mhurhangee/patent-ind-claim-en huggingface dataset:
Negative pressure device for affixing a patient interface to a patient's eye, the negative pressure device including: - a negative pressure generator and a device-side negative pressure interface for fluidically coupling the negative pressure generator to a negative pressure cavity of the patient interface ; - a fluidic pressure sensor and a device-side pressure sensor interface for coupling the pressure sensor to the patient interface in a manner functionally separate from the device-side negative pressure interface ; - a control unit operatively coupled to the negative pressure generator and the pressure sensor , the control unit being configured to control the negative pressure generator to generate negative pressure in the negative pressure cavity and further being configured to evaluate a pressure determined by the pressure sensor . - a negative pressure generator and a device-side negative pressure interface for fluidically coupling the negative pressure generator to a negative pressure cavity of the patient interface ; - a fluidic pressure sensor and a device-side pressure sensor interface for coupling the pressure sensor to the patient interface in a manner functionally separate from the device-side negative pressure interface ; - a control unit operatively coupled to the negative pressure generator and the pressure sensor , the control unit being configured to control the negative pressure generator to generate negative pressure in the negative pressure cavity and further being configured to evaluate a pressure determined by the pressure sensor .
A method of forming a container from a sleeve blank and a bottom blank, the sleeve blank including a pair of opposing side edges , the method comprising: providing the sleeve blank , having a first layer of adhesive printed thereon by a first adhesive printing station , to a second adhesive printing station ; printing, using the second adhesive printing station , a second layer of adhesive on the sleeve blank such that the final amount of printed adhesive has a greater thickness than the first layer of adhesive and forms a printed adhesive seam portion configured to adhesively seal the side edges to form a sidewall seal ; and wrapping the sleeve blank around the bottom blank at a container forming station to adhesively seal the side edges to form the sidewall seal , wherein the sleeve blank includes a top edge and a bottom edge . characterised in that the first and second layers of adhesive are applied along a seam portion along the entire distance between the top and bottom edges to form the printed adhesive seam portion . providing the sleeve blank , having a first layer of adhesive printed thereon by a first adhesive printing station , to a second adhesive printing station ; printing, using the second adhesive printing station , a second layer of adhesive on the sleeve blank such that the final amount of printed adhesive has a greater thickness than the first layer of adhesive and forms a printed adhesive seam portion configured to adhesively seal the side edges to form a sidewall seal ; and wrapping the sleeve blank around the bottom blank at a container forming station to adhesively seal the side edges to form the sidewall seal , wherein the sleeve blank includes a top edge and a bottom edge . characterised in that the first and second layers of adhesive are applied along a seam portion along the entire distance between the top and bottom edges to form the printed adhesive seam portion .
A wearable device for monitoring body posture, said wearable device comprising a housing exhibiting a back surface and a front surface, a fastening means adapted to secure the housing to a user's body, a first sensor device and a second sensor device each being mounted at the wearable device and adapted to measure changes in a user's body posture when the wearable device is worn by a user (U), a processing unit adapted to collect and process sensor signals delivered from said sensor devices and to generate and transmit output signals, and at least one feedback device adapted to receive said output signals from the processing unit and to provide posture feedback to a user wearing the wearable device, wherein the processing unit is configured to decide when to transmit a control signal to the feedback device causing it to provide posture feedback to a user, based upon said signals delivered by the sensors, and wherein the at least one feedback device is configured to provide posture feedback when receiving the control signal from the processing unit , characterized in that the fastening means is adapted to secure the housing adjacent to a user's sternum (S) with the back surface facing a user's body when the wearable device is worn, that the first sensor device is mounted at the housing and configured to deliver a signal corresponding to an actual distance (X) between the front surface of the housing and a user's chin (C) when the wearable device is worn, that the second sensor device is mounted at the housing and configured to deliver a signal corresponding to an actual inclination (α) of a user's sternum (S) when the wearable device is worn, and that the processing unit is configured to, when the wearable device is worn by a user, determine both inclination and translation (FT) of a user's head by calculating both head tilt and displacement based on the signals from the second sensor device corresponding to the inclination (a) of the sternum (S), and the signals from the first sensor device corresponding to the distance (X) between the front surface of the housing and the chin (C).
