mhurhangee/ep-ind-claims huggingface dataset:
A cardiac device, comprising: a sensing channel for generating an electrogram signal representing electrical activity in a ventricle; a pacing channel for delivering anti-tachycardia pacing to a ventricle; a shocking channel for delivering shock therapy to a ventricle; a controller, wherein the controller is programmed to: detect ventricular senses and measure a time interval between ventricular senses (RR intervals) to determine a current ventricular rate; detect a ventricular tachyarrhythmia when the ventricular rate exceeds a specified tachycardia detection rate; upon detection of a ventricular tachyarrhythmia, deliver anti-tachycardia pacing therapy if the ventricular rate is below a fibrillation detection rate; characterised in that the programmer is further programmed to upon detection of a ventricular tachyarrhythmia and if the ventricular rate is above the FDR, determine if a specified number of beats during the tachyarrhythmia meet a specified rate stability criterion and a specified monomorphic morphology criterion; if the specified rate stability and monomorphic morphology criteria are met, deliver anti-tachycardia pacing therapy; and, if the specified rate stability and monomorphic morphology criteria are not met, deliver shock therapy. a sensing channel for generating an electrogram signal representing electrical activity in a ventricle; a pacing channel for delivering anti-tachycardia pacing to a ventricle; a shocking channel for delivering shock therapy to a ventricle; a controller, wherein the controller is programmed to: detect ventricular senses and measure a time interval between ventricular senses (RR intervals) to determine a current ventricular rate; detect a ventricular tachyarrhythmia when the ventricular rate exceeds a specified tachycardia detection rate; upon detection of a ventricular tachyarrhythmia, deliver anti-tachycardia pacing therapy if the ventricular rate is below a fibrillation detection rate; detect ventricular senses and measure a time interval between ventricular senses (RR intervals) to determine a current ventricular rate; detect a ventricular tachyarrhythmia when the ventricular rate exceeds a specified tachycardia detection rate; upon detection of a ventricular tachyarrhythmia, deliver anti-tachycardia pacing therapy if the ventricular rate is below a fibrillation detection rate; characterised in that the programmer is further programmed to upon detection of a ventricular tachyarrhythmia and if the ventricular rate is above the FDR, determine if a specified number of beats during the tachyarrhythmia meet a specified rate stability criterion and a specified monomorphic morphology criterion; if the specified rate stability and monomorphic morphology criteria are met, deliver anti-tachycardia pacing therapy; and, if the specified rate stability and monomorphic morphology criteria are not met, deliver shock therapy.
An embossed detergent solid comprising: a) from 25 to 88 wt. % of free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % of free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.7 to 25 wt. % of water; wherein the organic acid has an average molecular mass of at most 500 Dalton, the molecular mass being based on the free acid equivalent. a) from 25 to 88 wt. % of free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % of free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.7 to 25 wt. % of water;
A venous access port assembly for implantation into a patient, the assembly having a housing having a discharge port, a needle-penetrable septum and a cap securable to the housing and retaining the septum securely in the assembly, the housing having a housing base (28, 106, 132, 206, 232) defining a bottom wall (44, 104, 130, 204, 230) of at least one reservoir, with the housing base having an outwardly facing bottom surface (54, 104, 230), characterized in that: the housing base (28, 106, 132, 206, 232) includes a set of discrete X-ray discernable alphabetical letters that convey information indicative of an attribute of the assembly on an X-ray when the X-ray of the patient is taken after implantation so that the practitioner can be advised after implantation of the attribute of the assembly; wherein the X-ray discernible alphabetical letters are embedded within the thickness of the bottom wall (44, 104, 130, 204, 230) of the housing base (28, 106, 132, 206, 232), are centered within a region directly beneath the needle-penetrable septum, and are defined in a disc of radiopaque material by cutouts through a body of the disc. the housing base (28, 106, 132, 206, 232) includes a set of discrete X-ray discernable alphabetical letters that convey information indicative of an attribute of the assembly on an X-ray when the X-ray of the patient is taken after implantation so that the practitioner can be advised after implantation of the attribute of the assembly; wherein the X-ray discernible alphabetical letters are embedded within the thickness of the bottom wall (44, 104, 130, 204, 230) of the housing base (28, 106, 132, 206, 232), are centered within a region directly beneath the needle-penetrable septum, and are defined in a disc of radiopaque material by cutouts through a body of the disc.
