mhurhangee/ep-ind-claims huggingface dataset:
A food composition, which is a protein supplement for adults, consisting of whey protein isolate and non-denatured casein; and one or more further ingredients selected from the group consisting of: flavourings and sweeteners; flavour enhancers, including salt; thickeners, stabilisers and gelling agents; colourings; preservatives; foaming agents; vitamins and minerals; emulsifiers; fibre; oils and non-dairy creamers; and combinations thereof; and optionally aqueous solvent or carrier; wherein the amount of whey protein isolate relative to non-denatured casein is in a ratio of from about 1:1.5 to about 1.5:1, and wherein the total amount of protein in the food composition is more than 60% by weight. whey protein isolate and non-denatured casein; and one or more further ingredients selected from the group consisting of: flavourings and sweeteners; flavour enhancers, including salt; thickeners, stabilisers and gelling agents; colourings; preservatives; foaming agents; vitamins and minerals; emulsifiers; fibre; oils and non-dairy creamers; and combinations thereof; and optionally aqueous solvent or carrier;
A binder for an all-solid-state secondary battery, comprising a conjugated diene-based copolymer that: has an aromatic vinyl unit based on an aromatic vinyl compound and a conjugated diene unit based on a conjugated diene compound; and has a storage elastic modulus (G') of 4.0×10 4 Pa or more and 2.0×10 5 Pa or less and a loss tangent (tanδ) of 0.10 or more and 0.80 or less, which are measured using a dynamic viscoelasticity-measuring apparatus under conditions of a measurement temperature of 25°C, a frequency of 0.1 Hz, and a strain amount of 1%. has an aromatic vinyl unit based on an aromatic vinyl compound and a conjugated diene unit based on a conjugated diene compound; and has a storage elastic modulus (G') of 4.0×10 4 Pa or more and 2.0×10 5 Pa or less and a loss tangent (tanδ) of 0.10 or more and 0.80 or less, which are measured using a dynamic viscoelasticity-measuring apparatus under conditions of a measurement temperature of 25°C, a frequency of 0.1 Hz, and a strain amount of 1%.
Device for controlling a toilet flusher intended to be mounted on a toilet water tank, comprising a push-button translatably mounted along a thrust axis inside a hollow body intended to be mounted on a cover of the tank, the control device comprising a selector body rotatably mounted about the thrust axis to select a flushing volume, the hollow body comprising a bottom having at least one main opening for the passage of a connection body intended to connect the push-button to a flushing mechanism, characterised in that the bottom of the hollow body has at least one secondary opening, and in that the push-button has at least one abutment that can be engaged through the secondary opening of the bottom, the selector body being rotatably movable between at least two positions: - a position authorising the engagement of the abutment through the secondary opening of the bottom; - a position blocking the engagement of the abutment through the secondary opening of the bottom. - a position authorising the engagement of the abutment through the secondary opening of the bottom; - a position blocking the engagement of the abutment through the secondary opening of the bottom.
A method for a playback device configured to receive a first audio signal from a first audio source and to receive a second audio signal from a second audio source, the method comprising: playing back the second audio signal from the second audio source; receiving an instruction to stop playing the second audio signal while the second audio signal is present; after receiving the instruction to stop playing the second audio signal, determining that the second audio signal is no longer present; and after determining that the second audio signal is no longer present for an interval of time, and while playing back the first audio signal or not playing back audio: receiving the second audio signal; and after receiving the second audio signal, playing back the second audio signal. playing back the second audio signal from the second audio source; receiving an instruction to stop playing the second audio signal while the second audio signal is present; after receiving the instruction to stop playing the second audio signal, determining that the second audio signal is no longer present; and after determining that the second audio signal is no longer present for an interval of time, and while playing back the first audio signal or not playing back audio: receiving the second audio signal; and after receiving the second audio signal, playing back the second audio signal. receiving the second audio signal; and after receiving the second audio signal, playing back the second audio signal.
