mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device handle , the handle comprising: an elongate body , the body including a lumen for receiving a plurality of filaments for connection to a stent frame in a radial orientation, characterised in that the handle further comprises: a slide lock adapted to slide along the body; a pivot ring fitment , the fitment adapted for connection of the filaments spaced in a radial orientation matching the radial orientation of the filaments at the stent frame; and a spherical bearing surface , wherein the pivot ring fitment rides on the spherical bearing surface , wherein in a proximal position the slide lock permits no rotation of the fitment around and no tilting of the fitment relative to an axis of the body, wherein in a central position the slide lock permits rotation of the fitment around but no tilting relative to the body axis, and wherein in a distal position the slide lock permits tilting of the fitment relative to the axis of the body. an elongate body , the body including a lumen for receiving a plurality of filaments for connection to a stent frame in a radial orientation, characterised in that the handle further comprises: a slide lock adapted to slide along the body; a pivot ring fitment , the fitment adapted for connection of the filaments spaced in a radial orientation matching the radial orientation of the filaments at the stent frame; and a spherical bearing surface , a slide lock adapted to slide along the body; a pivot ring fitment , the fitment adapted for connection of the filaments spaced in a radial orientation matching the radial orientation of the filaments at the stent frame; and a spherical bearing surface , wherein the pivot ring fitment rides on the spherical bearing surface , wherein in a proximal position the slide lock permits no rotation of the fitment around and no tilting of the fitment relative to an axis of the body, wherein in a central position the slide lock permits rotation of the fitment around but no tilting relative to the body axis, and wherein in a distal position the slide lock permits tilting of the fitment relative to the axis of the body.
A display apparatus comprising: a first substrate including polyimide; a conductive layer directly arranged on the first substrate and implanted with boron; and a first barrier layer directly arranged on the conductive layer and implanted with boron, wherein the first barrier layer has a thickness (t1) from a top surface of the conductive layer in a range of 400 nm to 600 nm, andwherein the conductive layer is obtainable by implanting boron through the first barrier layer in a portion of the first substrate comprising polyimide by using ion implantation or plasma treatment. a first substrate including polyimide; a conductive layer directly arranged on the first substrate and implanted with boron; and a first barrier layer directly arranged on the conductive layer and implanted with boron, wherein the first barrier layer has a thickness (t1) from a top surface of the conductive layer in a range of 400 nm to 600 nm, andwherein the conductive layer is obtainable by implanting boron through the first barrier layer in a portion of the first substrate comprising polyimide by using ion implantation or plasma treatment.
A vibrating densitometer comprising a vibrating member , with the vibrating member comprising: a base ; and a vibrating tube portion affixed to the base , with the vibrating tube portion comprising: a first arcuate portion ; a second arcuate portion ; a first non-arcuate portion ; and a second non-arcuate portion , with the first and second non-arcuate portions being located between the first and second arcuate portions , wherein the vibrating tube portion is formed with an oblong cross-sectional shape having a major axis dimension that is greater than a minor axis dimension and wherein the first and second non-arcuate portions interface with respective first and second arcuate portions to define a plurality of respective axial edges. a base ; and a vibrating tube portion affixed to the base , with the vibrating tube portion comprising: a first arcuate portion ; a second arcuate portion ; a first non-arcuate portion ; and a second non-arcuate portion , with the first and second non-arcuate portions being located between the first and second arcuate portions , wherein the vibrating tube portion is formed with an oblong cross-sectional shape having a major axis dimension that is greater than a minor axis dimension and wherein the first and second non-arcuate portions interface with respective first and second arcuate portions to define a plurality of respective axial edges. a first arcuate portion ; a second arcuate portion ; a first non-arcuate portion ; and a second non-arcuate portion , with the first and second non-arcuate portions being located between the first and second arcuate portions , wherein the vibrating tube portion is formed with an oblong cross-sectional shape having a major axis dimension that is greater than a minor axis dimension and wherein the first and second non-arcuate portions interface with respective first and second arcuate portions to define a plurality of respective axial edges.
A solder alloy comprising: an Sb content of 3 wt% or more and 15 wt% or less; a Te content of 0.01 wt% or more and 1.5 wt% or less; an Au content of 0.005 wt% or more and 1 wt% or less; and a remainder that is Sn. an Sb content of 3 wt% or more and 15 wt% or less; a Te content of 0.01 wt% or more and 1.5 wt% or less; an Au content of 0.005 wt% or more and 1 wt% or less; and a remainder that is Sn.