A hanger comprising: a hook; an operating portion] provided with a branching portion which is disposed at a base of the hook and which is divided into a fork to a front side and a rear side in a front view, knobs each having an insertion hole in a central part thereof and disposed at lower ends of the branching portion, and a pair of projecting portions provided on opposing surfaces of the knobs; a main body portion including a main slit which extends in a vertical direction and into which the projecting portions fit, and a pair of side slits which are provided on both sides of the main slit, extend toward the main slit, change to a downward orientation while curving ahead of the main slit, and then extend along the main slit; a pair of arms each provided with a base portion having a pin hole in a vicinity of a distal end of a base, and a movement pin which is provided in the base portion and which is inserted through the corresponding side slit; and a pin inserted through the insertion holes and the pin holes. a hook; an operating portion] provided with a branching portion which is disposed at a base of the hook and which is divided into a fork to a front side and a rear side in a front view, knobs each having an insertion hole in a central part thereof and disposed at lower ends of the branching portion, and a pair of projecting portions provided on opposing surfaces of the knobs; a main body portion including a main slit which extends in a vertical direction and into which the projecting portions fit, and a pair of side slits which are provided on both sides of the main slit, extend toward the main slit, change to a downward orientation while curving ahead of the main slit, and then extend along the main slit; a pair of arms each provided with a base portion having a pin hole in a vicinity of a distal end of a base, and a movement pin which is provided in the base portion and which is inserted through the corresponding side slit; and a pin inserted through the insertion holes and the pin holes.
A method of coating an alloy wheel, comprising the steps of: forming an alloy wheel having a three dimensional configuration defining a face and recessed surfaces; machining said face of said wheel thereby providing a smooth surface at said face and defining an edge between said smooth surface of said face and said recessed surfaces; providing a nozzle element for projecting a plasma jet toward said wheel; projecting the plasma jet toward said smooth surface of said face, said edge, and toward at least a portion of said recessed surfaces thereby forming an alloy oxide at least on said face and said edge disposed between said face and said recessed surfaces; applying a first polymeric coating over said face, said recessed surfaces and said edge disposed between said face and said recessed surfaces. forming an alloy wheel having a three dimensional configuration defining a face and recessed surfaces; machining said face of said wheel thereby providing a smooth surface at said face and defining an edge between said smooth surface of said face and said recessed surfaces; providing a nozzle element for projecting a plasma jet toward said wheel; projecting the plasma jet toward said smooth surface of said face, said edge, and toward at least a portion of said recessed surfaces thereby forming an alloy oxide at least on said face and said edge disposed between said face and said recessed surfaces; applying a first polymeric coating over said face, said recessed surfaces and said edge disposed between said face and said recessed surfaces.
A method of forming a microelectronic structure, said method comprising: providing a stack comprising: a substrate having a surface; and one or more optional intermediate layers on said substrate surface; applying a composition to said intermediate layers, if present, or to said substrate surface, if no intermediate layers are present, said composition comprising a block copolymer comprising a first block and a second block, said first block being a copolymer that includes recurring monomers comprising lactic acid moieties that are present as side chains on said recurring monomers, and said second block comprising recurring monomers selected from the group consisting of styrene, other styrene-containing monomers, alkyl vinylbenzyl ethers, vinylbenzyl ethers, vinylbiphenyl, vinylbenzocyclobutene, vinylnaphthalene, vinylphenanthrene, vinylanthracene, vinylanisole, vinylpyridine, vinylnaphthalate, and mixtures thereof; and causing said composition to self-assemble into a self-assembled layer, wherein said self-assembled layer comprises a first self-assembled region and a second self-assembled region different from said first self-assembled region. providing a stack comprising: a substrate having a surface; and one or more optional intermediate layers on said substrate surface; a substrate having a surface; and one or more optional intermediate layers on said substrate surface; applying a composition to said intermediate layers, if present, or to said substrate surface, if no intermediate layers are present, said composition comprising a block copolymer comprising a first block and a second block, said first block being a copolymer that includes recurring monomers comprising lactic acid moieties that are present as side chains on said recurring monomers, and said second block comprising recurring monomers selected from the group consisting of styrene, other styrene-containing monomers, alkyl vinylbenzyl ethers, vinylbenzyl ethers, vinylbiphenyl, vinylbenzocyclobutene, vinylnaphthalene, vinylphenanthrene, vinylanthracene, vinylanisole, vinylpyridine, vinylnaphthalate, and mixtures thereof; and causing said composition to self-assemble into a self-assembled layer, wherein said self-assembled layer comprises a first self-assembled region and a second self-assembled region different from said first self-assembled region.
