mhurhangee/ep-ind-claims huggingface dataset:
A device for storing and providing at least one oral nursing element for an infant and/or a small child, comprising a storage unit for storing the oral nursing element, a filling unit for filling the storage unit with the at least one oral nursing element, and a dispensing unit for removing the at least one oral nursing element from the storage unit, wherein the storage unit comprises at least one fastening element for removably fastening the storage unit to an element of a child's bed or of a vehicle or to a wall, characterized by a conveying device for conveying the at least one oral nursing element from the filling unit to the dispensing unit, and that the conveying device comprises at least one conveying element (18.1) with hinges, and at least two tension pulley elements (20.1, 20.2, 20.3, 20.4) which are located on an inner wall (12.1) of the storage unit and around which the conveying element (18.1, 18.2) is able to move around, and supporting surfaces mounted on the hinges for the at least one oral nursing element.
A method for producing a microbiocidally active solution, the method comprising: adding sulfamic acid as a halogen stabilizing compound to a brine containing ammonia or an ammonium ion containing compound, wherein the term "brine" refers to an aqueous solution comprising at least chloride ion species and wherein the term "halogen stabilizing compound" refers to a chemical which can combine with a free halogen to produce a new chemical that is microbiocidally active but has decreased reactivity towards oxidant demanding substances than the corresponding free halogen, wherein a sufficient amount of the halogen stabilizing compound is added to the brine relative to amount of halide ions present in the brine such that the total halogen in the microbiocidally active solution comprises no more than 20% free halogen; adding a sufficient amount of acid to the brine so that a pH of the brine prior to the electrolyzing step is less than 7, and electrolyzing the brine in an electrolytic cell, thereby producing a microbiocidally active solution comprising a stabilized halogen compound selected from the group consisting of N-chlorosulfamic acid and N,N-dichlorosulfamic acid, wherein the term "stabilized halogen compound" refers to a chemical species comprising a free halogen that has been stabilized through reaction with a halogen stabilizing compound; wherein the adding step comprises adding a sufficient amount of the halogen stabilizing compound to the brine relative to the ammonia or ammonium ion containing compound to suppress formation of trichloramine and dichloramine. adding sulfamic acid as a halogen stabilizing compound to a brine containing ammonia or an ammonium ion containing compound, wherein the term "brine" refers to an aqueous solution comprising at least chloride ion species and wherein the term "halogen stabilizing compound" refers to a chemical which can combine with a free halogen to produce a new chemical that is microbiocidally active but has decreased reactivity towards oxidant demanding substances than the corresponding free halogen, wherein a sufficient amount of the halogen stabilizing compound is added to the brine relative to amount of halide ions present in the brine such that the total halogen in the microbiocidally active solution comprises no more than 20% free halogen; adding a sufficient amount of acid to the brine so that a pH of the brine prior to the electrolyzing step is less than 7, and electrolyzing the brine in an electrolytic cell, thereby producing a microbiocidally active solution comprising a stabilized halogen compound selected from the group consisting of N-chlorosulfamic acid and N,N-dichlorosulfamic acid, wherein the term "stabilized halogen compound" refers to a chemical species comprising a free halogen that has been stabilized through reaction with a halogen stabilizing compound; wherein the adding step comprises adding a sufficient amount of the halogen stabilizing compound to the brine relative to the ammonia or ammonium ion containing compound to suppress formation of trichloramine and dichloramine.
A method for recycling used oil, the used oil consisting of waste cooking oil, the method comprising: subjecting the used oil to a first separation comprising a settling treatment at ambient temperatures, wherein the used oil is at ambient temperatures during the settling treatment, preferably a temperature in the range of from 5°C to 25°C, to produce an oil fraction and a sludge fraction; separating the oil fraction and the sludge fraction; and subjecting the oil fraction so separated to a second separation comprising filtration. subjecting the used oil to a first separation comprising a settling treatment at ambient temperatures, wherein the used oil is at ambient temperatures during the settling treatment, preferably a temperature in the range of from 5°C to 25°C, to produce an oil fraction and a sludge fraction; separating the oil fraction and the sludge fraction; and subjecting the oil fraction so separated to a second separation comprising filtration.
