mhurhangee/ep-ind-claims huggingface dataset:
Medical device for managing the glycaemic balance of a diabetic patient, said device comprising: - a memory module configured for storing a plurality of blood glucose levels measured during a glycaemic balance phase over a given period of time, said blood glucose levels measured being relative to a content of a blood component representative of the blood glucose level of said patient, and - a processing circuit implementing a management rule configured for detecting a glycaemic imbalance state in the patient by comparing said blood glucose levels measured with a threshold value range having an upper blood glucose limit corresponding to a high blood glucose state and a lower blood glucose limit corresponding to a low blood glucose state, said processing circuit being configured for emitting a warning signal when a glycaemic imbalance state is detected, - a titration circuit configured for calculating a daily insulin dose; the device further comprising a processor configured for, upon receipt of the warning signal: - deactivating said processing circuit so as to bring an end to the balance phase, and - activate the titration circuit so as to initiate a titration phase for determining a new daily insulin dose; said titration circuit being configured for emitting a balance signal when a glycaemic balance state is detected during the titration phase; the processor being further configured for, upon receipt of the balance signal: - activate the processing circuit, and - deactivate the titration circuit. - a memory module configured for storing a plurality of blood glucose levels measured during a glycaemic balance phase over a given period of time, said blood glucose levels measured being relative to a content of a blood component representative of the blood glucose level of said patient, and - a processing circuit implementing a management rule configured for detecting a glycaemic imbalance state in the patient by comparing said blood glucose levels measured with a threshold value range having an upper blood glucose limit corresponding to a high blood glucose state and a lower blood glucose limit corresponding to a low blood glucose state, said processing circuit being configured for emitting a warning signal when a glycaemic imbalance state is detected, - a titration circuit configured for calculating a daily insulin dose; - deactivating said processing circuit so as to bring an end to the balance phase, and - activate the titration circuit so as to initiate a titration phase for determining a new daily insulin dose; - activate the processing circuit, and - deactivate the titration circuit.
A bottling machine comprising a container inlet, a container outlet, a carousel for filling the containers with a main liquid material, a plurality of transfer wheels for transferring containers from the container inlet to the carousel and from the carousel to the container outlet, said bottling machine comprising a first micro-carousel for introducing a first additive fluid into transferred containers; and a second micro-carousel for introducing a second additive fluid into transferred containers; wherein the first micro-carousel and the second micro-carousel are adjacent and wherein each micro-carousel (61,62) comprises holding sites where the containers are held during transfer and the possible introduction of additive fluid, wherein an additive introduction nozzle is situated above each holding site of the micro-carousel (61,62), each nozzle of at least one of the first micro-carousel or second micro-carousel being offset from a central axis of a corresponding holding site, said central axis passing through the centre of an opening of a container held in the holding site, the offset value and direction being adapted so that, when a container passes from the first micro-carousel to the adjacent second micro-carousel, a nozzle of the first micro-carousel and a nozzle of the second micro-carousel are both positioned over the opening of the container, without coming into contact, characterized in that the offset is defined by the angle between the central axis of a holding site and the centre of the outlet of a corresponding nozzle.
A headset assembly system for a bicycle comprising a handlebar stem, radially fastenable by tightening to a fork tube which is rotatable by means of headset bearings with respect to a head tube wherein the headset bearings are fastened, a retaining flange, radially fastenable by tightening to the fork tube, a thrust ring, axially movable along the fork tube, such that the retaining flange and the thrust ring are configured to contact each other by means of at least one ramp which relates a rotation with a movement relative to each other, characterised in that the thrust ring is arranged fitted inside of the stem in contact with a fitting stop such that, when the thrust ring is rotated around the fork tube with the retaining flange fastened to the fork tube, the thrust ring is configured to move with respect to the retaining flange to push the stem against the headset bearings. a handlebar stem, radially fastenable by tightening to a fork tube which is rotatable by means of headset bearings with respect to a head tube wherein the headset bearings are fastened, a retaining flange, radially fastenable by tightening to the fork tube, a thrust ring, axially movable along the fork tube, such that the retaining flange and the thrust ring are configured to contact each other by means of at least one ramp which relates a rotation with a movement relative to each other, characterised in that the thrust ring is arranged fitted inside of the stem in contact with a fitting stop such that, when the thrust ring is rotated around the fork tube with the retaining flange fastened to the fork tube, the thrust ring is configured to move with respect to the retaining flange to push the stem against the headset bearings.
