mhurhangee/patent-ind-claim-en huggingface dataset:
A valve comprising a hollow body which extends along a main axis (X), wherein at least one secondary body is arranged at one end of the hollow body substantially coaxially with the main axis (X) and comprises an inner end portion with a collar that projects towards the inner surface of the hollow body , in which the hollow body comprises at least one annular groove in which a ring is arranged at least partially to prevent movement of the secondary body towards the end of the hollow body , in which the ring is divided into at least two arcs configured to be inserted individually inside the groove of the hollow body to form the ring , wherein one or more stops are arranged around the secondary body to lock the ring , characterized in that said one or more stops have an arched shape to be arranged astride two adjacent arcs of the ring and said one or more stops present at least one portion having a cross section with a substantially right trapezoid shape, the bases of the right trapezoid being perpendicular to the main axis (X) and the oblique side of the right trapezoid facing the ring , wherein the ring comprises an oblique side facing said one or more stops , so that the ring and said one or more stops form a shape coupling which prevents said one or more stops to move towards the end of the hollow body .
A light-emitting diode, LED, package comprising: a submount ; a metal pattern on the submount , wherein the metal pattern comprises: a die attach pad (61-1) formed by a first portion of a first metal trace (50-1) and a first portion of a second metal trace (50-4), wherein the first metal trace is discontinuous with the second metal trace; and a bond pad (62-1) formed by a second portion of the first metal trace, wherein a third portion of the first metal trace is continuous with the die attach pad (61-1) and the bond pad (62-1); an LED chip (66-1) mounted on the die attach pad (61-1); and a bond metal on the bond pad (62-1), characterized in that the bond metal comprises a conductive finger (74") that extends on a top surface of the third portion of the first metal trace to a position on the first portion of the metal trace such that the conductive finger (74") extends at least to a first edge of the LED chip (66-1) that is opposite a second edge of the LED chip (66-1) that is closest to the bond pad (62-1). a submount ; a metal pattern on the submount , wherein the metal pattern comprises: a die attach pad (61-1) formed by a first portion of a first metal trace (50-1) and a first portion of a second metal trace (50-4), wherein the first metal trace is discontinuous with the second metal trace; and a bond pad (62-1) formed by a second portion of the first metal trace, wherein a third portion of the first metal trace is continuous with the die attach pad (61-1) and the bond pad (62-1); an LED chip (66-1) mounted on the die attach pad (61-1); and a bond metal on the bond pad (62-1), characterized in that the bond metal comprises a conductive finger (74") that extends on a top surface of the third portion of the first metal trace to a position on the first portion of the metal trace such that the conductive finger (74") extends at least to a first edge of the LED chip (66-1) that is opposite a second edge of the LED chip (66-1) that is closest to the bond pad (62-1).
A method of performing a basophil analysis with an automated hematology analyzer, the method comprising: (a) diluting a sample of whole blood containing a plurality of basophils and lymphocytes with a reagent, wherein the reagent includes a red blood cell (RBC) lysing agent and a cell membrane permeable, nucleic acid binding fluorescent dye; (b) incubating the diluted blood sample of step (a) for an incubation period of less than about 30 seconds, at a temperature ranging from about 30°C to about 50°C; (c) delivering the incubated sample from step (b) to a flow cell in the hematology analyzer; (d) exciting the incubated sample from step (c) with an excitation source as the incubated sample traverses the flow cell; (e) collecting a plurality of light scatter signals and a fluorescence emission signal from the excited sample; (f) prior to performing a basophil analysis, screening for nuclei-containing events comprising white blood cells (WBCs) and nucleated red blood cells (nRBCs) to eliminate interference from unlysed RBCs and RBC fragments by means of the fluorescent dye and a fluorescence trigger, wherein the fluorescence trigger is set between fluorescence emission signals from RBCs and fluorescence emission signals from WBCs and nRBCs; and (g) performing a basophil cluster analysis on the nuclei-containing events of step (f) based on all the signals collected in step (e). (a) diluting a sample of whole blood containing a plurality of basophils and lymphocytes with a reagent, wherein the reagent includes a red blood cell (RBC) lysing agent and a cell membrane permeable, nucleic acid binding fluorescent dye; (b) incubating the diluted blood sample of step (a) for an incubation period of less than about 30 seconds, at a temperature ranging from about 30°C to about 50°C; (c) delivering the incubated sample from step (b) to a flow cell in the hematology analyzer; (d) exciting the incubated sample from step (c) with an excitation source as the incubated sample traverses the flow cell; (e) collecting a plurality of light scatter signals and a fluorescence emission signal from the excited sample; (f) prior to performing a basophil analysis, screening for nuclei-containing events comprising white blood cells (WBCs) and nucleated red blood cells (nRBCs) to eliminate interference from unlysed RBCs and RBC fragments by means of the fluorescent dye and a fluorescence trigger, wherein the fluorescence trigger is set between fluorescence emission signals from RBCs and fluorescence emission signals from WBCs and nRBCs; and (g) performing a basophil cluster analysis on the nuclei-containing events of step (f) based on all the signals collected in step (e).
