mhurhangee/patent-ind-claim-en huggingface dataset:
An operation device for use by a user by holding in one hand, comprising: an enclosure of the operation device having an upper end side, the enclosure including a grip portion and a thumb operation area , the thumb operation area including a first partial area , the first partial area positioned on the opposite side from the grip portion , the enclosure having a cylindrical shape as a whole wherein with respect to a perfect cylinder, the shape is curved inward as it goes towards the middle part in the longitudinal direction thereof, the upper and lower ends are semispherical, and the first partial area is formed as if there had been diagonally cutting off a lateral surface on the upper end side of the perfect cylinder; an inclination operation member provided on the first partial area ; and an operation button positioned on the semispherical upper end side of the cylinder in a position opposed to the thumb operation area , which can be pressed in a diagonally downward direction, and being an analog button capable of determining an amount by which the user presses the operation button . an enclosure of the operation device having an upper end side, the enclosure including a grip portion and a thumb operation area , the thumb operation area including a first partial area , the first partial area positioned on the opposite side from the grip portion , the enclosure having a cylindrical shape as a whole wherein with respect to a perfect cylinder, the shape is curved inward as it goes towards the middle part in the longitudinal direction thereof, the upper and lower ends are semispherical, and the first partial area is formed as if there had been diagonally cutting off a lateral surface on the upper end side of the perfect cylinder; an inclination operation member provided on the first partial area ; and an operation button positioned on the semispherical upper end side of the cylinder in a position opposed to the thumb operation area , which can be pressed in a diagonally downward direction, and being an analog button capable of determining an amount by which the user presses the operation button .
An applicator for inserting feminine care devices into the body, the applicator comprising: a. a barrel comprising an insertion tip proximal a first end; b. a plurality of spaced apart petals disposed about the insertion tip, each of the petals having a petal base defined by the lowest point of a slot between the spaced apart petals and a petal length extending from the petal base to a petal distal end; c. wherein the insertion tip has a tip length defined from a point 5 mm below the petal bases and extending to the petal distal ends; d. wherein the insertion tip along the tip length has a non-uniform taper comprising a first wall thickness angle (β) of less than or equal to 0.3 degrees and a second wall thickness angle (λ) of greater than or equal to 0.4 degrees. a. a barrel comprising an insertion tip proximal a first end; b. a plurality of spaced apart petals disposed about the insertion tip, each of the petals having a petal base defined by the lowest point of a slot between the spaced apart petals and a petal length extending from the petal base to a petal distal end; c. wherein the insertion tip has a tip length defined from a point 5 mm below the petal bases and extending to the petal distal ends; d. wherein the insertion tip along the tip length has a non-uniform taper comprising a first wall thickness angle (β) of less than or equal to 0.3 degrees and a second wall thickness angle (λ) of greater than or equal to 0.4 degrees.
Apparatus for producing an infused beverage comprising a carafe configured to contain at least one infused beverage, a mixing chamber configured to contain a product to be infused and to allow the infused beverage to flow into the carafe and a heating device configured to inject a liquid into the mixing chamber after having heated same, characterised in that said apparatus comprises a steam-recovery device configured to discharge the steam contained in the mixing chamber above the product to be infused and to inject said steam into the carafe without said steam passing through the product to be infused and in that the steam-recovery device is constituted of a lid configured to close the mixing chamber , the lid comprising at least one channel to guide the steam, said at least one steam guiding channel having at least one inlet configured to communicate with the mixing chamber and at least one outlet configured to communicate with the carafe .
Compound for the absorption of carbon dioxide in the form of ionic liquids having the following general formula (I) wherein R3, R4, R5 are each independently H, a C1-C6 alkyl group, R2 is a C1-C6 alkyl group, R1 is a C5-C19 alkyl group, and X - is a carboxylate anion of a natural or artificial amino acid.
