a duplicate PDCP Protocol Data Unit is associated to one or more secondary cells, SCells, but neither primary cell, PCell nor Secondary Cell Group, SCG, cell in which the UE is instructed to perform random access when performing an SCG change procedure; wherein, the logical channel is mapped to the RLC entity, a logical channel identity of the logical channel is included in the indication message.
Covering element comprising a carrier plate containing a mineral material and carrying on its front side a polymer-containing decorative layer (20 - 24; 32), the covering element having complementary recesses and projections extending on its side edges, wherein the recesses and projections are formed respectively on side edges (17, 19) facing away from one another, so that they engage into one another when covering elements are adjacent, the recesses and projections being disposed in the carrier plate, characterized in that the carrier plate is multi-layer with a plurality of layers containing mineral material, wherein at least part of the decorative layer (20 - 24) is applied in liquid form and wherein the material of the decorative layer (20 - 24) at least partially penetrates the topmost layer of the carrier plate and has also infiltrated at least partially into the underlying adjacent layer of the carrier plate.
A method for producing a stent which is formed into a tubular body and comprises at least one marker including a marker housing and a marker insert comprising: using an indenter having a spherical shaped distal end, the distal end coming into contact with the marker insert when the marker insert is pressed with the indenter and is pressure fitted to an opening provided on the marker housing to fix it thereon.
A signal generation method, wherein the method comprises: normalizing an I path of four-level signals to obtain a normalized I path of four-level signals, and normalizing a Q path of four-level signals to obtain a normalized Q path of four-level signals; mapping the normalized I path of four-level signals and the normalized Q path of four-level signals based on a normalization coefficient to obtain two paths of six-level signals, wherein the normalization coefficient is determined based on an actual value of a first path of level signals and a maximum value of the first path of level signals, and the first path of level signals are any path of level signals in the I path of four-level signals and the Q path of four-level signals; performing digital-to-analog conversion on the two paths of six-level signals to obtain converted signals; adjusting amplitudes of the converted signals to a preset amplitude to obtain amplitude-adjusted signals, wherein the preset amplitude is less than a target amplitude, and the target amplitude is determined by a signal amplitude required when a 16-level signal drives a dual-drive Mach-Zehnder modulator DDMZM; and loading the amplitude-adjusted signals to an upper arm and a lower arm of the DDMZM to generate modulation signals. normalizing an I path of four-level signals to obtain a normalized I path of four-level signals, and normalizing a Q path of four-level signals to obtain a normalized Q path of four-level signals; mapping the normalized I path of four-level signals and the normalized Q path of four-level signals based on a normalization coefficient to obtain two paths of six-level signals, wherein the normalization coefficient is determined based on an actual value of a first path of level signals and a maximum value of the first path of level signals, and the first path of level signals are any path of level signals in the I path of four-level signals and the Q path of four-level signals; performing digital-to-analog conversion on the two paths of six-level signals to obtain converted signals; adjusting amplitudes of the converted signals to a preset amplitude to obtain amplitude-adjusted signals, wherein the preset amplitude is less than a target amplitude, and the target amplitude is determined by a signal amplitude required when a 16-level signal drives a dual-drive Mach-Zehnder modulator DDMZM; and loading the amplitude-adjusted signals to an upper arm and a lower arm of the DDMZM to generate modulation signals.
Highly abrasion-resistant technical adhesive tape, in particular an adhesive tape that can be wound on itself to form a roll of adhesive tape, preferably a cable or wire winding tape, having on one side a strip-like double-layer carrier having on one side a pressure-sensitive adhesive coating, wherein the carrier comprises a first woven textile layer of fabric and a second woven textile layer, the two being firmly joined to one another by an adhesive bonding layer, wherein the second woven textile layer comprises a fabric, the fabric of the first woven textile layer and the fabric of the second woven textile layer each having a basis weight in the range of 50 g/m 2 to 300 g/m 2, wherein the adhesive bonding layer has a basis weight in the range of 50 g/m 2 to 300 g/m 2 and wherein the adhesive tape has a thickness of at least 0.50 mm and at least a tape edge in the form of a pattern differing from a straight line with pointed teeth, teeth flanks (14, 16) and teeth feet, said pattern being structured by means of a cutting process, wherein the outer warp threads close to the tape edge are cut through in the region of the teeth flanks (14, 16) or in the region of the teeth feet are at least cut partially, wherein the number of such weakened warp threads on the at least one tape edge lies in the region from 1 to 15, wherein in the fabric of the first woven textile layer and/or in the fabric of the second woven textile layer the warp threads each have a fineness in the range of 30 dtex to 110 dtex and in the fabric of the first woven textile layer and/or in the fabric of the second woven textile layer the warp threads and the weft threads each differ in that the ratio of the fineness of the warp threads to the fineness of the weft threads has a value of 1: 8 - 11.