mhurhangee/patent-ind-claim-en huggingface dataset:
Pharmaceutical dispenser , in particular an inhaler, for discharging a pharmaceutical liquid, preferably in atomized form, having the following features: a. the dispenser has a liquid reservoir and/or a receiving space for receiving a replaceable liquid reservoir , and b. the dispenser has an outlet through which the liquid can be dispensed from the liquid reservoir into an environment or through which it can be inhaled by a user, and c. the dispenser has a liquid channel which connects the liquid reservoir to the outlet , and d. the dispenser has an evaluation electronics unit for electronic detection and processing of discharging procedures, wherein the evaluation electronics unit has a liquid sensor which is designed to detect a variable that is influenced by the flow of liquid from the liquid reservoir to the outlet , and e. the dispenser has a main module and an evaluation module , and f. the main module comprises the liquid reservoir, or the receiving space provided to receive the latter, and the outlet , characterized by the following features: g. the evaluation module comprises the evaluation electronics unit and at least one subportion of the liquid channel and also the liquid sensor provided at this subportion , and h. the main module and the evaluation module are designed for releasable coupling to each other, and i. the main module and the evaluation module have interacting coupling devices , which are designed for coupling and uncoupling without tools. a. the dispenser has a liquid reservoir and/or a receiving space for receiving a replaceable liquid reservoir , and b. the dispenser has an outlet through which the liquid can be dispensed from the liquid reservoir into an environment or through which it can be inhaled by a user, and c. the dispenser has a liquid channel which connects the liquid reservoir to the outlet , and d. the dispenser has an evaluation electronics unit for electronic detection and processing of discharging procedures, wherein the evaluation electronics unit has a liquid sensor which is designed to detect a variable that is influenced by the flow of liquid from the liquid reservoir to the outlet , and e. the dispenser has a main module and an evaluation module , and f. the main module comprises the liquid reservoir, or the receiving space provided to receive the latter, and the outlet , characterized by the following features: g. the evaluation module comprises the evaluation electronics unit and at least one subportion of the liquid channel and also the liquid sensor provided at this subportion , and h. the main module and the evaluation module are designed for releasable coupling to each other, and i. the main module and the evaluation module have interacting coupling devices , which are designed for coupling and uncoupling without tools.
A photographing apparatus (100a;100b;100c;100d;100e;100f;100g) comprising: a photographing device (110;3491) comprising imaging circuitry configured to generate an image signal by photoelectric conversion of incident light; a processor (120;3410) comprising processing circuitry configured to: determine a sampling interval of time lapse photographing over time based on a reference value acquired in real time while the time lapse photographing is performed, sample a plurality of input frames generated from the image signal at the sampling interval while the time lapse photographing is performed, stabilize a plurality of frames selected by sampling the plurality of input frames wherein the stabilization is performed by adjusting the frames of the plurality of frames to a field-of-view, FOV, window, when a movement occurs caused by a user of the photographing apparatus, and wherein the size of the FOV window is determined based on the sampling interval, and compress the plurality of selected frames at an output frame rate to generate a time lapse image file; and a storage (130;3430) configured to store the time lapse image file. a photographing device (110;3491) comprising imaging circuitry configured to generate an image signal by photoelectric conversion of incident light; a processor (120;3410) comprising processing circuitry configured to: determine a sampling interval of time lapse photographing over time based on a reference value acquired in real time while the time lapse photographing is performed, sample a plurality of input frames generated from the image signal at the sampling interval while the time lapse photographing is performed, stabilize a plurality of frames selected by sampling the plurality of input frames wherein the stabilization is performed by adjusting the frames of the plurality of frames to a field-of-view, FOV, window, when a movement occurs caused by a user of the photographing apparatus, and wherein the size of the FOV window is determined based on the sampling interval, and compress the plurality of selected frames at an output frame rate to generate a time lapse image file; and a storage (130;3430) configured to store the time lapse image file. determine a sampling interval of time lapse photographing over time based on a reference value acquired in real time while the time lapse photographing is performed, sample a plurality of input frames generated from the image signal at the sampling interval while the time lapse photographing is performed, stabilize a plurality of frames selected by sampling the plurality of input frames wherein the stabilization is performed by adjusting the frames of the plurality of frames to a field-of-view, FOV, window, when a movement occurs caused by a user of the photographing apparatus, and wherein the size of the FOV window is determined based on the sampling interval, and compress the plurality of selected frames at an output frame rate to generate a time lapse image file; and a storage (130;3430) configured to store the time lapse image file.