An automated method for introducing a plurality of products being packed in primary packagings into a secondary packaging being designed as a folded box, comprising the steps of: laterally inserting a first stack of primary packagings with the products packed therein into the interior of the secondary packaging, and laterally inserting a second stack of primary packagings with the products packed therein into the interior of the secondary packaging, characterised in that the first stack and the second stack are arranged side by side in the secondary packaging, the secondary packaging after having inserted the first stack into the interior of the secondary packaging being conveyed onwards by at least the width of the first stack and afterwards the second stack being inserted into the secondary packaging. laterally inserting a first stack of primary packagings with the products packed therein into the interior of the secondary packaging, and laterally inserting a second stack of primary packagings with the products packed therein into the interior of the secondary packaging, characterised in that the first stack and the second stack are arranged side by side in the secondary packaging, the secondary packaging after having inserted the first stack into the interior of the secondary packaging being conveyed onwards by at least the width of the first stack and afterwards the second stack being inserted into the secondary packaging.
Hoof shoe or hoof shoe insert for relieving the pressure on the foot of a hoofed animal, in particular a horse, on a hard underlying surface, at least comprising a foamed plastics cushion, which is configured to be arranged between the hoof of the animal and the underlying surface, characterized in that - the plastics cushion is formed from a closed-cell plastics foam having a thermoplastic or elastomeric matrix with a density between 100 and 400 g/l, - wherein the plastics cushion has a compressive stress of 150 - 280 kPa at 50% compression. - the plastics cushion is formed from a closed-cell plastics foam having a thermoplastic or elastomeric matrix with a density between 100 and 400 g/l, - wherein the plastics cushion has a compressive stress of 150 - 280 kPa at 50% compression.
High-pressure discharge lamp having an ignition aid, having a discharge vessel which is fitted in an outer bulb, wherein a UV enhancer is fitted as an ignition aid in the outer bulb, the UV enhancer comprising a UV-transparent can-like container having an inner wall and end side and longitudinal axis, the container enclosing with its inner wall a cavity which is filled with a gas that can emit UV radiation, an inner bent electrode, which is a foil-like electrode having a spring effect and has at least one bend or kink, being fitted in the cavity in such a way that a bend or kink lie as close as possible to the inner wall of the container, and wherein an external electrode is applied externally in the vicinity of the container, characterized in that the length of the foil exceeds the length of the cavity, a free end of the electrode being either bent back against the longitudinal axis or fixed in a front surface of the container.
A resin composition for an aqueous coating material, comprising a polyolefin resin component and a (meth)acrylic resin component, characterized in that said polyolefin resin component is at least one of propylene-butene copolymer with the copolymerization ratio of propylene: butene within a range from 20:80 to 95:5, and propylene-ethylene-butene copolymer with the copolymerization ratio of propylene: ethylene: butene within a range from 20:40:40 to 94:1:5, wherein said (meth)acrylic resin component is polyolefin-modified (meth)acrylic resin particles (B-2) obtained by swelling propylene-ethylene-butene resin particles with a monomer raw material liquid containing at least a (meth)acrylic monomer, and then polymerizing said monomer raw material liquid, and wherein the mass ratio between said polyolefin resin component and said (meth)acrylic resin component is within a range from 15:85 to 75:25.
An imaging system, comprising: a light source configured to generate a light beam; a first light guiding optical element including a first entry portion and configured to propagate at least a first portion of the light beam by total internal reflection; a second light guiding optical element including a second entry portion and configured to propagate at least a second portion of the light beam by total internal reflection; and a light distributor including a light distributor entry portion, a first exit portion on a first arm and a second exit portion on a second arm, the light distributor configured to direct at least the first and second portions of the light beam into the first and second light guiding optical elements, respectively, wherein the light distributor entry portion is disposed between the first and second exit portions, characterized in that the first arm is perpendicular to the second arm, and the first and second arms are separated from each other along an axis orthogonal to both respective first and second axes of the first and second arms. a light source configured to generate a light beam; a first light guiding optical element including a first entry portion and configured to propagate at least a first portion of the light beam by total internal reflection; a second light guiding optical element including a second entry portion and configured to propagate at least a second portion of the light beam by total internal reflection; and a light distributor including a light distributor entry portion, a first exit portion on a first arm and a second exit portion on a second arm, the light distributor configured to direct at least the first and second portions of the light beam into the first and second light guiding optical elements, respectively, wherein the light distributor entry portion is disposed between the first and second exit portions, characterized in that the first arm is perpendicular to the second arm, and the first and second arms are separated from each other along an axis orthogonal to both respective first and second axes of the first and second arms.