A nasal cannula, comprising: a cannula housing defining a housing volume, the cannula housing comprising at least one nasal extension extending from the cannula housing, wherein the at least one nasal extension (116a, 116b) is configured to be disposed within a patient's nares; a reservoir disposed at least partially within the housing volume, wherein the reservoir comprises a reservoir volume configured to dispense a medicament; a nebulizer engine with a nebulizer channel in fluid communication with the reservoir volume and the at least one nasal extension; a gas channel in fluid communication with the nebulizer channel of the nebulizer engine, wherein the gas channel is configured to direct a gas flow toward the at least one nasal extension (116a, 116b) through the nebulizer channel, drawing a portion of the medicament from the reservoi through the nebulizer channel with the gas flow toward the at least one nasal extension; and a therapeutic gas channel in fluid communication with the at least one nasal extension, wherein the therapeutic gas channel is configured to bypass the nebulizer engine and direct a therapeutic gas flow toward the at least one nasal extension (116a, 116b); characterized in that the therapeutic gas channe and the gas channel each receive gas flow from a common supply tube via a therapeutic gas channel port and a gas channel port, respectively. a nebulizer engine with a nebulizer channel in fluid communication with the reservoir volume and the at least one nasal extension; a gas channel in fluid communication with the nebulizer channel of the nebulizer engine, wherein the gas channel is configured to direct a gas flow toward the at least one nasal extension (116a, 116b) through the nebulizer channel, drawing a portion of the medicament from the reservoi through the nebulizer channel with the gas flow toward the at least one nasal extension; and a therapeutic gas channel in fluid communication with the at least one nasal extension, wherein the therapeutic gas channel is configured to bypass the nebulizer engine and direct a therapeutic gas flow toward the at least one nasal extension (116a, 116b); characterized in that the therapeutic gas channe and the gas channel each receive gas flow from a common supply tube via a therapeutic gas channel port and a gas channel port, respectively.
A system comprising: an external device; and a plurality of accessories (302; 600; 606; 1600), each accessory (302; 600; 606; 1600) configured to be removably and replaceably coupled to an inhaler (304; 604; 1602), each inhaler (304; 604; 1602) having the same medication contained therein, each accessory (302; 600; 606; 1600) including: a processor, and a wireless communication mechanism, wherein the accessory (302; 600; 606; 1600) is configured to determine when the medication is dispensed, and wherein the processor is configured to cause the wireless communication mechanism to wirelessly transmit data indicative of the dispensing to the external device, wherein the external device is external to the accessories (302; 600; 606; 1600) and the inhalers (304; 604; 1602), wherein the external device is configured to determine that a dose was missed by detecting that notice of a medication being dispensed at a scheduled date/time was not received at the external device, wherein if any one of the inhalers (304; 604; 1602) dispenses the scheduled dose, the dose is considered to have been consumed on schedule, and if none of the inhalers (304; 604; 1602) dispenses the scheduled dose, the dose is considered to have been missed. an external device; and a plurality of accessories (302; 600; 606; 1600), each accessory (302; 600; 606; 1600) configured to be removably and replaceably coupled to an inhaler (304; 604; 1602), each inhaler (304; 604; 1602) having the same medication contained therein, each accessory (302; 600; 606; 1600) including: a processor, and a wireless communication mechanism, wherein the accessory (302; 600; 606; 1600) is configured to determine when the medication is dispensed, and wherein the processor is configured to cause the wireless communication mechanism to wirelessly transmit data indicative of the dispensing to the external device, a processor, and a wireless communication mechanism, wherein the accessory (302; 600; 606; 1600) is configured to determine when the medication is dispensed, and wherein the processor is configured to cause the wireless communication mechanism to wirelessly transmit data indicative of the dispensing to the external device, wherein the external device is external to the accessories (302; 600; 606; 1600) and the inhalers (304; 604; 1602), wherein the external device is configured to determine that a dose was missed by detecting that notice of a medication being dispensed at a scheduled date/time was not received at the external device, wherein if any one of the inhalers (304; 604; 1602) dispenses the scheduled dose, the dose is considered to have been consumed on schedule, and if none of the inhalers (304; 604; 1602) dispenses the scheduled dose, the dose is considered to have been missed.
A process for the treatment of biomass comprising: (a) pre-treating wet biomass, preferably mechanically pre-treating wet biomass; (b) subsequently washing and extracting the pre-treated biomass with liquid water at a temperature between ambient temperature and 160°C; (c) mechanically dewatering the extracted biomass obtained in step (b), to produce a dewatered biomass and an aqueous effluent; (d) optionally heating the dewatered biomass to a temperature above 160°C; (e) drying the dewatered biomass; (f) optionally compacting the dried biomass to produce a solid material; (g) subjecting the aqueous effluent to anaerobic treatment. (a) pre-treating wet biomass, preferably mechanically pre-treating wet biomass; (b) subsequently washing and extracting the pre-treated biomass with liquid water at a temperature between ambient temperature and 160°C; (c) mechanically dewatering the extracted biomass obtained in step (b), to produce a dewatered biomass and an aqueous effluent; (d) optionally heating the dewatered biomass to a temperature above 160°C; (e) drying the dewatered biomass; (f) optionally compacting the dried biomass to produce a solid material; (g) subjecting the aqueous effluent to anaerobic treatment.