Method of producing a metallic strip by endless rolling, in which initially the strip is cast in a casting plant and this strip is subsequently continuously rolled to the finished strip in a roll train with at least one roll stand, wherein a conveying path, which extends up to a shears driver and/or a coiler driver, for the strip is present behind the last roll stand in conveying direction of the strip, wherein a coiler for winding up the finished strip is arranged behind the shears driver and/or the coiler driver or wherein a conveying path is present between two roll stands of the roll train, wherein a coiler for winding up the finished strip is arranged behind the roll train, wherein a nominal tensile stress is maintained in the strip in the conveying path at least temporarily, wherein the following measuring cycle for determination of the planarity of the strip is operated at defined points in time: a) reducing the tensile stress in the strip, which is present in the conveying path, from the nominal tensile stress to a reduced tensile stress value; b) after performance of step a): measuring the degree of planarity of the strip by means of optical planarity measuring apparatus; c) after performance of step b): increasing the tensile stress in the strip, which is present in the conveying path, from the reduced tensile stress value to the nominal tensile stress, wherein within the measuring cycle a performance of the planarity improvement of parabolic or symmetrical planarity components by use of working roll bending at at least one roll stand and/or by use of pivot regulation and improvement of the asymmetrical planarity components by changing the adjustment positions at at least one roll stand is carried out, wherein the measuring cycle is periodically repeated every 2 minutes to 10 minutes during performance of the method and wherein performance of the steps a) to c) is carried out during a time period between 1 second and 20 seconds. a) reducing the tensile stress in the strip, which is present in the conveying path, from the nominal tensile stress to a reduced tensile stress value; b) after performance of step a): measuring the degree of planarity of the strip by means of optical planarity measuring apparatus; c) after performance of step b): increasing the tensile stress in the strip, which is present in the conveying path, from the reduced tensile stress value to the nominal tensile stress,
A sterilely packaged set of right and left glove-in-gloves, each glove-in-glove comprising: an outer glove having a thumb and a plurality of fingers (102, 102, 106, 108), further comprising crotches (122, 124, 128) between adjacent fingers and thumb; and an inner glove having a thumb and a plurality of fingers (102, 102, 106, 108) with finger tips, further comprising crotches between adjacent fingers (122, 124, 128) and thumb, characterized in that the inner glove is disposed inside the outer glove within a packaging material, with the finger tips of the inner glove and the outer glove being aligned; wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer, and the inner gloves have a lesser cross-sectional thickness than the outer. an outer glove having a thumb and a plurality of fingers (102, 102, 106, 108), further comprising crotches (122, 124, 128) between adjacent fingers and thumb; and an inner glove having a thumb and a plurality of fingers (102, 102, 106, 108) with finger tips, further comprising crotches between adjacent fingers (122, 124, 128) and thumb, characterized in that the inner glove is disposed inside the outer glove within a packaging material, with the finger tips of the inner glove and the outer glove being aligned; wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer, and the inner gloves have a lesser cross-sectional thickness than the outer. characterized in that the inner glove is disposed inside the outer glove within a packaging material, with the finger tips of the inner glove and the outer glove being aligned; wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer, and the inner gloves have a lesser cross-sectional thickness than the outer. wherein the gloves are enfolded with the packaging material such that the material can be unfolded to present the right glove-in-glove on the right side and the left glove-in-glove on the left side, laid out on the packaging material; wherein the glove-in-gloves are packaged cuff-folded to facilitate donning; and wherein the inner gloves are the same size as the outer, and the inner gloves have a lesser cross-sectional thickness than the outer.