A respiratory therapy system comprising: a gas delivery device enabled to deliver a quantity of oxygen-enriched gas and a quantity of insufflation gas and a transtracheal catheter coupled to the gas delivery device, wherein the gas delivery device is enabled to deliver the quantity of insufflation gas during a first portion of a breathing cycle of a patient and to deliver the quantity of oxygen-enriched gas during a second portion of the breathing cycle; characterized by a pressure transducer or breath-sensing device enabled to detect the onset of an expiratory phase of the breathing cycle, wherein the first portion begins after a predetermined delay from the onset of the expiratory phase of the breathing cycle and wherein the first portion ends after a predetermined expiratory flushing period, and wherein the second portion begins after the predetermined expiratory flushing period and wherein the second portion ends after a predetermined oxygen therapy period. a gas delivery device enabled to deliver a quantity of oxygen-enriched gas and a quantity of insufflation gas and a transtracheal catheter coupled to the gas delivery device, wherein the gas delivery device is enabled to deliver the quantity of insufflation gas during a first portion of a breathing cycle of a patient and to deliver the quantity of oxygen-enriched gas during a second portion of the breathing cycle; characterized by a pressure transducer or breath-sensing device enabled to detect the onset of an expiratory phase of the breathing cycle, wherein the first portion begins after a predetermined delay from the onset of the expiratory phase of the breathing cycle and wherein the first portion ends after a predetermined expiratory flushing period, and wherein the second portion begins after the predetermined expiratory flushing period and wherein the second portion ends after a predetermined oxygen therapy period.
A furnace for heat generation with a combustion chamber with a lower combustion chamber part and an upper combustion chamber part, wherein the lower combustion chamber part comprises a bottom of the combustion chamber and the upper combustion chamber part comprises a front wall and at least one side wall (9, 10) of the combustion chamber, and wherein, for opening and closing the combustion chamber, the upper combustion chamber part is movable in a vertical direction relative to the lower combustion chamber part; wherein the upper combustion chamber part comprises a ceiling of the combustion chamber, and wherein the furnace has a single horizontal sealing plane with a first combustion chamber door seal to mutually seal the lower combustion chamber part and the upper combustion chamber part; characterised in that the upper combustion chamber part has a double disc system with an air gap between the discs, wherein the first combustion chamber door seal has air guides to guide air into the air gap of the double disc system. wherein the lower combustion chamber part comprises a bottom of the combustion chamber and the upper combustion chamber part comprises a front wall and at least one side wall (9, 10) of the combustion chamber, and wherein, for opening and closing the combustion chamber, the upper combustion chamber part is movable in a vertical direction relative to the lower combustion chamber part; wherein the upper combustion chamber part comprises a ceiling of the combustion chamber, and wherein the furnace has a single horizontal sealing plane with a first combustion chamber door seal to mutually seal the lower combustion chamber part and the upper combustion chamber part; characterised in that the upper combustion chamber part has a double disc system with an air gap between the discs, wherein the first combustion chamber door seal has air guides to guide air into the air gap of the double disc system.
An air duct structure of a clothes drying apparatus, comprising: a hollow air duct, disposed between a heating device and an air inlet of the clothes drying apparatus, the air inlet being configured for introducing air into a drum of the clothes drying apparatus; and an air guiding structure, arranged inside the hollow air duct and operative to separate the hollow air duct partially into a first bypass duct and a second bypass duct that are arranged side by side; characterized in that, wherein a single original hot air flow heated by the heating device is divided by the air guiding structure into two split hot air flows, wherein a first split hot air flow is guided and accelerated by the first bypass duct, and a second split hot air flow is guided and decelerated by the second bypass duct, and the accelerated split hot air flow and the decelerated split hot air flow are converged at the air inlet to form a turbulent hot air flow; wherein a cross-sectional area of the first bypass duct is gradually decreased along a flowing direction of the hot air flow, and a cross-sectional area of the second bypass duct is gradually increased along the flowing direction of the hot air flow. a hollow air duct, disposed between a heating device and an air inlet of the clothes drying apparatus, the air inlet being configured for introducing air into a drum of the clothes drying apparatus; and an air guiding structure, arranged inside the hollow air duct and operative to separate the hollow air duct partially into a first bypass duct and a second bypass duct that are arranged side by side; characterized in that, wherein a single original hot air flow heated by the heating device is divided by the air guiding structure into two split hot air flows, wherein a first split hot air flow is guided and accelerated by the first bypass duct, and a second split hot air flow is guided and decelerated by the second bypass duct, and the accelerated split hot air flow and the decelerated split hot air flow are converged at the air inlet to form a turbulent hot air flow; wherein a cross-sectional area of the first bypass duct is gradually decreased along a flowing direction of the hot air flow, and a cross-sectional area of the second bypass duct is gradually increased along the flowing direction of the hot air flow.
