mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutical tablet composition comprising a core and at least one coating layer wherein the core comprises 70 to 93% of colesevelam by weight of the core and microcrystalline cellulose as a diluent; the concentration ratio of colesevelam to microcrystalline cellulose is in the range of between 15:1 and 1:0,5 and the particles of colesevelam have d 90 value less than 150 μm.
Method for presetting a central ventilation system for ventilating two or more spaces of a building comprising one or several ventilators and two or more supply and/or discharge ducts for supplying or discharging air to or from these spaces, in which two or more supply and/or discharge ducts comprise a flow controller for each supply or discharge duct, in which this flow controller has an adjustable passage opening, in which the maximum ventilation capacity for each supply or discharge duct is set by setting the maximum passage opening of the flow controller, characterized in that this method comprises the following steps: a. setting the flow controllers at various passage openings and performing measurements of the total supply and discharge flow of the ventilation system at said various passage openings of the flow controllers; b. determining the maximum passage opening to be set for each flow controller on the basis of these measurements; c. setting the determined maximum passage opening for each flow controller. a. setting the flow controllers at various passage openings and performing measurements of the total supply and discharge flow of the ventilation system at said various passage openings of the flow controllers; b. determining the maximum passage opening to be set for each flow controller on the basis of these measurements; c. setting the determined maximum passage opening for each flow controller.
A method for manufacturing a biomaterial, comprising: • supply of a resorbable porous matrix formed of a material comprising collagen, the porous matrix being a haemostatic sponge, and having an interior volume and an exterior surface, then • hydration of the porous matrix so as to balance the pH and osmolarity of the porous matrix, • following hydration of the porous matrix, drying of the porous matrix, • following drying of the porous matrix, seeding of the porous matrix with at least one type of living biological cells of a tissue, then • a cellular growth of at least one type of biological cells, to form a biomaterial comprising: • the porous matrix, • at least one type of living biological cells of a tissue, disposed in the interior volume and alternatively or additionally on the surface of the porous matrix. • supply of a resorbable porous matrix formed of a material comprising collagen, the porous matrix being a haemostatic sponge, and having an interior volume and an exterior surface, then • hydration of the porous matrix so as to balance the pH and osmolarity of the porous matrix, • following hydration of the porous matrix, drying of the porous matrix, • following drying of the porous matrix, seeding of the porous matrix with at least one type of living biological cells of a tissue, then • a cellular growth of at least one type of biological cells, • the porous matrix, • at least one type of living biological cells of a tissue, disposed in the interior volume and alternatively or additionally on the surface of the porous matrix.
A gas generating composition comprising: a gas generating agent including (a) fuel selected from a triazine compound and a guanidine compound, (b) an oxidizing agent including a combination of (b-1) basic metal nitrate and (b-2) basic metal carbonate, and (c) a binder; and (d) an absorbent. (a) fuel selected from a triazine compound and a guanidine compound, (b) an oxidizing agent including a combination of (b-1) basic metal nitrate and (b-2) basic metal carbonate, and (c) a binder; and (d) an absorbent.
A computer-implemented method, comprising: receiving a first image captured by a capturing device of an autonomous driving vehicle, ADV; performing an image transformation to transform the first image to a second image; applying an object detection model to the first image and the second image to generate a first output and a second output, respectively; calculating a similarity metric between the first output and the second output based on a distance between the first image and the second image, wherein each of the first output and the second output includes a list of bounding boxes, the locations of the bounding boxes, and annotation of each class objects for the bounding boxes for the input image detecting that the first image is an adversarial sample if the similarity metric between the first output and the second output is above a predetermined threshold, wherein the adversarial sample refers to a sample with a perturbation that causes an object from the sample not to be detected; and activating a failsafe mechanism for the ADV if an adversarial sample is detected, wherein the distance includes differences in class prediction, number of bounding boxes, and overlapping regions of the bounding boxes. receiving a first image captured by a capturing device of an autonomous driving vehicle, ADV; performing an image transformation to transform the first image to a second image; applying an object detection model to the first image and the second image to generate a first output and a second output, respectively; calculating a similarity metric between the first output and the second output based on a distance between the first image and the second image, wherein each of the first output and the second output includes a list of bounding boxes, the locations of the bounding boxes, and annotation of each class objects for the bounding boxes for the input image detecting that the first image is an adversarial sample if the similarity metric between the first output and the second output is above a predetermined threshold, wherein the adversarial sample refers to a sample with a perturbation that causes an object from the sample not to be detected; and activating a failsafe mechanism for the ADV if an adversarial sample is detected, wherein the distance includes differences in class prediction, number of bounding boxes, and overlapping regions of the bounding boxes.