A microfluidic particle analysis device comprising an inlet and an outlet in fluid communication via a main channel defining a main flow direction from an inlet end to an outlet end , - the main channel being defined by a main channel wall extending from the inlet end to the outlet end and having a first cross-sectional dimension in the range of 20 μm to 120 μm and a second cross-sectional dimension of at least 100 μm, which main channel has a first vertex opposite a second vertex , which vertices are located opposite each other in the second cross-sectional dimension , wherein the main channel wall at the first vertex and/or the second vertex has an opening extending along the main flow direction, and the main channel wall along the opening is open to an analysis section having a first surface opposite a second surface at an analytical distance in the range of 5 μm to 50 μm, the analysis section further having a sensor system for detecting a particle, c h a r a c t e r i s e d in that the analysis section has a back wall opposite the opening in the main channel wall . - the main channel being defined by a main channel wall extending from the inlet end to the outlet end and having a first cross-sectional dimension in the range of 20 μm to 120 μm and a second cross-sectional dimension of at least 100 μm, which main channel has a first vertex opposite a second vertex , which vertices are located opposite each other in the second cross-sectional dimension , the main channel wall at the first vertex and/or the second vertex has an opening extending along the main flow direction, and the main channel wall along the opening is open to an analysis section having a first surface opposite a second surface at an analytical distance in the range of 5 μm to 50 μm, the analysis section further having a sensor system for detecting a particle, c h a r a c t e r i s e d in that the analysis section has a back wall opposite the opening in the main channel wall .
A pulse applicator , comprising: a first arm , comprising a first electrode ; a second arm , comprising a second electrode ; and a spacer , wherein the first arm is separated from the second arm by the spacer, wherein the first arm, the spacer, and the second arm are movably connected such that the first arm and the spacer are configured to hold a tumor of a subject adjacent the first electrode, the second arm is configured to be movable so as to selectively position the second electrode adjacent the tumor, and wherein the first electrode and the second electrode are configured to deliver an electrical field across the tumor in response to an electrical pulse received across the first and second electrodes. a first arm , comprising a first electrode ; a second arm , comprising a second electrode ; and a spacer , wherein the first arm is separated from the second arm by the spacer, wherein the first arm, the spacer, and the second arm are movably connected such that the first arm and the spacer are configured to hold a tumor of a subject adjacent the first electrode, the second arm is configured to be movable so as to selectively position the second electrode adjacent the tumor, and wherein the first electrode and the second electrode are configured to deliver an electrical field across the tumor in response to an electrical pulse received across the first and second electrodes.
Cooling device for cooling a metallic product , comprising: at least one cooling bar with a plurality N of spraying regions (I, II, III) adjacent in pairs, each spraying region having at least one spray nozzle for spraying a coolant on the metallic product; valves for individual setting of the pressure or the volume flow of the coolant in each of the spraying regions (I, II, III); a control device for individual activation of the valves ; and a temperature determining device for determining the distribution of the temperature of the metallic product over its width before entry of the metallic product into the cooling device; wherein at least one partition wall is provided for dividing the interior of the cooling bar into at least two chambers, wherein each of the spraying regions (I, II, III) is assigned to a different one of the chambers; wherein the partition wall is shaped at least approximately in accordance with the course of the temperature distribution in a predetermined width section of the metallic product before entry into the cooling device; and the partition wall is arranged in the cooling bar over this width section, characterised in that at least one setting element , which is also activatable by the control device , is provided for the variable positioning of the partition wall within the cooling bar , in particular for moving the partition wall in the longitudinal direction (L) of the cooling bar, and thus for changing the chambers and the spraying regions (I, II, III) of a cooling bar . at least one cooling bar with a plurality N of spraying regions (I, II, III) adjacent in pairs, each spraying region having at least one spray nozzle for spraying a coolant on the metallic product; valves for individual setting of the pressure or the volume flow of the coolant in each of the spraying regions (I, II, III); a control device for individual activation of the valves ; and a temperature determining device for determining the distribution of the temperature of the metallic product over its width before entry of the metallic product into the cooling device; wherein at least one partition wall is provided for dividing the interior of the cooling bar into at least two chambers, wherein each of the spraying regions (I, II, III) is assigned to a different one of the chambers; wherein the partition wall is shaped at least approximately in accordance with the course of the temperature distribution in a predetermined width section of the metallic product before entry into the cooling device; and the partition wall is arranged in the cooling bar over this width section, characterised in that at least one setting element , which is also activatable by the control device , is provided for the variable positioning of the partition wall within the cooling bar , in particular for moving the partition wall in the longitudinal direction (L) of the cooling bar, and thus for changing the chambers and the spraying regions (I, II, III) of a cooling bar .