Device for protecting electrically powered units (195, 695, 795, 895) against a reverse application of a power supply (190, 790, 890), the device comprising a first input terminal (102, 202, 302, 402, 502, 602, 702, 802) adapted to be connected to a first terminal of the power supply (190, 790, 890), a second input terminal (104, 204, 304, 404, 504, 604, 704, 804) adapted to be connected to a second terminal of the power supply (190, 790, 890), an output terminal (106, 206, 306, 406, 506, 606, 706, 806), a PTC element (110, 210, 310, 410, 510, 610, 710, 810) arranged between the first input terminal (102, 202, 302, 402, 502, 602, 702, 802) and the output terminal (106, 206, 306, 406, 506, 606, 706, 806), and characterised in that the device further comprises a heating element thermally coupled to the PTC element (110, 210, 310, 410, 510, 610, 710, 810) and adapted to increase the temperature of the PTC element (110, 210, 310, 410, 510, 610, 710, 810) in case the first input terminal (102, 202, 302, 402, 502, 602, 702, 802) is connected to the second terminal of the power supply and the second input terminal (104, 204, 304, 404, 504, 604, 704, 804) is connected to the first terminal of the power supply, thereby causing an increased electrical resistance between the first input terminal (102, 202, 302, 402, 502, 602, 702, 802) and the output terminal (106, 206, 306, 406, 506, 606, 706, 806).
An ionisation system comprising:- a DC-to-DC voltage converter configured for receiving an input DC voltage and for providing an output adjustable DC voltage; a controller configured for controlling the operation of the DC-to-DC voltage converter to provide the output adjustable DC voltage; a high voltage generator (120, 130, 140) configured for receiving the output adjustable DC voltage as an input and for generating a high frequency, high voltage AC voltage output (125a, 125b); an ionisation chamber; at least one ionising electrode (150a, 150b) within the ionisation chamber and connected to the high frequency, high voltage AC voltage output (125a, 125b) and configured for generating an ionisation field within the ionisation chamber; a gas supply (170, 172) configured to be introduced into the ionisation chamber through the generated ionisation field to provide an ionised gas flow; a valve located in a gas supply (170, 172), the valve having a first position and a second position, the first and second positions being configured for initiating and terminating the gas supply to the ionisation chamber; and a pressure sensor located in the gas supply and configured for providing a signal to the controller in accordance with a sensed pressure of the gas supply. a DC-to-DC voltage converter configured for receiving an input DC voltage and for providing an output adjustable DC voltage; a controller configured for controlling the operation of the DC-to-DC voltage converter to provide the output adjustable DC voltage; a high voltage generator (120, 130, 140) configured for receiving the output adjustable DC voltage as an input and for generating a high frequency, high voltage AC voltage output (125a, 125b); an ionisation chamber; at least one ionising electrode (150a, 150b) within the ionisation chamber and connected to the high frequency, high voltage AC voltage output (125a, 125b) and configured for generating an ionisation field within the ionisation chamber; a gas supply (170, 172) configured to be introduced into the ionisation chamber through the generated ionisation field to provide an ionised gas flow; a valve located in a gas supply (170, 172), the valve having a first position and a second position, the first and second positions being configured for initiating and terminating the gas supply to the ionisation chamber; and a pressure sensor located in the gas supply and configured for providing a signal to the controller in accordance with a sensed pressure of the gas supply.
A wet dispersing device for a dispersion circuit, in particular for laser particle size measuring devices, comprising: a sample bath for a dispersion, containing a liquid dispersion medium; a feed line for introducing the dispersion into the dispersion circuit; a return line for returning the dispersion from the dispersion circuit to the sample bath; a pump for pumping the dispersion through the dispersion circuit; an outlet for discharging the dispersion from the dispersion circuit in order to empty and/or flush the dispersion circuit; defining i) a circulation position in which, when the pump is operated, the dispersion is pumped into the dispersion circuit and circulates through the dispersion circuit and the sample bath in order to allow for measurements to be made on the dispersion using a measuring cell through which the dispersion flows; and ii) a discharge and flush position in which, when the pump is operated, the dispersion is pumped from the dispersion circuit into the outlet, to empty the dispersion circuit and the sample bath from the dispersion contained therein and, optionally, to flush with fresh medium; characterized by a pH probe for measuring the pH value of the dispersion in the dispersion circuit. a sample bath for a dispersion, containing a liquid dispersion medium; a feed line for introducing the dispersion into the dispersion circuit; a return line for returning the dispersion from the dispersion circuit to the sample bath; a pump for pumping the dispersion through the dispersion circuit; an outlet for discharging the dispersion from the dispersion circuit in order to empty and/or flush the dispersion circuit; defining i) a circulation position in which, when the pump is operated, the dispersion is pumped into the dispersion circuit and circulates through the dispersion circuit and the sample bath in order to allow for measurements to be made on the dispersion using a measuring cell through which the dispersion flows; and ii) a discharge and flush position in which, when the pump is operated, the dispersion is pumped from the dispersion circuit into the outlet, to empty the dispersion circuit and the sample bath from the dispersion contained therein and, optionally, to flush with fresh medium; i) a circulation position in which, when the pump is operated, the dispersion is pumped into the dispersion circuit and circulates through the dispersion circuit and the sample bath in order to allow for measurements to be made on the dispersion using a measuring cell through which the dispersion flows; and ii) a discharge and flush position in which, when the pump is operated, the dispersion is pumped from the dispersion circuit into the outlet, to empty the dispersion circuit and the sample bath from the dispersion contained therein and, optionally, to flush with fresh medium; characterized by a pH probe for measuring the pH value of the dispersion in the dispersion circuit.