A shock absorber (20, 26) comprising: a pressure tube defining a working chamber; a piston assembly disposed within said working chamber, said piston assembly dividing said working chamber into an upper working chamber and a lower working chamber; a piston rod assembly attached to said piston assembly, said piston rod assembly extending from said piston assembly through one end of said pressure tube, said piston rod assembly comprising: an upper piston rod portion; a lower piston rod portion attached to said upper piston rod portion; a dirt shield attached to said upper piston rod portion and said lower piston rod portion; a first weld attaching said upper piston rod portion to said lower piston rod portion; said first weld creates a disturbed area on said piston rod assembly adjacent said first weld; and characterized by a second single weld simultaneously welding said dirt shield to both said upper piston rod portion and said lower piston rod portion and said upper piston rod portion to said lower piston rod portion, said second weld being disposed in said disturbed area. a pressure tube defining a working chamber; a piston assembly disposed within said working chamber, said piston assembly dividing said working chamber into an upper working chamber and a lower working chamber; a piston rod assembly attached to said piston assembly, said piston rod assembly extending from said piston assembly through one end of said pressure tube, said piston rod assembly comprising: an upper piston rod portion; a lower piston rod portion attached to said upper piston rod portion; a dirt shield attached to said upper piston rod portion and said lower piston rod portion; a first weld attaching said upper piston rod portion to said lower piston rod portion; said first weld creates a disturbed area on said piston rod assembly adjacent said first weld; and characterized by a second single weld simultaneously welding said dirt shield to both said upper piston rod portion and said lower piston rod portion and said upper piston rod portion to said lower piston rod portion, said second weld being disposed in said disturbed area. an upper piston rod portion; a lower piston rod portion attached to said upper piston rod portion; a dirt shield attached to said upper piston rod portion and said lower piston rod portion; a first weld attaching said upper piston rod portion to said lower piston rod portion; said first weld creates a disturbed area on said piston rod assembly adjacent said first weld; and characterized by a second single weld simultaneously welding said dirt shield to both said upper piston rod portion and said lower piston rod portion and said upper piston rod portion to said lower piston rod portion, said second weld being disposed in said disturbed area.
A fiber-reinforced hydrogel composite comprising: a hydrogel; and a fibrous component comprising a plurality of electrospun fibers dispersed in the hydrogel, wherein the plurality of electrospun fibers are selected from the group consisting of fibers that comprise or consist of proteins, carbohydrates, hydroxy carboxylic acids or combinations thereof, and wherein the length of each of the plurality of electrospun fibers is less than 1,000 μm. a hydrogel; and a fibrous component comprising a plurality of electrospun fibers dispersed in the hydrogel, wherein the plurality of electrospun fibers are selected from the group consisting of fibers that comprise or consist of proteins, carbohydrates, hydroxy carboxylic acids or combinations thereof, and wherein the length of each of the plurality of electrospun fibers is less than 1,000 μm.
A method of operating a top and bottom blowing converter by using a top-blown multihole lance having a plurality of lance nozzles for jetting oxygen gas to jet oxygen jets from the lance nozzles at a nozzle tilting angle θ (°) inclined with respect to a center axis of the top-blown multihole lance and arranging n bottom-blown tuyeres in a furnace bottom to blow an agitating gas from the bottom-blown tuyeres, characterized in that an interference rate indicated by a following equation is not more than 0.7 with respect to a positional relation between a hot spot formed by impinging the top-blown oxygen jets jetted from the top-blown multihole lance onto a bath surface of molten iron and a floating region of an agitating gas blown from the bottom-blown tuyeres to molten iron and formed in a bath surface of molten iron when a point of intersecting a center axis of the top-blown multihole lance with a plane perpendicular to the center axis of the top-blown multihole lance at the bath surface of molten iron in the top and bottom blowing converter is a lance center point L C and a point of intersecting a jetting direction of the oxygen jets jetted from the lance nozzle with the plane is a hot spot center point G J and a point of intersecting a center axis of the bottom-blown tuyere with the plane is a tuyere center point M C: IR = Σ r t / r bi × 90 − φ i / 90 / n, wherein IR: interference rate; n: an integer of 2 or more; φ: an angle (°) between a line from the lance center point L C to the hot spot center point G J and a line from the lance center point L C to the tuyere center point M C; r t: a distance (m) between the lance center point L C and the hot spot center point G J; r b: a distance (m) between the tuyere center point M C in each bottom blown tuyere and the lance center point Lc and φ i and r bi are an angle (°) and a distance (m), respectively, determined for i-th (i: 1-n) bottom-blown tuyere, and wherein a range of a supply amount of top-blown oxygen gas is 2.0-2.85 Nm 3 /min/t. IR: interference rate; n: an integer of 2 or more; φ: an angle (°) between a line from the lance center point L C to the hot spot center point G J and a line from the lance center point L C to the tuyere center point M C; r t: a distance (m) between the lance center point L C and the hot spot center point G J; r b: a distance (m) between the tuyere center point M C in each bottom blown tuyere and the lance center point Lc and φ i and r bi are an angle (°) and a distance (m), respectively, determined for i-th (i: 1-n) bottom-blown tuyere, and
A food composition for use in treating an infection in an animal, comprising an animal foodstuff, and a first milk-derived oligosaccharide or a glycoconjugate containing the first oligosaccharide, the first oligosaccharide including a first sugar unit linked to a second sugar unit, wherein the first sugar unit, located at a first non-reducing end, is fucose, galactose, mannose, or sialic acid and the second sugar unit is galactose, glucose, mannose, or N-acetylglucosamine, wherein the infection is caused by Clostridium perfringens.