A powder inhaler device comprising a body provided with a housing able to receive a dose of a medicinal substance, a channelling tangential to the housing and provided with holes communicating with an external environment, a mouthpiece communicating with the channelling and able to aspirate air from the external environment through the holes , generating a flow which on a pathway thereof involves the containing housing of the medicine, characterised in that the channeling comprises a truncoconical portion of elliptical section at a vertex of which a cylindrical housing containing the pharmaceutical substance is located, and at the opposite open end of which the edge of the body bends in a downwards direction to form a profiled mouth portion shaped so as to fit a user patient's mouth, wherein edges of the profiled mouth portion are bent in an external direction so as to form a flat edge of the body at a same height as the base of the cylindrical housing , two symmetrical opposite located holes being afforded on a wall of the truncoconical portion , at a larger-diameter plane thereof, which are open to the external environment in order to place the inside of the cavity truncoconical portion in communication with the external environment, and wherein the body provided with the cylindrical housing and the profiled mouth portion shaped so as to fit a user patient's mouth form a disposable single piece unit intended for containing a single dose of the pharmaceutical substance.
Traffic control system comprising one or more devices for the contactless detection of vehicles having one or more magnetometers for measuring the geometric field and one or more control devices, signal devices and/or information systems which are connected to the at least one device , characterized in that the at least one magnetometer comprises an apparatus for measuring the gravitational field and is arranged above or below the surface of a roadway or of a carpark, the device comprises one or more electronic evaluation modules which are equipped with an integrated circuit, a microprocessor, a digital signal processor (DSP), a field programmable gate array (FPGA) or an application specific integrated circuit (ASIC) and are connected to the at least one magnetometer or integrated therewith.
Energy absorbing device for a rail vehicle, comprising an impact plate , which is designed to absorb and transfer applied collision forces, a back plate , which is designed to fasten the energy absorbing device to a vehicle structure , and at least two buckle plates arranged between the impact plate and the back plate , characterized in that the buckle plates are provided with a preliminary deformation in a desired deformation direction, wherein the buckle plates are connected to one another by a tension/compression means , wherein, when deformation occurs on one side, the tension/compression means transfers deformation of the one buckle plate to the respective other buckle plate and deforms it such that the impact plate is displaced parallel to the back plate .
A liquid crystal display , comprising a glass substrate and a driver chip , wherein the driver chip is disposed on the glass substrate and is configured to drive the liquid crystal display, wherein the liquid crystal display further comprises a testing line , the testing line is formed in the glass substrate and extends close to an edge of the glass substrate , the driver chip comprises an input pin and an output pin, and two ends of the testing line are separately connected to the input pin and the output pin to form a closed loop, wherein the testing line comprises at least two single lines, and the at least two single lines are connected in parallel between the input pin and the output pin; wherein the glass substrate comprises an upper layer plate and a lower layer plate , the upper layer plate comprises a color film , a color film protecting layer , and an upper liquid crystal alignment film that are stacked, the lower layer plate comprises a common electrode layer , a pixel electrode layer , and a lower liquid crystal alignment film that are stacked, one line of the testing line is formed on the upper layer plate and is located at a periphery of the upper liquid crystal alignment film , the liquid crystal display further comprises a conductive sheet , the conductive sheet is formed on the lower layer plate and is located at a periphery of the lower liquid crystal alignment film , the other line of the testing line is formed at an edge of the common electrode layer or is formed at an edge of the pixel electrode layer , said one line of the testing line is electrically connected to the conductive sheet by a conductive adhesive , and the testing line is electrically connected to the driver chip by a wire on the lower layer plate ;
Cooling device for the air conditioning of switch cabinets, which comprises an inner circuit , through which air to be cooled from an interior of a switch cabinet is directed by means of a first fan , and an outer circuit that is fluidically separated from the inner circuit , through which ambient air is directed by a second fan , wherein the inner circuit and the outer circuit are fluidically separated one from the other by means of a separating element , and wherein an inverter , via which a compressor of the cooling device is driven, comprises a heat exchanger at a first side of two opposing sides for the exchange of waste heat to the air surrounding the heat exchanger and, at a second of the two opposing sides , an electronics part with multiple electronic components , characterized in that at least the heat exchanger of the first side of the inverter is arranged in the outer circuit and at least the electronics part of the second side of the inverter is arranged in the inner circuit .