A method for wagon-to-wagon-communication between wagons of a train , the train comprising a first train wagon and at least one further train wagon , the first train wagon comprising a first transmitter/receiver device , and the further train wagon comprising a further transmitter/receiver device , the method comprising: A) the first transmitter/receiver device sending a request message using short distance communication , B) the further transmitter/receiver device sending an acknowledgement to the first transmitter/receiver device using short distance communication , C) the first transmitter/receiver device sending a first identification code identifying the first train wagon to the further train wagon . A) the first transmitter/receiver device sending a request message using short distance communication , B) the further transmitter/receiver device sending an acknowledgement to the first transmitter/receiver device using short distance communication , C) the first transmitter/receiver device sending a first identification code identifying the first train wagon to the further train wagon .
A method for running a Discontinuous Reception, DRX, timer, applied to a scenario where a first Band Width Part, BWP, and a second BWP have different DRX parameters, the method comprising: determining a first DRX parameter corresponding to the first BWP; running a first DRX timer corresponding to the first BWP according to the first DRX parameter; and charatcerised by: allowing the first DRX timer in a running state to continue to be validated to the second BWP when the first BWP is switched to the second BWP . determining a first DRX parameter corresponding to the first BWP; running a first DRX timer corresponding to the first BWP according to the first DRX parameter; and charatcerised by: allowing the first DRX timer in a running state to continue to be validated to the second BWP when the first BWP is switched to the second BWP .
A computer implemented method of computing at least one slide-level tissue type for a tissue image of tissue extracted from a patient, comprising: receiving a tissue image of a slide including tissue extracted from the patient ; segmenting tissue objects of the tissue image ; creating a plurality of tissue image patches from the segmented tissue objects of the tissue image ; classifying, by a patch-level classifier, each of the plurality of tissue image patches into a plurality of patch-level tissue types, wherein each of the classified tissue image patches is associated with a relative location within the tissue image ; wherein the patch-level classifier outputs, for each respective patch, a vector storing a plurality of probabilities, each probability of the plurality of probabilities is indicative of the respective patch being classified to one of the plurality of patch-level tissue types ; analyzing, by a slide-level analysis code, the classified plurality of patch-level tissue type and associated relative location for each of the plurality of tissue image patches outputted by the patch-level classifier , for computing at least one slide-level tissue type for the tissue image ; and providing the at least one slide-level tissue type, and wherein the slide-level analysis code comprises a convolutional neural network (CNN) that receives as input an image where each pixel stores the output of the patch-level classifier for the corresponding patch in the tissue image; and wherein the CNN is trained to compute one or more slide-level tissue types according to the plurality of patch-level tissue types. receiving a tissue image of a slide including tissue extracted from the patient ; segmenting tissue objects of the tissue image ; creating a plurality of tissue image patches from the segmented tissue objects of the tissue image ; classifying, by a patch-level classifier, each of the plurality of tissue image patches into a plurality of patch-level tissue types, wherein each of the classified tissue image patches is associated with a relative location within the tissue image ; wherein the patch-level classifier outputs, for each respective patch, a vector storing a plurality of probabilities, each probability of the plurality of probabilities is indicative of the respective patch being classified to one of the plurality of patch-level tissue types ; analyzing, by a slide-level analysis code, the classified plurality of patch-level tissue type and associated relative location for each of the plurality of tissue image patches outputted by the patch-level classifier , for computing at least one slide-level tissue type for the tissue image ; and providing the at least one slide-level tissue type, and wherein the slide-level analysis code comprises a convolutional neural network (CNN) that receives as input an image where each pixel stores the output of the patch-level classifier for the corresponding patch in the tissue image; and wherein the CNN is trained to compute one or more slide-level tissue types according to the plurality of patch-level tissue types.
Method for cleaning a floorspace by means of a vacuum cleaner , with: - a suction passage ; - a fan for suctioning contaminated air through the suction passage ; - a dirt filter for separating dirt from the contaminated air; and - an outlet passage for expelling air, from which dirt has been separated, from the dirt filter , wherein the method comprises the following steps: - determining a pressure difference between the suction passage and the outlet passage ; - determining a change in the pressure difference over time; - determining an amount of suctioned dirt per unit time on the basis of the change; and - providing a signal, which indicates the amount of suctioned dirt per unit time, on the basis of the change. - a suction passage ; - a fan for suctioning contaminated air through the suction passage ; - a dirt filter for separating dirt from the contaminated air; and - an outlet passage for expelling air, from which dirt has been separated, from the dirt filter , - determining a pressure difference between the suction passage and the outlet passage ; - determining a change in the pressure difference over time; - determining an amount of suctioned dirt per unit time on the basis of the change; and - providing a signal, which indicates the amount of suctioned dirt per unit time, on the basis of the change.