A magnetohydrodynamic power generation system configured in a pipeline , the magnetohydrodynamic power generation system characterized by : one or more permanent magnets ; a plurality of flow tubes arranged inside the pipeline and arranged concentrically around the one or more permanent magnets; a set of electrode pairs lining inside each of the flow tubes and in contact with a flowing media through the pipeline to generate and store power in concert with the one or more permanent magnets; a plurality of downhole valves powered by the magnetohydrodynamic power generation system; and a processor connected to the set of electrode pairs and the one or more permanent magnets, the processor executing a set of instructions on a non-transitory computer readable media to calculate a water holdup measurement based upon an amount of power generated by the magnetohydrodynamic power generation system. one or more permanent magnets ; a plurality of flow tubes arranged inside the pipeline and arranged concentrically around the one or more permanent magnets; a set of electrode pairs lining inside each of the flow tubes and in contact with a flowing media through the pipeline to generate and store power in concert with the one or more permanent magnets; a plurality of downhole valves powered by the magnetohydrodynamic power generation system; and a processor connected to the set of electrode pairs and the one or more permanent magnets, the processor executing a set of instructions on a non-transitory computer readable media to calculate a water holdup measurement based upon an amount of power generated by the magnetohydrodynamic power generation system.
A post-foaming composition comprising: a) water; b) one or more anionic surfactants in an amount of about 2 to about 20% by weight of the composition; c) one or more amine oxide surfactants in an amount of about 1 to about 10% by weight of the composition; d) a hydrophobically modified alkali-swellable acrylic emulsion (HASE) polymer in an amount of about 0.5 to about 3% polymer solids by weight of the composition; e) a water-insoluble oil from in an amount of about 1% to about 50% by weight of the total composition, wherein the solubility of the substantially water-insoluble oil in water at 20°C is less than 50% by weight of a water/oil mixture; and f) a foaming agent comprising a non-polar saturated aliphatic hydrocarbon having from 3 to 6 carbon atoms. a) water; b) one or more anionic surfactants in an amount of about 2 to about 20% by weight of the composition; c) one or more amine oxide surfactants in an amount of about 1 to about 10% by weight of the composition; d) a hydrophobically modified alkali-swellable acrylic emulsion (HASE) polymer in an amount of about 0.5 to about 3% polymer solids by weight of the composition; e) a water-insoluble oil from in an amount of about 1% to about 50% by weight of the total composition, wherein the solubility of the substantially water-insoluble oil in water at 20°C is less than 50% by weight of a water/oil mixture; and f) a foaming agent comprising a non-polar saturated aliphatic hydrocarbon having from 3 to 6 carbon atoms.