A data synchronization method, implemented by a first processor, comprising: determining a descriptor of to-be-synchronized tensor data, wherein the descriptor describes a shape of the tensor data; generating a descriptor synchronization instruction according to the descriptor of the tensor data, where the descriptor synchronization instruction includes an identifier of the descriptor and/or content of the descriptor, and sending the descriptor synchronization instruction to a second processor, where the descriptor synchronization instruction is configured to instruct the second processor to obtain the tensor data according to the descriptor synchronization instruction, thereby achieving a synchronization of tensor data between the first processor and the second processor. determining a descriptor of to-be-synchronized tensor data, wherein the descriptor describes a shape of the tensor data; generating a descriptor synchronization instruction according to the descriptor of the tensor data, where the descriptor synchronization instruction includes an identifier of the descriptor and/or content of the descriptor, and sending the descriptor synchronization instruction to a second processor, where the descriptor synchronization instruction is configured to instruct the second processor to obtain the tensor data according to the descriptor synchronization instruction, thereby achieving a synchronization of tensor data between the first processor and the second processor.
Household appliance for caring for laundry items, with an outer tub , in which a laundry drum embodied for accommodating the laundry items is arranged, with a pump system which comprises a circulation pump , by means of which a fluid can be conveyed out of a lower region of the outer tub into an upper region of the outer tub , and with a control facility for actuating the circulation pump , wherein the control facility is embodied to ascertain a conveying power of at least the circulation pump on the basis of at least one operating parameter of the circulation pump , wherein the household appliance comprises a flow rate measuring facility , characterised in that the flow rate measuring facility can be used to record a flowing of the fluid through a line of the pump system , via which the fluid can be supplied to the circulation pump , wherein the control facility is embodied to take into consideration at least one measurement value of the flow rate measuring facility when ascertaining the conveying power of the circulation pump .
A photovoltaic device comprising: a first electrode ; a second electrode ; an active layer disposed at least partially between the first and second electrodes, the active layer comprising: a photoactive material layer comprising a perovskite material; and a first interfacial layer disposed adjacent to and in contact with a second interfacial layer ; and a third interfacial layer disposed adjacent to and in contact with the second interfacial layer , wherein the first interfacial layer and the third interfacial layer comprises a different material than the second interfacial layer ; wherein the first interfacial layer comprises A1203, the second interfacial layer comprises ZnO, and the third interfacial layer comprises A1203. a first electrode ; a second electrode ; an active layer disposed at least partially between the first and second electrodes, the active layer comprising: a photoactive material layer comprising a perovskite material; and a first interfacial layer disposed adjacent to and in contact with a second interfacial layer ; and a third interfacial layer disposed adjacent to and in contact with the second interfacial layer , wherein the first interfacial layer and the third interfacial layer comprises a different material than the second interfacial layer ; a photoactive material layer comprising a perovskite material; and a first interfacial layer disposed adjacent to and in contact with a second interfacial layer ; and a third interfacial layer disposed adjacent to and in contact with the second interfacial layer , wherein the first interfacial layer and the third interfacial layer comprises a different material than the second interfacial layer ; wherein the first interfacial layer comprises A1203, the second interfacial layer comprises ZnO, and the third interfacial layer comprises A1203.
Process for producing silicon chunks, comprising the steps of a) providing a silicon rod, b) treating the surface of the silicon rod with a hammer and/or needle hammer for at least partial removal of a surface layer, c) comminuting the silicon rod into chunks via a thermal crushing process or via high-voltage impulse crushing or via an apparatus selected from the group comprising jaw crusher, roller crusher, chisel and sledgehammer, wherein the surface layer is removed to a depth of 1 to 10 mm by an impact energy applied with the hammer and/or needle hammer of 1 to 15 J. a) providing a silicon rod, b) treating the surface of the silicon rod with a hammer and/or needle hammer for at least partial removal of a surface layer, c) comminuting the silicon rod into chunks via a thermal crushing process or via high-voltage impulse crushing or via an apparatus selected from the group comprising jaw crusher, roller crusher, chisel and sledgehammer,
A surface film for a sports device, in particular for skis, snowboards or water sports devices, wherein there is at least one layer which - contains a thermoplastic polyurethane (TPU) and a polystyrene (PS) and/or - contains a thermoplastic polyurethane (TPU), a styrene-acrylonitrile (SAN) and a styrene-maleic anhydride (SMA), characterised in that the thermoplastic polyurethane is an aromatic polyurethane. - contains a thermoplastic polyurethane (TPU) and a polystyrene (PS) and/or - contains a thermoplastic polyurethane (TPU), a styrene-acrylonitrile (SAN) and a styrene-maleic anhydride (SMA),
Method for producing an automotive structural part comprising a lowerside sill extending between a rear end and a front end and a lower front pillar extending substantially perpendicularly from the front end of the lowerside sill , characterized in that the method comprising the steps of : - providing an inner structural part blank having a L-shape and an outer structural part blank having a L-shape, said inner and outer structural part blanks being substantially planar, - hot stamping the inner structural part blank to form an inner automotive structural part having an inner lowerside sill part and an inner lower front pillar part made of a single part with the inner lowerside sill part , - hot stamping the outer structural part blank to form an outer automotive structural part having an outer lowerside sill part and an outer lower front pillar part made of a single part with the outer lowerside sill part , - assembling the inner automotive structural part and the outer automotive structural part to form the automotive structural part . - providing an inner structural part blank having a L-shape and an outer structural part blank having a L-shape, said inner and outer structural part blanks being substantially planar, - hot stamping the inner structural part blank to form an inner automotive structural part having an inner lowerside sill part and an inner lower front pillar part made of a single part with the inner lowerside sill part , - hot stamping the outer structural part blank to form an outer automotive structural part having an outer lowerside sill part and an outer lower front pillar part made of a single part with the outer lowerside sill part , - assembling the inner automotive structural part and the outer automotive structural part to form the automotive structural part .