An outdoor unit (100a to 100d) of an air-conditioning apparatus, comprising: - a casing having an air inlet and an air outlet , and forming an outer shell; - a fan provided inside the casing , and configured to suck outside air from the air inlet and exhaust the outside air from the air outlet ; and - a heat exchanger (10a to 10f) provided inside the casing , and configured to exchange heat between the outside air sucked by the fan and a refrigerant, the heat exchanger (10a to 10f) including - a first heat exchanger main body including a plurality of fins arranged in parallel at an interval and a plurality of flat pipes passing through the plurality of fins in a direction of parallel arrangement of the plurality of fins , wherein the refrigerant is arranged for flowing inside the plurality of flat pipes , and - a second heat exchanger main body including a plurality of fins arranged in parallel at an interval and a plurality of circular pipes passing through the plurality of fins in a direction of parallel arrangement of the plurality of fins , wherein the refrigerant is arranged for flowing inside the plurality of circular pipes , the first heat exchanger main body being arranged closer to the fan than is the second heat exchanger main body ; the outdoor unit further comprising: - a header connected to an upstream side of the first heat exchanger main body ; and - a distributor connected to an upstream side of the second heat exchanger main body through a capillary tube . - a casing having an air inlet and an air outlet , and forming an outer shell; - a fan provided inside the casing , and configured to suck outside air from the air inlet and exhaust the outside air from the air outlet ; and - a heat exchanger (10a to 10f) provided inside the casing , and configured to exchange heat between the outside air sucked by the fan and a refrigerant, the heat exchanger (10a to 10f) including - a first heat exchanger main body including a plurality of fins arranged in parallel at an interval and a plurality of flat pipes passing through the plurality of fins in a direction of parallel arrangement of the plurality of fins , wherein the refrigerant is arranged for flowing inside the plurality of flat pipes , and - a second heat exchanger main body including a plurality of fins arranged in parallel at an interval and a plurality of circular pipes passing through the plurality of fins in a direction of parallel arrangement of the plurality of fins , wherein the refrigerant is arranged for flowing inside the plurality of circular pipes , - a header connected to an upstream side of the first heat exchanger main body ; and - a distributor connected to an upstream side of the second heat exchanger main body through a capillary tube .
Method of patterning a surface of an object or a tool with nano and/or micro structure elements, comprising the steps of : - producing a flexible mask with said nano or micro structure pattern formed on a surface of said flexible mask, - chemically activating said surface of the flexible mask and/or a surface to be patterned of the object or tool, placing said patterned surface of the flexible mask in contact with said surface to be patterned of the object or tool, said chemical activation configured to modify chemical properties at the surface of the flexible mask or surface to be patterned of the object or tool to enhance bonding of the chemically activated surface to a complementary material placed in contact with the chemically activated surface, - promoting a covalent bonding reaction between said patterned surface of the flexible mask in contact with said surface to be patterned, removing the flexible mask from the object or tool whereby a layer of said flexible mask remains bonded to said surface to be patterned, - wherein an anti-activation mask defining a periphery of the surface area to be patterned, or peripheries of the surface area to be patterned if there are a plurality of separate portions of surface area to be patterned, is deposited on the flexible mask prior to placing the patterned surface of the flexible mask on the surface to be patterned, said anti-activation mask preventing bonding of the flexible mask to the surface of the object or tool in areas where the anti-activation mask is present. - producing a flexible mask with said nano or micro structure pattern formed on a surface of said flexible mask, - chemically activating said surface of the flexible mask and/or a surface to be patterned of the object or tool, placing said patterned surface of the flexible mask in contact with said surface to be patterned of the object or tool, said chemical activation configured to modify chemical properties at the surface of the flexible mask or surface to be patterned of the object or tool to enhance bonding of the chemically activated surface to a complementary material placed in contact with the chemically activated surface, - promoting a covalent bonding reaction between said patterned surface of the flexible mask in contact with said surface to be patterned, removing the flexible mask from the object or tool whereby a layer of said flexible mask remains bonded to said surface to be patterned, - wherein an anti-activation mask defining a periphery of the surface area to be patterned, or peripheries of the surface area to be patterned if there are a plurality of separate portions of surface area to be patterned, is deposited on the flexible mask prior to placing the patterned surface of the flexible mask on the surface to be patterned, said anti-activation mask preventing bonding of the flexible mask to the surface of the object or tool in areas where the anti-activation mask is present.