Apparatus for filling a product into a container (CONT) comprising: - a filling unit configured for delivering the product into the container, the filling unit comprising a pump (P1, P2) and furthermore a filling nozzle (FN1, FN2) at its one end; - a drive unit for moving the container in relation to the filling unit or vice versa back and forth between a first position, in which a bottom end of the container is arranged at a maximum distance from the filling nozzle, and a second position, in which the bottom end of the container is arranged at a minimum distance from the filling nozzle, and - a control unit configured to control delivery of the product through the filling nozzle, to control the drive unit, and to calculate a new drive unit motion profile for controlling movement from said second position to said first position, characterized in that the control unit is further configured to calculate the speed of the pump at predefined positions of the drive unit, to calculate drive unit compensation distances as a function of the pump speed at predefined positions of the drive unit, and to update the drive unit motion profile using said drive unit compensation distances. - a filling unit configured for delivering the product into the container, the filling unit comprising a pump (P1, P2) and furthermore a filling nozzle (FN1, FN2) at its one end; - a drive unit for moving the container in relation to the filling unit or vice versa back and forth between a first position, in which a bottom end of the container is arranged at a maximum distance from the filling nozzle, and a second position, in which the bottom end of the container is arranged at a minimum distance from the filling nozzle, and - a control unit configured to control delivery of the product through the filling nozzle, to control the drive unit, and to calculate a new drive unit motion profile for controlling movement from said second position to said first position,
Method of isolating a target region of a nucleic acid molecule, said method comprising the steps of: a. contacting a population of nucleic acid molecules with at least one Type II Cas protein-gRNA complex, wherein said gRNA comprises a guide segment that is complementary to a sequence comprised in the target region of at least one nucleic acid molecule, thereby forming a Type II Cas protein-gRNA-nucleic acid complex, b. optionally, contacting the population of nucleic acid molecules with at least one protector molecule, c. contacting the population of nucleic acid molecules with at least one enzyme having exonuclease activity, and optionally at least one site-specific endonuclease, thus degrading nucleic acid molecules that are not comprised in said Type II Cas protein-gRNA-nucleic acid complex, and d. isolating said target region from the Type II Cas protein-gRNA-nucleic acid complex formed in step a), comprising the addition of EDTA and/or at least one protease. a. contacting a population of nucleic acid molecules with at least one Type II Cas protein-gRNA complex, wherein said gRNA comprises a guide segment that is complementary to a sequence comprised in the target region of at least one nucleic acid molecule, thereby forming a Type II Cas protein-gRNA-nucleic acid complex, b. optionally, contacting the population of nucleic acid molecules with at least one protector molecule, c. contacting the population of nucleic acid molecules with at least one enzyme having exonuclease activity, and optionally at least one site-specific endonuclease, thus degrading nucleic acid molecules that are not comprised in said Type II Cas protein-gRNA-nucleic acid complex, and d. isolating said target region from the Type II Cas protein-gRNA-nucleic acid complex formed in step a), comprising the addition of EDTA and/or at least one protease.
A device for dispersing foul gaseous effluent emissions at the source, characterized in that it comprises: - a foul gaseous effluent source tank, - at least two auxiliary gas or air injectors (5a, 5b) directed upward, installed at the periphery of the foul gaseous effluent source tank, in opposite zones, so as to disperse the foul gaseous effluents, - means for supplying the injectors, each injector being supplied by a separate supply means, - and control means sensitive to the wind direction arranged in order to select the start-up of the injector(s) best located, depending on the wind direction, for dispersing and/or raising the gaseous effluent plume. - a foul gaseous effluent source tank, - at least two auxiliary gas or air injectors (5a, 5b) directed upward, installed at the periphery of the foul gaseous effluent source tank, in opposite zones, so as to disperse the foul gaseous effluents, - means for supplying the injectors, each injector being supplied by a separate supply means, - and control means sensitive to the wind direction arranged in order to select the start-up of the injector(s) best located, depending on the wind direction, for dispersing and/or raising the gaseous effluent plume.