Anesthetic dispenser comprising - an anesthetic container , - a feed device which is at least temporarily in a fluid connection with the anesthetic container , and - an anesthetic vaporizer , the anesthetic container comprising - an anesthetic tank for receiving a liquid anesthetic (Nm) and - a refill unit for refilling liquid anesthetic (Nm) into the anesthetic tank , in particular a nozzle , the anesthetic tank comprising - a wall and - a coating on the inner surface of the wall , i.e. the surface pointing toward the liquid anesthetic (Nm), the feed device being designed to feed liquid anesthetic (Nm) from the anesthetic container into the anesthetic vaporizer , and the anesthetic vaporizer being designed to generate gaseous anesthetic using the fed-in liquid anesthetic (Nm), characterized in that the coating of the anesthetic tank consists of an alloy which contains - a proportion of nickel (Ni) of between 80 wt.% and 97 wt.%, and - a proportion of phosphorus (P) of between 3 wt.% and 15 wt.%, and the anesthetic tank comprises a visual inspection unit , the fill level of liquid anesthetic (Nm) in the anesthetic tank being visible from the outside through the visual inspection unit , the visual inspection unit being made of a transparent material and the transparent material having a proportion of at least 70 wt.% quartz (SiO 2 ). - an anesthetic container , - a feed device which is at least temporarily in a fluid connection with the anesthetic container , and - an anesthetic vaporizer , the anesthetic container comprising - an anesthetic tank for receiving a liquid anesthetic (Nm) and - a refill unit for refilling liquid anesthetic (Nm) into the anesthetic tank , in particular a nozzle , - an anesthetic tank for receiving a liquid anesthetic (Nm) and - a refill unit for refilling liquid anesthetic (Nm) into the anesthetic tank , in particular a nozzle , the anesthetic tank comprising - a wall and - a coating on the inner surface of the wall , i.e. the surface pointing toward the liquid anesthetic (Nm), - a wall and - a coating on the inner surface of the wall , i.e. the surface pointing toward the liquid anesthetic (Nm), the feed device being designed to feed liquid anesthetic (Nm) from the anesthetic container into the anesthetic vaporizer , and the anesthetic vaporizer being designed to generate gaseous anesthetic using the fed-in liquid anesthetic (Nm), characterized in that the coating of the anesthetic tank consists of an alloy which contains - a proportion of nickel (Ni) of between 80 wt.% and 97 wt.%, and - a proportion of phosphorus (P) of between 3 wt.% and 15 wt.%, and - a proportion of nickel (Ni) of between 80 wt.% and 97 wt.%, and - a proportion of phosphorus (P) of between 3 wt.% and 15 wt.%, and the anesthetic tank comprises a visual inspection unit , the fill level of liquid anesthetic (Nm) in the anesthetic tank being visible from the outside through the visual inspection unit , the visual inspection unit being made of a transparent material and the transparent material having a proportion of at least 70 wt.% quartz (SiO 2 ).
An apparel item configured to reduce distractions and facilitate upright sleeping, the apparel item comprising: a body portion configured to at least partially cover a front and back torso area of a wearer when the apparel item is worn, the body portion comprising at least a right side pocket and a left side pocket positioned at a front aspect of the body portion; a hood portion configured to at least partially cover a head area of the wearer when the apparel item is worn; and a strap system configured to maintain the head of the wearer in a static position, the strap system comprising: a first strap segment having a first end , a second end , and a first intervening portion extending between the first end and the second end , wherein the first end is positioned at a first location on a right side of the hood portion and the second end is secured in an interior portion of the left side pocket , a second strap segment having a third end , a fourth end , and a second intervening portion extending between the third end and the fourth end , wherein the third end is positioned at a second location on a left side of the hood portion and the fourth end is secured in an interior portion of the right side pocket , and a third strap segment having a fifth end , a sixth end , and a third intervening portion extending between the fifth end and the sixth end , wherein the fifth end is coupled to the first end of the first strap segment and the sixth end is coupled to the third end of the second strap segment .