Method for optical shape detection and/or shape inspection of an object, wherein a structured illumination is used, wherein an irradiance profile of the structured illumination is provided which is based on a carrier signal modulated by a modulation function according to a modulation method, wherein - as carrier signal a periodic function with a sequence of periods is used, wherein - a Gaussian function, a Gaussian-shaped function or an approximately Gaussian-shaped function is used as modulation function, wherein - the modulation function is a function given in spatial space by which the local variation of the irradiance of the carrier signal is changed, and - a light-sectioning method, a method of stripe projection, and/or a method of deflectometry is performed characterized in that - the modulation function is used to make periods of the carrier signal distinguishable from one another. - as carrier signal a periodic function with a sequence of periods is used, wherein - a Gaussian function, a Gaussian-shaped function or an approximately Gaussian-shaped function is used as modulation function, wherein - the modulation function is a function given in spatial space by which the local variation of the irradiance of the carrier signal is changed, and - a light-sectioning method, a method of stripe projection, and/or a method of deflectometry is performed - the modulation function is used to make periods of the carrier signal distinguishable from one another.
A process for preparing mirabegron enacarbil represented by the following formula I as a mixture of two diastereomers or as one diastereomer, wherein the process comprises the steps: c) reacting mirabegron and 1-(isobutyryloxy)ethyl-p-nitrophenyl carbonate represented by the following formula in a solvent, optionally in the presence of a base, followed by isolating crude compound I, d) treating crude compound I in solution with phosphoric acid and isolating the precipitated phosphate salt of compound I, and e) suspending the phosphate salt of compound I in water and a water-immiscible solvent, followed by extracting compound I into the water-immiscible solvent and removing the water-immiscible solvent to obtain compound I. c) reacting mirabegron and 1-(isobutyryloxy)ethyl-p-nitrophenyl carbonate represented by the following formula in a solvent, optionally in the presence of a base, followed by isolating crude compound I, d) treating crude compound I in solution with phosphoric acid and isolating the precipitated phosphate salt of compound I, and e) suspending the phosphate salt of compound I in water and a water-immiscible solvent, followed by extracting compound I into the water-immiscible solvent and removing the water-immiscible solvent to obtain compound I.