Method for three-dimensionally capturing a three-dimensional surface of a workpiece rotatable about an axis of rotation, which has coaxial bearing surfaces at opposite ends, comprising the steps of: Receiving the workpiece on the coaxial bearing surfaces in upwardly open bearing elements , in which the workpiece is held with a horizontally aligned axis of rotation in a centred position purely by its own weight, characterised by the further steps Arranging an optical measurement apparatus operating according to the laser light section method with two sensors at a radial distance from the workpiece and aligning the measurement apparatus such that the laser light plane of the measurement apparatus is directed onto the workpiece and the sensors are aligned so that each sensor captures a different side of the plane that lies between the sensors and that is radial to the axis of rotation, Moving the measurement apparatus about the resting workpiece and measuring the three-dimensional position of a multiplicity of points of the three-dimensional surface of at least a portion of the workpiece from a plurality of positions into which the measurement apparatus is moved, wherein the movement of the measurement apparatus takes place along a circular trajectory and additionally along a trajectory tangential to the circular path. Receiving the workpiece on the coaxial bearing surfaces in upwardly open bearing elements , in which the workpiece is held with a horizontally aligned axis of rotation in a centred position purely by its own weight, characterised by the further steps Arranging an optical measurement apparatus operating according to the laser light section method with two sensors at a radial distance from the workpiece and aligning the measurement apparatus such that the laser light plane of the measurement apparatus is directed onto the workpiece and the sensors are aligned so that each sensor captures a different side of the plane that lies between the sensors and that is radial to the axis of rotation, Moving the measurement apparatus about the resting workpiece and measuring the three-dimensional position of a multiplicity of points of the three-dimensional surface of at least a portion of the workpiece from a plurality of positions into which the measurement apparatus is moved, wherein the movement of the measurement apparatus takes place along a circular trajectory and additionally along a trajectory tangential to the circular path.
A hearing assistive device having an input transducer (12; 61) adapted for converting sound into an audio signal applied to a processor (14; 66), said processor (14; 66) being configured to compensate a hearing loss of a user of the hearing assistive device and to output a compensated audio signal, and an output transducer (16; 65) adapted for converting the compensated audio signal into sound, and further comprising: - a wireless transceiver (21; 67) enabling audio streaming from an external device (30; 80) to the hearing assistive device; - a sound dosimeter (26; 69) measuring during audio streaming a parameter representative of a sound exposure of the compensated audio signal output by the output transducer (16; 65); and - a controllable attenuator (23; 66a) associated with said processor (14; 66) adapted for applying attenuation to the compensated audio signal; - wherein the attenuator (23; 66a) is controlled according to the parameter measured by the sound dosimeter (26; 69); characterized in further comprising an audio stream analyzer (22a; 68a) classifying the audio stream received via said wireless transceiver (21; 67) as utility audio or entertainment audio, wherein the sound dosimeter (26; 69) is enabled when said audio stream is classified as entertainment audio. - a wireless transceiver (21; 67) enabling audio streaming from an external device (30; 80) to the hearing assistive device; - a sound dosimeter (26; 69) measuring during audio streaming a parameter representative of a sound exposure of the compensated audio signal output by the output transducer (16; 65); and - a controllable attenuator (23; 66a) associated with said processor (14; 66) adapted for applying attenuation to the compensated audio signal; - wherein the attenuator (23; 66a) is controlled according to the parameter measured by the sound dosimeter (26; 69);
Vacuum device for welding a receptacle inserted in the vacuum chamber, in particular a bag, with a vacuum chamber having a vacuum chamber bottom surface , a vacuum pump for evacuating the vacuum chamber, a welding device arranged in the vacuum chamber with a heatable welding bar and a counter bearing , wherein the welding bar and the counter bearing are movable relative to one another along a closing direction (z) between a standby position and an operating position, wherein they are spaced apart from one another in the standby position, while in the operating position they are pressed against one another for clamping and welding the receptacle, wherein the vacuum device comprises at least one first bearing shoulder for supporting the receptacle which extends along a longitudinal side of the welding bar , characterized in that in the standby position the at least one first bearing shoulder is arranged at least partially closer to the counter bearing in the closing direction (z) than the welding bar .