A method of operating a processing system to process a job for printing, the printing to generate multiple variable instances of one or more pages, at least one page including a plurality of elements of which some are fixed from instance to instance, and some may vary from instance to instance, the method being characterised by comprising, for a page that has one or more variable elements: - dividing the page into a plurality of non-overlapping parts, of which at least one part includes variable content that has one or more variable elements or portions thereof in at least one instance; - rasterizing the page with no variable content present into a rasterized fixed page that includes for at least any part that has no variable content a rasterized fixed image; - identifying one or more parts that include variable content; and - rasterizing each instance of the page with the variable elements of the page instance into a rasterized instance that includes for each part that has variable content a rasterized variable image that includes the variable content and any non-variable content of the instance; such that the rasterized fixed images and the rasterized variable images of each instance are combinable to form a rasterized instance of the page. - dividing the page into a plurality of non-overlapping parts, of which at least one part includes variable content that has one or more variable elements or portions thereof in at least one instance; - rasterizing the page with no variable content present into a rasterized fixed page that includes for at least any part that has no variable content a rasterized fixed image; - identifying one or more parts that include variable content; and - rasterizing each instance of the page with the variable elements of the page instance into a rasterized instance that includes for each part that has variable content a rasterized variable image that includes the variable content and any non-variable content of the instance; such that the rasterized fixed images and the rasterized variable images of each instance are combinable to form a rasterized instance of the page.
A method for forming a low-e panel comprising: providing a transparent substrate; forming a metal oxynitride layer over the transparent substrate, wherein the metal oxynitride layer comprises a first element, a second element, and a third element, wherein the first element is different than the second element and the third element, and wherein the second element is different than the third element, and wherein the first element comprises tin or zinc, and the second element and the third element each comprise one of tin, zinc, antimony, silicon, strontium, titanium, niobium, zirconium, magnesium, aluminum, yttrium, lanthanum, hafnium, or bismuth; and forming a reflective layer over the transparent substrate. providing a transparent substrate; forming a metal oxynitride layer over the transparent substrate, wherein the metal oxynitride layer comprises a first element, a second element, and a third element, wherein the first element is different than the second element and the third element, and wherein the second element is different than the third element, and wherein the first element comprises tin or zinc, and the second element and the third element each comprise one of tin, zinc, antimony, silicon, strontium, titanium, niobium, zirconium, magnesium, aluminum, yttrium, lanthanum, hafnium, or bismuth; and forming a reflective layer over the transparent substrate.
An animal watering device comprising a trough for holding water, a water conduit system in fluid communication with the trough and arranged to be connected to a water supply, and an electric power consuming water level control system comprising a controller and at least one water level sensor (28, 32, 34). arranged to sense a water level in the trough, characterized in that the animal watering device comprises an electric power unit comprising an electric generator and an electrically chargeable unit, wherein the water level control system is connected to the electrically chargeable unit, and wherein the electric generator is connected to the water conduit system, the electric generator being arranged to be driven by water from the water supply and to charge the electrically chargeable unit.
A method for preparing a water-soluble fluorescent fullerene derivative, the method comprising the steps of: (a) dispersing fullerene in a first solvent to obtain a dispersion; (b) mixing the dispersion with a strong base catalyst and diethylene glycol or tetraethylene glycol as a ligand containing a terminal hydroxyl group to obtain a mixture; and (c) purifying the mixture, thereby preparing a fluorescent fullerene derivative, wherein in step (a), the fullerene is dispersed in the first solvent to a concentration of 0.0001 mg/ml to 10 mg/ml, and wherein in step (b), the ligand containing the terminal hydroxyl group, and the catalyst are used in the amounts of 0.0001-100 parts by weight and 0.0001-100 parts by weight, respectively, based on 100 parts by weight of the dispersion. (a) dispersing fullerene in a first solvent to obtain a dispersion; (b) mixing the dispersion with a strong base catalyst and diethylene glycol or tetraethylene glycol as a ligand containing a terminal hydroxyl group to obtain a mixture; and (c) purifying the mixture, thereby preparing a fluorescent fullerene derivative,