An impact head for association with the terminal end of a guardrail having one or more cable(s) (15, 15a) and for use in roading networks and/or vehicle road lanes requiring separation by a barrier, the impact head including a cable routing means, the impact head being characterised in that: the cable routing means comprises a bar member having a longitudinal axis and including a cable entry port (P1, P2) adapted to allow said cable (15, 15a) to pass directly there through, when said bar member is in a first non-cable gripping orientation, wherein said bar member is configured to be rotatable between said first non-cable gripping orientation and a second cable-gripping orientation, wherein rotation of said bar member though substantially 90° about said longitudinal axis moves said bar member between each of said first non-cable-gripping orientation, and said second cable-gripping orientation, wherein rotation of the bar member from the first orientation to the second orientation ensures that the at least one cable follows a tortuous pathway. the cable routing means comprises a bar member having a longitudinal axis and including a cable entry port (P1, P2) adapted to allow said cable (15, 15a) to pass directly there through, when said bar member is in a first non-cable gripping orientation, wherein said bar member is configured to be rotatable between said first non-cable gripping orientation and a second cable-gripping orientation, wherein rotation of said bar member though substantially 90° about said longitudinal axis moves said bar member between each of said first non-cable-gripping orientation, and said second cable-gripping orientation, wherein rotation of the bar member from the first orientation to the second orientation ensures that the at least one cable follows a tortuous pathway.
A prosthetic heart valve comprising: a self-expanding wire frame comprising a generally tubular body portion, an interior area, a longitudinal axis, a first end, and a second end, wherein the wire frame comprises a plurality of adjacent rows (20, 21, 22, 23, 24, 25, 26) of modified diamond-shaped structures extending between the first and second ends (12, 14); wherein the first end is flared outwardly and includes a plurality of crowns, wherein at least one of the stent crowns at the first end includes a crown end that includes a connector for attachment to a delivery system; and wherein the first end has a different diameter in its expanded condition as the diameter of the second end; wherein the first end comprises six crowns and wherein the second end comprises twelve crowns, the prosthetic heart valve further comprising a connector extending from at least one of the crowns of the second end of the wire frame, and a valve structure attached within the interior area of the wire frame, the valve structure comprising a plurality of leaflets, wherein the wire frame includes a first row of twelve modified diamond-shaped structures at the second end. a self-expanding wire frame comprising a generally tubular body portion, an interior area, a longitudinal axis, a first end, and a second end, wherein the wire frame comprises a plurality of adjacent rows (20, 21, 22, 23, 24, 25, 26) of modified diamond-shaped structures extending between the first and second ends (12, 14); wherein the first end is flared outwardly and includes a plurality of crowns, wherein at least one of the stent crowns at the first end includes a crown end that includes a connector for attachment to a delivery system; and wherein the first end has a different diameter in its expanded condition as the diameter of the second end; wherein the first end comprises six crowns and wherein the second end comprises twelve crowns, wherein the first end is flared outwardly and includes a plurality of crowns, wherein at least one of the stent crowns at the first end includes a crown end that includes a connector for attachment to a delivery system; and wherein the first end has a different diameter in its expanded condition as the diameter of the second end; wherein the first end comprises six crowns and wherein the second end comprises twelve crowns, the prosthetic heart valve further comprising a connector extending from at least one of the crowns of the second end of the wire frame, and a valve structure attached within the interior area of the wire frame, the valve structure comprising a plurality of leaflets, wherein the wire frame includes a first row of twelve modified diamond-shaped structures at the second end.
A solid-state imaging element comprising: a semiconductor substrate and a wiring; a high-concentration diffusion layer formed of a high concentration N-type layer at the surface of the substrate, wherein the high-concentration diffusion layer is configured to serve as a connection portion by which the wiring is connected to the semiconductor substrate; a junction leak control film formed directly on and covering a surface of the high-concentration diffusion layer; a photoelectric conversion portion formed in the substrate configured to generate and accumulate a charge according to an amount of radiated light; and a dark current suppression film formed directly on and covering a surface of the photoelectric conversion portion, characterized in that the amount of negative fixed charge of the junction leak control film over the high-concentration diffusion layer is set to be less than the amount of negative fixed charge of the dark current suppression film over the photoelectric conversion portion. a semiconductor substrate and a wiring; a high-concentration diffusion layer formed of a high concentration N-type layer at the surface of the substrate, wherein the high-concentration diffusion layer is configured to serve as a connection portion by which the wiring is connected to the semiconductor substrate; a junction leak control film formed directly on and covering a surface of the high-concentration diffusion layer; a photoelectric conversion portion formed in the substrate configured to generate and accumulate a charge according to an amount of radiated light; and a dark current suppression film formed directly on and covering a surface of the photoelectric conversion portion, characterized in that the amount of negative fixed charge of the junction leak control film over the high-concentration diffusion layer is set to be less than the amount of negative fixed charge of the dark current suppression film over the photoelectric conversion portion.