An electronic device, comprising: a display including a plurality of pixels to display a screen; a fingerprint sensor disposed below the display such that contacts to a finger within a sensing area of the display are detected by the fingerprint sensor through the display; and at least one processor electrically connected to the display and the fingerprint sensor, wherein the processor is configured to: in response to an event related to a sensing of a fingerprint, display an interface that functions as a visual guide identifying the sensing area with a first brightness, in response to receiving a user input applied onto the interface or after a specific period of time elapses from the display of the interface , change the screen such that pixels in an area of the screen except the interface is altered to display a black state, wherein a brightness of the interface is increased, receive a fingerprint input on the interface , and perform the fingerprint authentication based on the received fingerprint input. a display including a plurality of pixels to display a screen; a fingerprint sensor disposed below the display such that contacts to a finger within a sensing area of the display are detected by the fingerprint sensor through the display; and at least one processor electrically connected to the display and the fingerprint sensor, wherein the processor is configured to: in response to an event related to a sensing of a fingerprint, display an interface that functions as a visual guide identifying the sensing area with a first brightness, in response to receiving a user input applied onto the interface or after a specific period of time elapses from the display of the interface , change the screen such that pixels in an area of the screen except the interface is altered to display a black state, wherein a brightness of the interface is increased, in response to an event related to a sensing of a fingerprint, display an interface that functions as a visual guide identifying the sensing area with a first brightness, in response to receiving a user input applied onto the interface or after a specific period of time elapses from the display of the interface , change the screen such that pixels in an area of the screen except the interface is altered to display a black state, wherein a brightness of the interface is increased, receive a fingerprint input on the interface , and perform the fingerprint authentication based on the received fingerprint input.
Process for machining a lens, comprising the steps of: - holding a semi-finished product through a suction holding force which is active during an entire surface machining cycle of the semi-finished product , wherein said semi-finished product comprises a front surface , a rear surface opposite to the front surface and a perimeter side surface , wherein the suction holding force acts on said front surface ; - carrying out the surface machining cycle on said rear surface ; characterized in that the process comprises the step of: - activating a pressure holding force depending on the level of the mechanical stresses exerted on the semi-finished product during the surface machining cycle on said rear surface , the pressure holding force acting on said rear surface ; wherein the surface machining cycle on said rear surface comprises a first step in which the semi-finished product is held by the application of both the suction holding force on said front surface and the pressure holding force on said rear surface , and a subsequent step in which the semi-finished product is held by application of just the suction holding force on said front surface . - holding a semi-finished product through a suction holding force which is active during an entire surface machining cycle of the semi-finished product , wherein said semi-finished product comprises a front surface , a rear surface opposite to the front surface and a perimeter side surface , wherein the suction holding force acts on said front surface ; - carrying out the surface machining cycle on said rear surface ; characterized in that the process comprises the step of: - activating a pressure holding force depending on the level of the mechanical stresses exerted on the semi-finished product during the surface machining cycle on said rear surface , the pressure holding force acting on said rear surface ; wherein the surface machining cycle on said rear surface comprises a first step in which the semi-finished product is held by the application of both the suction holding force on said front surface and the pressure holding force on said rear surface , and a subsequent step in which the semi-finished product is held by application of just the suction holding force on said front surface .
A method for determining the state of charge, SoC, of a vanadium flow battery positive electrolyte comprising a solution of V IV and/or V V , the method comprising the steps of: determining the absorbance of the solution at at least one wavelength; and calculating the concentration of V IV and/or V V in the vanadium flow battery positive electrolyte based on the absorbance. determining the absorbance of the solution at at least one wavelength; and calculating the concentration of V IV and/or V V in the vanadium flow battery positive electrolyte based on the absorbance.