A friction welding apparatus comprising: a workpiece comprising a metallic material; a friction welding tool, the tool comprising: a probe comprising a ceramic material characterised by the probe having a surface coating comprising a metallic material covering at least part of a contact zone of the probe, the contact zone being parts of the tool contacting the workpiece in use, wherein the metallic material of the probe comprises the workpiece material. a workpiece comprising a metallic material; a friction welding tool, the tool comprising: a probe comprising a ceramic material characterised by the probe having a surface coating comprising a metallic material covering at least part of a contact zone of the probe, the contact zone being parts of the tool contacting the workpiece in use, wherein the metallic material of the probe comprises the workpiece material. a probe comprising a ceramic material characterised by the probe having a surface coating comprising a metallic material covering at least part of a contact zone of the probe, the contact zone being parts of the tool contacting the workpiece in use, wherein the metallic material of the probe comprises the workpiece material.
A valve system (310, 410), comprising: (a) a water supply member; (b) a valve assembly in communication with the water supply member, the valve assembly comprising: a sealing member (415, 315) moveable between an open position during which water flows through the valve assembly and a closed position during which water is prevented from flowing through the valve assembly, a first diaphragm (314, 414), wherein the sealing member (415, 315) is mounted to the first diaphragm (314, 414) such that movement of the first diaphragm causes movement of the sealing member (415, 315); a vacuum chamber (312, 412); and a venturi (374, 474) around an end of the moveable sealing member (415, 315), wherein the sealing member (415, 315) has an air passageway therethrough from the venturi (374, 474) to the vacuum chamber (312, 412), characterized in that the valve assembly further comprises a second diaphragm in communication with the sealing member, wherein the vacuum chamber (312, 412) is located between the first diaphragm (314, 414) and the second diaphragm. (a) a water supply member; (b) a valve assembly in communication with the water supply member, the valve assembly comprising: a sealing member (415, 315) moveable between an open position during which water flows through the valve assembly and a closed position during which water is prevented from flowing through the valve assembly, a first diaphragm (314, 414), wherein the sealing member (415, 315) is mounted to the first diaphragm (314, 414) such that movement of the first diaphragm causes movement of the sealing member (415, 315); a vacuum chamber (312, 412); and a venturi (374, 474) around an end of the moveable sealing member (415, 315), wherein the sealing member (415, 315) has an air passageway therethrough from the venturi (374, 474) to the vacuum chamber (312, 412), characterized in that the valve assembly further comprises a second diaphragm in communication with the sealing member, wherein the vacuum chamber (312, 412) is located between the first diaphragm (314, 414) and the second diaphragm. a sealing member (415, 315) moveable between an open position during which water flows through the valve assembly and a closed position during which water is prevented from flowing through the valve assembly, a first diaphragm (314, 414), wherein the sealing member (415, 315) is mounted to the first diaphragm (314, 414) such that movement of the first diaphragm causes movement of the sealing member (415, 315); a vacuum chamber (312, 412); and a venturi (374, 474) around an end of the moveable sealing member (415, 315), wherein the sealing member (415, 315) has an air passageway therethrough from the venturi (374, 474) to the vacuum chamber (312, 412), characterized in that the valve assembly further comprises a second diaphragm in communication with the sealing member, wherein the vacuum chamber (312, 412) is located between the first diaphragm (314, 414) and the second diaphragm.