A light emitting device comprising: a light emitting diode (LED) die mounted on a substrate surface; a lens of a first material encapsulating the LED die and extending over the substrate surface, the first material having a first index of refraction; and a first layer of a second material over the substrate surface surrounding the LED die, the second material and the first material meeting at an interface surrounding the LED die, the second material having a second index of refraction lower than the first index of refraction, wherein the second material comprises a gas, characterized in that , a second layer is provided between the lens and the first layer of the second material , or between the lens and the substrate, wherein the second layer is made of shrinkable material configured to pull back during curing, wherein the second layer is pulled back from the lens creating a gap , and wherein the gap contains gas. a light emitting diode (LED) die mounted on a substrate surface; a lens of a first material encapsulating the LED die and extending over the substrate surface, the first material having a first index of refraction; and a first layer of a second material over the substrate surface surrounding the LED die, the second material and the first material meeting at an interface surrounding the LED die, the second material having a second index of refraction lower than the first index of refraction, wherein the second material comprises a gas, characterized in that , a second layer is provided between the lens and the first layer of the second material , or between the lens and the substrate, wherein the second layer is made of shrinkable material configured to pull back during curing, wherein the second layer is pulled back from the lens creating a gap , and wherein the gap contains gas.
A method for producing acrylic acid by the catalytic gas-phase oxidation of acrolein with molecular oxygen or molecular oxygen-containing gas by a fixed-bed multitubular reactor which has been filled with catalyst, which method comprises filling each of reaction tubes of a fixed-bed multitubular reactor with at least two species of catalysts each of which essentially comprises, as catalytically active components, oxide of molybdenum and oxide of vanadium and/or composite oxide of the same, said at least two species of catalysts being different in the ratio of D1/D2, D1 denoting the proportion of the total pore volume of pores whose pore diameter falls within the range of at least 0.03 μm and less than 0.4 μm to the total pore volume of the whole pores, and D2 denoting the proportion of the total pore volume of pores whose pore diameter falls within the range of at least 0.4 μm and at most 5 μm to the total pore volume of the whole pores, in such a manner that at least two reaction zones are formed axially in each of the reaction tubes, wherein said total pore volume and said pore diameter are measured with a mercury intrusion porosimeter at an average pressure elevation rate of 0.005-0.3 MPa/sec, and wherein said catalyst comprises a catalytically active component of formula as follows: Mo 12 V a W b A c B d C e D f O x wherein Mo is molybdenum; V is vanadium; W is tungsten; A is at least one species of element selected from the group consisting of chromium, manganese, iron, cobalt, nickel, copper, zinc and bismuth; B is at least one species of element selected from the group consisting of antimony, niobium, tin, tellurium and phosphorus; C is at least one species of element selected from the group consisting of silicon, aluminum, titanium, cerium and zirconium; D is at least one species of element selected from the group consisting of alkali metals and alkaline earth metals; and O is oxygen; and a, b, c, d, e, f and x each denote number of atoms of V, W, A, B, C, D and O, and 0 < a ≤ 14, 0 ≤ b ≤ 12, 0 ≤ c ≤ 30, 0 ≤ d ≤ 6, 0 ≤ e ≤ 50, and 0 ≤ f ≤ 6, and x is a value determined by the state of oxidation of each of the elements, and wherein D1/D2 ratio is 0.1 to 5, and wherein each of reaction tubes of a fixed-bed multitubular reactor is filled, on the gas inlet side, with a catalyst which has a small D1/D2 ratio, and on the gas outlet side with a catalyst which has a large D1/D2 ratio.
Dispersion comprising - at least one porous sorbent selected from the group consisting of silica gels, zeolites and zeolite-like materials, aluminophosphates, silica aluminophosphates and metal aluminium phosphates, metal-organic frameworks (MOFs) and/or porous coordination polymers (PCPs), zeoliteimidazolate networks (ZiFs), molecular sieves (MCMs), activated carbons, carbon molecular sieves, hexacyanometallates and mixtures hereof, wherein the at least one sorbent comprises mesopores with a diameter of 2 to 50 nm and is hence porous and has a BET surface of at least 300 m 2 /g - at least one binder from the group of polyorganosiloxanes and - at least one organic solvent. - at least one porous sorbent selected from the group consisting of silica gels, zeolites and zeolite-like materials, aluminophosphates, silica aluminophosphates and metal aluminium phosphates, metal-organic frameworks (MOFs) and/or porous coordination polymers (PCPs), zeoliteimidazolate networks (ZiFs), molecular sieves (MCMs), activated carbons, carbon molecular sieves, hexacyanometallates and mixtures hereof, wherein the at least one sorbent comprises mesopores with a diameter of 2 to 50 nm and is hence porous and has a BET surface of at least 300 m 2 /g - at least one binder from the group of polyorganosiloxanes and - at least one organic solvent.