A method of determining on a computer-based system at least one representative segment of a musical composition, the method comprising: providing a digital audio signal representing said musical composition, dividing said digital audio signal into a plurality of frames of equal frame duration L f , calculating at least one audio feature value for each frame by calculating the Root Mean Squared (RMS) audio energy envelope for the whole length of said digital audio signal and quantizing said RMS audio energy envelope into consecutive segments of constant audio energy levels; characterised by selecting the first frame of the at least one segment associated with the highest energy level as a representative frame ; and determining at least one representative segment of the digital audio signal with a predefined segment duration L s , the starting point of said at least one representative segment being a representative frame . providing a digital audio signal representing said musical composition, dividing said digital audio signal into a plurality of frames of equal frame duration L f , calculating at least one audio feature value for each frame by calculating the Root Mean Squared (RMS) audio energy envelope for the whole length of said digital audio signal and quantizing said RMS audio energy envelope into consecutive segments of constant audio energy levels; characterised by selecting the first frame of the at least one segment associated with the highest energy level as a representative frame ; and determining at least one representative segment of the digital audio signal with a predefined segment duration L s , the starting point of said at least one representative segment being a representative frame .
A conveyor belt module having a module body comprising: a textured top surface having a first set of humps and a second set of humps ; a bottom surface ; a first side edge ; and a second side edge , wherein the humps in the first set are spaced laterally apart and extend substantially longitudinally between a first longitudinal location on the top surface and a second longitudinal location on the top surface , and the humps in the second set are parallel to and offset laterally and longitudinally from the humps in the first set; and characterized in that the conveyor belt module further comprises a third set of humps arranged in series and extending substantially perpendicular to the first and second sets of humps . a textured top surface having a first set of humps and a second set of humps ; a bottom surface ; a first side edge ; and a second side edge , wherein the humps in the first set are spaced laterally apart and extend substantially longitudinally between a first longitudinal location on the top surface and a second longitudinal location on the top surface , and the humps in the second set are parallel to and offset laterally and longitudinally from the humps in the first set; and characterized in that the conveyor belt module further comprises a third set of humps arranged in series and extending substantially perpendicular to the first and second sets of humps .
A device for manufacturing a metal alloy blank by centrifugal casting of a molten metal alloy, comprising a centrifugal casting wheel , the centrifugal casting wheel being rotary about an axis of rotation (A) and comprising a mold for receiving the molten metal alloy, the mold extending in a radial direction (R1) with respect to the axis of rotation (A), the device being characterized in that it comprises at least one magnet arranged in such a way as to induce an electric current in the mold during the rotation of the centrifugal casting wheel about the axis of rotation (A).
A communication method, performed by a communication device, the method comprising: determining a first time-frequency resource, wherein the first time-frequency resource is a physical downlink control channel, PDCCH, candidate in a plurality of PDCCH candidates, wherein the first time-frequency resource comprises a second time-frequency resource used to carry a beamformed control channel and a third time-frequency resource used to carry a reference signal of the beamformed control channel, wherein the first time-frequency resource consists of aplurality of source element, RE sets, each RE set of the plurality of RE sets comprises a same fixed quantity of REs, each RE set of the plurality of RE sets comprises a plurality of RE groups, REGs, each of the plurality of REGs consists of same quantity of REs, and wherein the third time-frequency resource is located at a preset location in each of the plurality of REGs, the preset location in each of the plurality of REGs is the same, and at least one resource in the first time-frequency resource other than the third time-frequency resource is the second time-frequency resource; and demodulating the beamformed control channel according to the reference signal, wherein the beamformed control channel is received in the second time-frequency resource and the reference signal is received in the third time frequency resource determining a first time-frequency resource, wherein the first time-frequency resource is a physical downlink control channel, PDCCH, candidate in a plurality of PDCCH candidates, wherein the first time-frequency resource comprises a second time-frequency resource used to carry a beamformed control channel and a third time-frequency resource used to carry a reference signal of the beamformed control channel, wherein the first time-frequency resource consists of aplurality of source element, RE sets, each RE set of the plurality of RE sets comprises a same fixed quantity of REs, each RE set of the plurality of RE sets comprises a plurality of RE groups, REGs, each of the plurality of REGs consists of same quantity of REs, and wherein the third time-frequency resource is located at a preset location in each of the plurality of REGs, the preset location in each of the plurality of REGs is the same, and at least one resource in the first time-frequency resource other than the third time-frequency resource is the second time-frequency resource; and demodulating the beamformed control channel according to the reference signal, wherein the beamformed control channel is received in the second time-frequency resource and the reference signal is received in the third time frequency resource