An article comprising a substrate and a coating comprising pigment flakes, supported by the substrate; wherein each of the pigment flakes includes a magnetic or magnetizable material for magnetic alignment of the pigment flakes, and the pigment flakes are aligned to form an aligned pattern wherein a portion of the pigment flakes are parallel to the substrate along a continuous imaginary line on a surface of the substrate between first and second points (A, B) thereof, and the pigment flakes form curved patterns in a plurality of cross-sections (200, 201, 202) normal to the continuous imaginary line so that radii of the curved patterns increase along the continuous imaginary line from the first point to the second point, and wherein, when light is incident upon the pigment flakes from a light source, light reflected from the aligned pattern forms a bright image which appears to gradually change its shape and move from one side of the continuous imaginary line to another side of the continuous imaginary line when the substrate is tilted with respect to the light source. wherein each of the pigment flakes includes a magnetic or magnetizable material for magnetic alignment of the pigment flakes, and the pigment flakes are aligned to form an aligned pattern wherein a portion of the pigment flakes are parallel to the substrate along a continuous imaginary line on a surface of the substrate between first and second points (A, B) thereof, and the pigment flakes form curved patterns in a plurality of cross-sections (200, 201, 202) normal to the continuous imaginary line so that radii of the curved patterns increase along the continuous imaginary line from the first point to the second point, and wherein, when light is incident upon the pigment flakes from a light source, light reflected from the aligned pattern forms a bright image which appears to gradually change its shape and move from one side of the continuous imaginary line to another side of the continuous imaginary line when the substrate is tilted with respect to the light source.
A computer program product, the computer program product being tangibly embodied on a computer-readable storage medium and including executable code that, when executed, is configured to cause at least one data processing apparatus to: receive a start time; select a plurality of database objects including one or more tablespace partitions and one or more index partitions for which a database recovery progress report is to be provided; determine, based on an object recovery table generated by a database recovery utility, which of the selected one or more tablespace partitions and one or more index partitions have been recovered since the start time; and output a database recovery progress report that identifies at least a number or percentage of the selected one or more tablespace partitions and a number or percentage of the one or more index partitions that have been recovered by the database recovery utility since the start time. receive a start time; select a plurality of database objects including one or more tablespace partitions and one or more index partitions for which a database recovery progress report is to be provided; determine, based on an object recovery table generated by a database recovery utility, which of the selected one or more tablespace partitions and one or more index partitions have been recovered since the start time; and output a database recovery progress report that identifies at least a number or percentage of the selected one or more tablespace partitions and a number or percentage of the one or more index partitions that have been recovered by the database recovery utility since the start time.
A flusher comprising: a body that defines a collapsible flush dome; a passive flow path (4926, 4940) that extends between an upstream port and a downstream port, at least a portion of the flow path (4926, 4940) being defined by a pinch tube that extends across an exterior surface of the flush dome; and a valve having a first position in which the flush dome is not in fluid communication with the upstream port or the passive flow path (4926, 4940) and a second position in which the flush dome is in fluid communication with the upstream port and the passive flow path (4926, 4940); wherein application of a force to the pinch tube is effective to collapse the pinch tube to block the passive flow path (4926, 4940) and to collapse the dome to move the valve to the second position and flush fluid through the upstream port. a body that defines a collapsible flush dome; a passive flow path (4926, 4940) that extends between an upstream port and a downstream port, at least a portion of the flow path (4926, 4940) being defined by a pinch tube that extends across an exterior surface of the flush dome; and a valve having a first position in which the flush dome is not in fluid communication with the upstream port or the passive flow path (4926, 4940) and a second position in which the flush dome is in fluid communication with the upstream port and the passive flow path (4926, 4940); wherein application of a force to the pinch tube is effective to collapse the pinch tube to block the passive flow path (4926, 4940) and to collapse the dome to move the valve to the second position and flush fluid through the upstream port.