A method for measuring a distance of diffusion of a curing catalyst (Xc) for a thermosetting silicon-containing material (Sx), comprising the steps of: coating a substrate with a composition for forming a silicon-containing film containing the thermosetting silicon-containing material (Sx), the curing catalyst (Xc), and a solvent (a), and subsequently heating to form a silicon-containing film (Sf), coating the silicon-containing film (Sf) with a photosensitive resin composition containing a resin (A), an acid generator and a solvent (b), and subsequently heating to remove the solvent (b) to prepare a substrate on which the silicon-containing film (Sf) and a resin film are formed, a solubility of the resin (A) in an alkaline developer being increased by an action of an acid, and the acid generator being to generate an acid by a high energy beam having a wavelength of 300 nm or less or an electron beam, irradiating the substrate with the high energy beam or the electron beam to decompose the acid generator so as to generate an acid, heat-treating the substrate to increase the solubility of the resin (A) in an alkaline developer by the action of the acid in the resin film, dissolving in an alkaline developer the resin film having the increased solubility in the alkaline developer, and measuring a film thickness of the resin (A) that was not dissolved in the alkaline developer and remained on the silicon-containing film (Sf). coating a substrate with a composition for forming a silicon-containing film containing the thermosetting silicon-containing material (Sx), the curing catalyst (Xc), and a solvent (a), and subsequently heating to form a silicon-containing film (Sf), coating the silicon-containing film (Sf) with a photosensitive resin composition containing a resin (A), an acid generator and a solvent (b), and subsequently heating to remove the solvent (b) to prepare a substrate on which the silicon-containing film (Sf) and a resin film are formed, a solubility of the resin (A) in an alkaline developer being increased by an action of an acid, and the acid generator being to generate an acid by a high energy beam having a wavelength of 300 nm or less or an electron beam, irradiating the substrate with the high energy beam or the electron beam to decompose the acid generator so as to generate an acid, heat-treating the substrate to increase the solubility of the resin (A) in an alkaline developer by the action of the acid in the resin film, dissolving in an alkaline developer the resin film having the increased solubility in the alkaline developer, and measuring a film thickness of the resin (A) that was not dissolved in the alkaline developer and remained on the silicon-containing film (Sf).
Computer-implemented method comprising the steps of: - receiving a first representation (F̃1) of an examination region of an examination object, the first representation (F̃1) representing the examination region without contrast agent or after administration of a first amount of contrast agent, - receiving a second representation (F̃2) of the examination region of the examination object, the second representation (F̃2) representing the examination region after an administration of a second amount of contrast agent, - feeding at least part of the first representation (F̃1) and at least part of the second representation (F̃2) to a machine learning model (PM), - receiving from the machine learning model (PM) a third representation (F̃3*) of the examination region, the third representation (F̃3*) representing the examination region after administration of a third amount of contrast agent, - outputting and/or storing a representation (Õ3*) of the examination region in a real-space depiction, characterized in that the first representation (F̃1), the second representation (F̃2) and the third representation (F̃3*) represent the examination region of the examination object in frequency space, the method further comprising: - generating the representation (Õ3*) of the examination region in the real-space depiction on the basis of the third representation (F̃3*). - receiving a first representation (F̃1) of an examination region of an examination object, the first representation (F̃1) representing the examination region without contrast agent or after administration of a first amount of contrast agent, - receiving a second representation (F̃2) of the examination region of the examination object, the second representation (F̃2) representing the examination region after an administration of a second amount of contrast agent, - feeding at least part of the first representation (F̃1) and at least part of the second representation (F̃2) to a machine learning model (PM), - receiving from the machine learning model (PM) a third representation (F̃3*) of the examination region, the third representation (F̃3*) representing the examination region after administration of a third amount of contrast agent, - outputting and/or storing a representation (Õ3*) of the examination region in a real-space depiction, characterized in that the first representation (F̃1), the second representation (F̃2) and the third representation (F̃3*) represent the examination region of the examination object in frequency space, the method further comprising: - generating the representation (Õ3*) of the examination region in the real-space depiction on the basis of the third representation (F̃3*). - generating the representation (Õ3*) of the examination region in the real-space depiction on the basis of the third representation (F̃3*).
A comparator circuit comprising: a master latch comprising a first amplifier circuit and a first latch circuit coupled to an output of the first amplifier circuit ; a slave latch comprising a second amplifier circuit having an input coupled to the output of the first amplifier circuit , and a second latch circuit coupled to an output of the second amplifier circuit ; and a hysteresis compensation circuit coupled to the output of the second amplifier circuit and configured to cause a first predetermined signal level shift of the output of the first amplifier circuit in response to a high signal level at the output of the second amplifier circuit , and configured to cause a second predetermined signal level shift of the output of the first amplifier circuit in response to a low signal level at the output of the second amplifier circuit . a master latch comprising a first amplifier circuit and a first latch circuit coupled to an output of the first amplifier circuit ; a slave latch comprising a second amplifier circuit having an input coupled to the output of the first amplifier circuit , and a second latch circuit coupled to an output of the second amplifier circuit ; and a hysteresis compensation circuit coupled to the output of the second amplifier circuit and configured to cause a first predetermined signal level shift of the output of the first amplifier circuit in response to a high signal level at the output of the second amplifier circuit , and configured to cause a second predetermined signal level shift of the output of the first amplifier circuit in response to a low signal level at the output of the second amplifier circuit .