Fastening system with easy removal for electrical and / or electronic devices which are fixed into recesses on a support frame, of the type using flexible flaps arranged in the device, the flexible flaps having a surface of the outer part, such that, upon insertion of the device into the recess of the support frame, they become pressed by an edge of said recess and, once inserted, they exert pressure on said edge to achieve the attachment of the device onto the support frame, characterized by comprising: • a support frame comprising at least two oblique slots provided in the edge of the recess of the support frame; and • an electrical and / or electronic device comprising at least two flexible flaps on whose outer part of their distal ends there is a protrusion emerging obliquely, that is, not perpendicular to the surface of the outer part of the flexible flap, protrusions which in their clamping position will remain locked in the slots of the support frame. • a support frame comprising at least two oblique slots provided in the edge of the recess of the support frame; and • an electrical and / or electronic device comprising at least two flexible flaps on whose outer part of their distal ends there is a protrusion emerging obliquely, that is, not perpendicular to the surface of the outer part of the flexible flap, protrusions which in their clamping position will remain locked in the slots of the support frame.
A powder jet device for dispensing a dental material, comprising - a nozzle head for receiving a discharge nozzle, - a housing comprising a valve portion being adapted to receive a valve member, and a chamber portion comprising at least a first chamber for storing a powder material, wherein the chamber portion comprises a proximal end located adjacent the valve portion, a distal end located farther away from the valve portion and a fluid channel opening adjacent the distal end into the first chamber, such that the fluid passes the powder from the bottom to the top if the powder jet device is held with the chamber portion generally vertical with the distal end of the chamber portion downwards and the proximal end upwards, and - a valve member movably disposed within the valve portion, wherein the valve member comprises a fluid supply passage and a first and a second fluid path branching off from the fluid supply passage, wherein the valve member is movable between a first position, in which the first fluid path for delivery of a fluid from the fluid supply passage into the first chamber via the fluid channel so as to create a dispersion from the fluid and the powder material and the second fluid path for delivery of the dispersion toward the discharge nozzle are open, and a second position, in which at least the first fluid path is closed. - a nozzle head for receiving a discharge nozzle, - a housing comprising a valve portion being adapted to receive a valve member, and a chamber portion comprising at least a first chamber for storing a powder material, wherein the chamber portion comprises a proximal end located adjacent the valve portion, a distal end located farther away from the valve portion and a fluid channel opening adjacent the distal end into the first chamber, such that the fluid passes the powder from the bottom to the top if the powder jet device is held with the chamber portion generally vertical with the distal end of the chamber portion downwards and the proximal end upwards, and - a valve member movably disposed within the valve portion, wherein the valve member comprises a fluid supply passage and a first and a second fluid path branching off from the fluid supply passage, wherein the valve member is movable between a first position, in which the first fluid path for delivery of a fluid from the fluid supply passage into the first chamber via the fluid channel so as to create a dispersion from the fluid and the powder material and the second fluid path for delivery of the dispersion toward the discharge nozzle are open, and a second position, in which at least the first fluid path is closed.
A positive electrode material paste for a lithium ion polymer battery,wherein the paste is a mixture of active material particles, an ion-conductive polymer, a conductive auxiliary agent and a solvent, in which the active material particles, the ion-conductive polymer and the conductive auxiliary agent are included in the paste in a mass ratio of 66:30:4, and a total solid content of the paste is 40% by mass wherein the active material particles include core particles represented by General Formula Li x A y D z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9< x <1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y + z < 1.1) and a carbonaceous film that coats surfaces of the core particles, and wherein the positive electrode material paste has a viscosity of 5,000 mPa.s or less, measured at a shear rate of 4.0 [1/s]. wherein the active material particles include core particles represented by General Formula Li x A y D z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9< x <1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y + z < 1.1) and a carbonaceous film that coats surfaces of the core particles, and wherein the positive electrode material paste has a viscosity of 5,000 mPa.s or less, measured at a shear rate of 4.0 [1/s].