A method for producing a substantially shell-shaped, fiber-reinforced plastic part, comprising: - placing a material blank, made substantially of a fibrous material, into a shaping tool comprising an upper die and a lower die, and - bringing the shaping tool, wherein the upper die is segmented into shaping segments, in segments or in groups of segments into shaping engagement with at least part of the material blank, such that the engagement region expands, in segments or in groups of segments, toward an edge of the material blank over the course of the shaping process; characterized in that - a fold holder, namely at least one displaceable segment on the lower die, is moved toward the material blank and/or is preloaded in the direction of the material blank, such that a sagging of the material blank due to the force of gravity after the material blank is placed in the shaping tool is prevented, - an advancing of the die toward the material blank initially presses the material blank between a first shaping segment of the die and the fold holder, and - the fold holder deflects inwardly in the lower die and further shaping segments come successively in contact with the material blank and successively deflect inwardly as the die is advanced further. - placing a material blank, made substantially of a fibrous material, into a shaping tool comprising an upper die and a lower die, and - bringing the shaping tool, wherein the upper die is segmented into shaping segments, in segments or in groups of segments into shaping engagement with at least part of the material blank, such that the engagement region expands, in segments or in groups of segments, toward an edge of the material blank over the course of the shaping process; - a fold holder, namely at least one displaceable segment on the lower die, is moved toward the material blank and/or is preloaded in the direction of the material blank, such that a sagging of the material blank due to the force of gravity after the material blank is placed in the shaping tool is prevented, - an advancing of the die toward the material blank initially presses the material blank between a first shaping segment of the die and the fold holder, and - the fold holder deflects inwardly in the lower die and further shaping segments come successively in contact with the material blank and successively deflect inwardly as the die is advanced further.
A method of receiving subpackets (A, A1', A2', A3') in a mobile communication system for a broadcast multicast service, BCMCS, using a single frequency carrier, the method comprising: receiving at a mobile station a first broadcast subpacket from a base station, BS, at a first time slot through a first frequency carrier; and receiving at the mobile station a second broadcast subpacket (A1') from the BS at a second time slot through the first frequency carrier, wherein parity bits of the second broadcast subpacket (A1') are different than that of the first broadcast subpacket; receiving at the mobile station a first relayed broadcast subpacket (A2') from a first relay station, RS, at the second time slot through the first frequency carrier, wherein the first relayed broadcast subpacket (A2') is a broadcast subpacket having a space-time coded version of the second broadcast subpacket (A1'); receiving at the mobile station a second relayed broadcast subpacket (A3') from a second RS at the second time slot through the first frequency carrier, wherein the second relayed broadcast subpacket (A3') is a broadcast subpacket having repetition of the second broadcast subpacket (A3'), and wherein information of the first broadcast subpacket, the second broadcast subpacket (A1'), the first relayed broadcast subpacket (A2') and the second relayed broadcast subpacket (A3') are the same. receiving at a mobile station a first broadcast subpacket from a base station, BS, at a first time slot through a first frequency carrier; and receiving at the mobile station a second broadcast subpacket (A1') from the BS at a second time slot through the first frequency carrier, wherein parity bits of the second broadcast subpacket (A1') are different than that of the first broadcast subpacket; receiving at the mobile station a first relayed broadcast subpacket (A2') from a first relay station, RS, at the second time slot through the first frequency carrier, wherein the first relayed broadcast subpacket (A2') is a broadcast subpacket having a space-time coded version of the second broadcast subpacket (A1'); receiving at the mobile station a second relayed broadcast subpacket (A3') from a second RS at the second time slot through the first frequency carrier, wherein the second relayed broadcast subpacket (A3') is a broadcast subpacket having repetition of the second broadcast subpacket (A3'), and wherein information of the first broadcast subpacket, the second broadcast subpacket (A1'), the first relayed broadcast subpacket (A2') and the second relayed broadcast subpacket (A3') are the same.
A topically administrable vasodilator formulation comprising: (i) arginine; (ii) black pepper extract; and (iii) peppermint extract. (i) arginine; (ii) black pepper extract; and (iii) peppermint extract.