An orodispersible solid pharmaceutical dosage unit having a weight between 30 and 1,000 mg, preferably between 40 and 500 mg, said dosage unit consisting of: • 0.1-25 wt.%, preferably 0.5-25 wt.% of estetrol particles containing at least 90 wt.% of an estetrol component selected from estetrol, estetrol esters and combinations thereof, preferably the estetrol component is estetrol; and • 75-99.9 wt.% of one or more pharmaceutically acceptable ingredients; the solid dosage unit comprising at least 100 μg of the estetrol component; wherein the solid dosage unit can be obtained by a process comprising: • providing estetrol particles containing at least 90 wt.% of the estetrol component and having a volume median diameter of 2 μm) to 50 μm, preferably of 3 μm) to 35 μm; • mixing the estetrol particles with one or more granulation excipients to produce a granulation mixture; • mixing the granulation mixture with a granulation liquid to produce estetrol-containing granules, said granulation liquid containing at least 60 wt.% of liquid solvent; • removing liquid solvent from the estetrol-containing granules to produce dry estetrol-containing granules; • optionally mixing the dry granules with one or more tabletting excipients; and • forming the dry granules or the mixture of the dry granules and the one or more tabletting excipients into a solid dosage unit, wherein the dosage unit contains 0.3-100 mg of the estetrol component. • 0.1-25 wt.%, preferably 0.5-25 wt.% of estetrol particles containing at least 90 wt.% of an estetrol component selected from estetrol, estetrol esters and combinations thereof, preferably the estetrol component is estetrol; and • 75-99.9 wt.% of one or more pharmaceutically acceptable ingredients; • providing estetrol particles containing at least 90 wt.% of the estetrol component and having a volume median diameter of 2 μm) to 50 μm, preferably of 3 μm) to 35 μm; • mixing the estetrol particles with one or more granulation excipients to produce a granulation mixture; • mixing the granulation mixture with a granulation liquid to produce estetrol-containing granules, said granulation liquid containing at least 60 wt.% of liquid solvent; • removing liquid solvent from the estetrol-containing granules to produce dry estetrol-containing granules; • optionally mixing the dry granules with one or more tabletting excipients; and • forming the dry granules or the mixture of the dry granules and the one or more tabletting excipients into a solid dosage unit,
A pocketed spring for use within a mattress, providing a variable resistance as the pocketed spring is compressed, said pocketed spring comprising: a compression spring having an upper end convolution and a lower end convolution opposite the upper end convolution , and a plurality of helical intermediate convolutions between the upper end convolution and the lower end convolution ; and a flexible enclosure including a top wall positioned adjacent to the upper end convolution of the compression spring , a bottom wall positioned adjacent to the lower end convolution of the compression spring , and a side wall that extends from the top wall to the bottom wall ; characterized by a tension member connected to the flexible enclosure wherein the tension member is connected to the top wall of the flexible enclosure and the bottom wall of the flexible enclosure , such that the tension member extends through an interior of the flexible enclosure along a central longitudinal axis of the compression spring , such that the tension member works in opposition to the compression spring for a first portion of the spring's compression, and wherein the tension member is an elastic cable. a compression spring having an upper end convolution and a lower end convolution opposite the upper end convolution , and a plurality of helical intermediate convolutions between the upper end convolution and the lower end convolution ; and a flexible enclosure including a top wall positioned adjacent to the upper end convolution of the compression spring , a bottom wall positioned adjacent to the lower end convolution of the compression spring , and a side wall that extends from the top wall to the bottom wall ; characterized by a tension member connected to the flexible enclosure wherein the tension member is connected to the top wall of the flexible enclosure and the bottom wall of the flexible enclosure , such that the tension member extends through an interior of the flexible enclosure along a central longitudinal axis of the compression spring , such that the tension member works in opposition to the compression spring for a first portion of the spring's compression, and wherein the tension member is an elastic cable.