A fluid sterilization device comprising: a flow passage tube having a first end and a second end opposite to the first end and defining a processing passage extending in an axial direction; a light source provided in a vicinity of the first end and radiating ultraviolet light from the first end toward the processing passage in the axial direction; and a housing that defines a straightening chamber encircling the first end from outside in a radial direction, and an opposing member provided so as to oppose the first end in the axial direction, wherein at least a portion of the opposing member is made of a material that transmits the ultraviolet light from the light source , the straightening chamber includes a communication port that serves as an inlet or an outlet for a fluid flowing in the processing passage and communicates with the processing passage via a gap between the first end and an opposing member opposing the first end in the axial direction, and the opposing member is arranged in the vicinity of the first end such that a cross-sectional area of flow of the gap is smaller than a cross-sectional area of flow of the processing passage and the straightening chamber . a flow passage tube having a first end and a second end opposite to the first end and defining a processing passage extending in an axial direction; a light source provided in a vicinity of the first end and radiating ultraviolet light from the first end toward the processing passage in the axial direction; and a housing that defines a straightening chamber encircling the first end from outside in a radial direction, and an opposing member provided so as to oppose the first end in the axial direction, wherein at least a portion of the opposing member is made of a material that transmits the ultraviolet light from the light source , the straightening chamber includes a communication port that serves as an inlet or an outlet for a fluid flowing in the processing passage and communicates with the processing passage via a gap between the first end and an opposing member opposing the first end in the axial direction, and the opposing member is arranged in the vicinity of the first end such that a cross-sectional area of flow of the gap is smaller than a cross-sectional area of flow of the processing passage and the straightening chamber .
A circuit board for a power supply , the circuit board comprising: a body unit ; a first pattern comprising a terminal coupled and electrically connected to a coil , the first pattern arranged on a first layer of the body unit ; a first layer region arranged on the first layer, the coil being disposed on the first layer region by coupling to the terminal; and a second pattern arranged on a second layer of the body unit below the first layer, characterized in that : the second pattern is electrically isolated from the coupled coil by the body unit and includes a blank region below the first layer region and having no conductive material arranged thereon, and a size of the blank region corresponds to a size of the coil . a body unit ; a first pattern comprising a terminal coupled and electrically connected to a coil , the first pattern arranged on a first layer of the body unit ; a first layer region arranged on the first layer, the coil being disposed on the first layer region by coupling to the terminal; and a second pattern arranged on a second layer of the body unit below the first layer, characterized in that : the second pattern is electrically isolated from the coupled coil by the body unit and includes a blank region below the first layer region and having no conductive material arranged thereon, and a size of the blank region corresponds to a size of the coil . the second pattern is electrically isolated from the coupled coil by the body unit and includes a blank region below the first layer region and having no conductive material arranged thereon, and a size of the blank region corresponds to a size of the coil .
A system for simultaneously forming and filling a container (C) comprising: a mold having a cavity defining an internal surface and configured to accept a preform ; a pressure source configured to provide a pressurized liquid ; a blow nozzle configured to receive the pressurized liquid from the pressure source and transfer the pressurized liquid into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container (C), where the liquid remains within the container (C) as an end product; wherein the system further comprises a first dampening means coupled to the mold ; wherein the first dampening means includes a member selected from a group consisting of a weight-loaded piston dampener, a spring dampener, and a pneumatic piston dampener, the system being characterized in that the first dampening means is be coupled to the blow nozzle opposite from where the blow nozzle receives the pressurized liquid from the pressure source and/or coupled to the mold opposite from where the mold accepts the preform . a mold having a cavity defining an internal surface and configured to accept a preform ; a pressure source configured to provide a pressurized liquid ; a blow nozzle configured to receive the pressurized liquid from the pressure source and transfer the pressurized liquid into the preform to urge the preform to expand toward the internal surface of the mold cavity and form a resultant container (C), where the liquid remains within the container (C) as an end product; wherein the system further comprises a first dampening means coupled to the mold ; wherein the first dampening means includes a member selected from a group consisting of a weight-loaded piston dampener, a spring dampener, and a pneumatic piston dampener, the system being characterized in that the first dampening means is be coupled to the blow nozzle opposite from where the blow nozzle receives the pressurized liquid from the pressure source and/or coupled to the mold opposite from where the mold accepts the preform .