A transcatheter prosthetic heart valve, comprising: a stent frame (12, 112, 212, 312, 412, 512) comprising a top portion and a bottom portion; and a tube of leaflet material configured to encircle the stent frame; wherein the tube of leaflet material comprises: a lower portion disposed about an exterior surface of the stent frame (12, 112, 212, 312, 412, 512); and an upper portion that is at least partially disposed within an interior surface of the stent frame (12, 112, 212, 312, 412, 512); and wherein the upper portion disposed within the stent frame (12, 112, 212, 312, 412, 512) forms at least one leaflet capable of moving from a first position to a second position within the stent frame (12, 112, 212, 312, 412, 512), wherein: at least a portion of the upper portion of the leaflet material wraps around a connection point of the top portion and folds towards the interior surface of the stent frame (12, 112, 212, 312, 412, 512); and at least a second portion of the tube of leaflet material weaves under an upper edge (22, 32) of the top portion of the stent frame (12, 112, 212, 312, 412, 512) and folds towards the interior surface of the stent frame (12, 112, 212, 312, 412, 512)., a stent frame (12, 112, 212, 312, 412, 512) comprising a top portion and a bottom portion; and a tube of leaflet material configured to encircle the stent frame; wherein the tube of leaflet material comprises: a lower portion disposed about an exterior surface of the stent frame (12, 112, 212, 312, 412, 512); and an upper portion that is at least partially disposed within an interior surface of the stent frame (12, 112, 212, 312, 412, 512); and wherein the upper portion disposed within the stent frame (12, 112, 212, 312, 412, 512) forms at least one leaflet capable of moving from a first position to a second position within the stent frame (12, 112, 212, 312, 412, 512), wherein: at least a portion of the upper portion of the leaflet material wraps around a connection point of the top portion and folds towards the interior surface of the stent frame (12, 112, 212, 312, 412, 512); and at least a second portion of the tube of leaflet material weaves under an upper edge (22, 32) of the top portion of the stent frame (12, 112, 212, 312, 412, 512) and folds towards the interior surface of the stent frame (12, 112, 212, 312, 412, 512).,
A method of calibrating a patient monitoring system the method comprising: using an image detector of the patient monitoring system to obtain a set of calibration images comprising images of a calibration object at various orientations and locations; storing the obtained calibration images; processing the stored calibration images to calculate camera parameters defining the location and orientation of the image detector and parameters identifying internal characteristics of the image detector, and storing the calculated parameters; and subsequently re-calibrating the patient monitoring system by: obtaining an additional image of a calibration object using the image detector; detecting a change in the internal characteristics of the image detector using the additional image obtained using the image detector and the stored camera parameters, and if a change in the internal characteristics of an image detector is detected, obtaining a further set of calibration images using the image detector and recalculating the camera parameters for the image detector using the further set of calibration images; and if no change in the internal characteristics of an image detector is detected, recalculating the camera parameters for the image detector using the stored set of calibration images and the additional image of the calibration object obtained by the image detector. using an image detector of the patient monitoring system to obtain a set of calibration images comprising images of a calibration object at various orientations and locations; storing the obtained calibration images; processing the stored calibration images to calculate camera parameters defining the location and orientation of the image detector and parameters identifying internal characteristics of the image detector, and storing the calculated parameters; and subsequently re-calibrating the patient monitoring system by: obtaining an additional image of a calibration object using the image detector; detecting a change in the internal characteristics of the image detector using the additional image obtained using the image detector and the stored camera parameters, and if a change in the internal characteristics of an image detector is detected, obtaining a further set of calibration images using the image detector and recalculating the camera parameters for the image detector using the further set of calibration images; and obtaining an additional image of a calibration object using the image detector; detecting a change in the internal characteristics of the image detector using the additional image obtained using the image detector and the stored camera parameters, and if a change in the internal characteristics of an image detector is detected, obtaining a further set of calibration images using the image detector and recalculating the camera parameters for the image detector using the further set of calibration images; and if no change in the internal characteristics of an image detector is detected, recalculating the camera parameters for the image detector using the stored set of calibration images and the additional image of the calibration object obtained by the image detector.