A fluid ejection device , comprising: a fluid ejection die configured to eject drops of fluid, the fluid ejection die including a fluid ejection chamber , a drop ejecting element within the fluid ejection chamber , and a fluid feed hole communicated with the fluid ejection chamber , the fluid feed hole to supply fluid to the fluid ejection die ; a body configured to support the fluid ejection die , the body including a fluid feed slot communicated with the fluid feed hole of the fluid ejection die ; a structure protruded into the fluid feed slot of the body toward the fluid feed hole of the fluid ejection die ; a micro-recirculation system configured to: recirculate fluid within the fluid ejection die through the fluid ejection chamber ; and recirculate fluid as supplied to the fluid ejection die through the fluid feed hole ; and a macro-recirculation system configured to: recirculate fluid within the body through the fluid feed slot around an end of the structure protruded toward the fluid feed hole and across the fluid feed hole ; and recirculate fluid to and from the fluid feed hole . a fluid ejection die configured to eject drops of fluid, the fluid ejection die including a fluid ejection chamber , a drop ejecting element within the fluid ejection chamber , and a fluid feed hole communicated with the fluid ejection chamber , the fluid feed hole to supply fluid to the fluid ejection die ; a body configured to support the fluid ejection die , the body including a fluid feed slot communicated with the fluid feed hole of the fluid ejection die ; a structure protruded into the fluid feed slot of the body toward the fluid feed hole of the fluid ejection die ; a micro-recirculation system configured to: recirculate fluid within the fluid ejection die through the fluid ejection chamber ; and recirculate fluid as supplied to the fluid ejection die through the fluid feed hole ; and recirculate fluid within the fluid ejection die through the fluid ejection chamber ; and recirculate fluid as supplied to the fluid ejection die through the fluid feed hole ; and a macro-recirculation system configured to: recirculate fluid within the body through the fluid feed slot around an end of the structure protruded toward the fluid feed hole and across the fluid feed hole ; and recirculate fluid to and from the fluid feed hole . recirculate fluid within the body through the fluid feed slot around an end of the structure protruded toward the fluid feed hole and across the fluid feed hole ; and recirculate fluid to and from the fluid feed hole .
A provisioning module (10; 110; 210) of a material tape with connecting elements for a setting tool , comprising: a. an unwinder coil (12; 112; 212) with a central longitudinal axis around which the unwinder coil (12; 112; 212) is rotatable, and two side walls arranged opposite one another along the central longitudinal axis, b. a first arm (20; 120; 220) which is rotatably connected with a first axial end with the central longitudinal axis of the unwinder coil and which comprises adjacent to a second axial end a rotatable first roller (26; 126; 226), wherein c1. the first arm is rotatably movably connected with the central longitudinal axis and the second axial end of the first arm is movable along a circular arc between a first and a second position, with the first arm being preloaded in the direction of the first position, or c2. the first arm (120; 220) comprises a guide mechanism for an axis of the first roller (126; 226) wherein the first roller (126; 226) is movable in the guide mechanism between a first and a second position and the axis of the first roller (126; 226) is preloaded in the direction of the first position, so that d. the material tape is preloadable between the first and the second position by means of the first roller (26; 126; 226) due to the movability of the first roller (26; 126; 226), characterized in that the provisioning module further comprises: e. a rigid second arm which, adjacent to a third axial end is connected with the central longitudinal axis of the unwinder coil and comprises, adjacent to a fourth axial end , a fixedly arranged, rotatable second roller . a. an unwinder coil (12; 112; 212) with a central longitudinal axis around which the unwinder coil (12; 112; 212) is rotatable, and two side walls arranged opposite one another along the central longitudinal axis, b. a first arm (20; 120; 220) which is rotatably connected with a first axial end with the central longitudinal axis of the unwinder coil and which comprises adjacent to a second axial end a rotatable first roller (26; 126; 226), wherein c1. the first arm is rotatably movably connected with the central longitudinal axis and the second axial end of the first arm is movable along a circular arc between a first and a second position, with the first arm being preloaded in the direction of the first position, or c2. the first arm (120; 220) comprises a guide mechanism for an axis of the first roller (126; 226) wherein the first roller (126; 226) is movable in the guide mechanism between a first and a second position and the axis of the first roller (126; 226) is preloaded in the direction of the first position, so that d. the material tape is preloadable between the first and the second position by means of the first roller (26; 126; 226) due to the movability of the first roller (26; 126; 226), characterized in that the provisioning module further comprises: e. a rigid second arm which, adjacent to a third axial end is connected with the central longitudinal axis of the unwinder coil and comprises, adjacent to a fourth axial end , a fixedly arranged, rotatable second roller .