mhurhangee/patent-ind-claim-en huggingface dataset:
A signal processor for detecting a target object by using a transducer for transmitting a transmission wave and receiving a reflection wave of the transmission wave, based on a reception signal obtained from the reflection wave, the signal processor comprising: an extracting module configured to extract, from echo sample sequences each of which is obtained by plotting a plurality of samples constituting the reception signal on coordinates defined by a distance from the transducer and amplitudes of the plurality of samples and is generated for each azimuth with reference to a position of the transducer , a plurality of samples caused by the target object as a partial sample sequence; a characteristic amount calculating module configured to calculate a characteristic of the partial sample sequence as a characteristic amount; a memory configured to store a plurality of type-based data that are data as comparison targets of the characteristic amount and correspond to types from which the target object is identified; and an identifying module configured to compare the characteristic amount with each of the plurality of type-based data and, based on the comparison result, identify the type of the target object for which the characteristic amount is calculated, wherein the characteristic amount is one of the number of samples constituting a rising portion of the partial sample sequence, the number of samples constituting a falling portion of the partial sample sequence, and a value obtained based on an integral value of the falling portion. an extracting module configured to extract, from echo sample sequences each of which is obtained by plotting a plurality of samples constituting the reception signal on coordinates defined by a distance from the transducer and amplitudes of the plurality of samples and is generated for each azimuth with reference to a position of the transducer , a plurality of samples caused by the target object as a partial sample sequence; a characteristic amount calculating module configured to calculate a characteristic of the partial sample sequence as a characteristic amount; a memory configured to store a plurality of type-based data that are data as comparison targets of the characteristic amount and correspond to types from which the target object is identified; and an identifying module configured to compare the characteristic amount with each of the plurality of type-based data and, based on the comparison result, identify the type of the target object for which the characteristic amount is calculated, the number of samples constituting a rising portion of the partial sample sequence, the number of samples constituting a falling portion of the partial sample sequence, and a value obtained based on an integral value of the falling portion.
An electrochemical storage cell comprising a battery comprising: an alkali metal anode having an anode Fermi energy; an electronically insulating, amorphous, dried solid electrolyte able to conduct alkali metal, having the general formula A 3-x H x OX, wherein 0 ≤ x ≤ 1, A is the alkali metal, and X is at least one halide; and a cathode comprising a cathode current collector having a cathode Fermi energy lower than the anode Fermi energy; and a catalytic redox-center-relay material; and wherein the cathode comprises at least one of the group consisting of carbon, a gold film on a cathode current collector surface adjacent the solid electrolyte and an oxide film on a cathode current collector surface adjacent the solid electrolyte. an alkali metal anode having an anode Fermi energy; an electronically insulating, amorphous, dried solid electrolyte able to conduct alkali metal, having the general formula A 3-x H x OX, wherein 0 ≤ x ≤ 1, A is the alkali metal, and X is at least one halide; and a cathode comprising a cathode current collector having a cathode Fermi energy lower than the anode Fermi energy; and a catalytic redox-center-relay material; and wherein the cathode comprises at least one of the group consisting of carbon, a gold film on a cathode current collector surface adjacent the solid electrolyte and an oxide film on a cathode current collector surface adjacent the solid electrolyte.
A method comprising: determining a baseline of a drop forming at an opening of a drip chamber; capturing an image of a drip chamber using an image sensor ; identifying a plurality of pixels of interest within the image; determining a subset of pixels within the plurality of pixels of interest, wherein each pixel of the plurality of pixels of interest is determined to be within the subset of pixels when there is a path to the baseline , the baseline corresponding to the drip chamber ; performing a rotation operation on the subset of pixels; and estimating a volume of the drop within the drip chamber by counting a number of pixels within the rotated subset of pixels, wherein the step of determining the subset of pixels within the plurality of pixels of interest includes determining each of the plurality of pixels of interest is within the subset of pixels if the respective pixel of the plurality of pixels of interest has a contiguous path back to the baseline . determining a baseline of a drop forming at an opening of a drip chamber; capturing an image of a drip chamber using an image sensor ; identifying a plurality of pixels of interest within the image; determining a subset of pixels within the plurality of pixels of interest, wherein each pixel of the plurality of pixels of interest is determined to be within the subset of pixels when there is a path to the baseline , the baseline corresponding to the drip chamber ; performing a rotation operation on the subset of pixels; and estimating a volume of the drop within the drip chamber by counting a number of pixels within the rotated subset of pixels, wherein the step of determining the subset of pixels within the plurality of pixels of interest includes determining each of the plurality of pixels of interest is within the subset of pixels if the respective pixel of the plurality of pixels of interest has a contiguous path back to the baseline .
Interface for controlling at least one function of a motor vehicle component, including: - a movable part comprising a capacitive touch surface , - a fixed part intended to be secured to the motor vehicle, - at least one damping element interposed between the movable part and the fixed part , - at least one capacitive pressure sensor comprising a movable electrode (16; Tx; 27) borne by the movable part and a fixed electrode (22; Rx) borne by the fixed part , the fixed electrode (22; Rx) being arranged facing the movable electrode (16; Tx; 27) in order to measure a distance (d) between the movable part and the fixed part , said distance being representative of a pressing force exerted on the capacitive touch surface , characterized in that the movable electrode and the fixed electrode are in indirect contact in a rest position, a pressure exerted on the capacitive touch surface moving the movable electrode (16; Tx; 27) away from the fixed electrode (22; Rx), and in that the movable electrode (16; Tx; 27) is borne by a securing member for securing the movable part , which member passes through the damping element and the fixed part . - a movable part comprising a capacitive touch surface , - a fixed part intended to be secured to the motor vehicle, - at least one damping element interposed between the movable part and the fixed part , - at least one capacitive pressure sensor comprising a movable electrode (16; Tx; 27) borne by the movable part and a fixed electrode (22; Rx) borne by the fixed part , the fixed electrode (22; Rx) being arranged facing the movable electrode (16; Tx; 27) in order to measure a distance (d) between the movable part and the fixed part , said distance being representative of a pressing force exerted on the capacitive touch surface ,
A semiconductor wafer comprising an element layer including an n-type layer , an active layer , and a p-type layer on one surface of a sapphire substrate , wherein a surface of the element layer is bent in a convex way, characterized in that a curvature of said surface of said element layer is 530 km -1 to 800 km -1 , and the element layer comprises group III nitride single crystal layers, which are made of AlGaInN layers satisfying a composition represented by Al x In y Ga z N, wherein x, y, and z are rational numbers satisfying 0.3 ≤ x ≤ 1.0, 0 ≤ y ≦ 0.7, and 0 ≤ z ≤ 0.7, and x + y + z = 1.0. wherein a surface of the element layer is bent in a convex way, characterized in that a curvature of said surface of said element layer is 530 km -1 to 800 km -1 , and the element layer comprises group III nitride single crystal layers, which are made of AlGaInN layers satisfying a composition represented by Al x In y Ga z N, wherein x, y, and z are rational numbers satisfying 0.3 ≤ x ≤ 1.0, 0 ≤ y ≦ 0.7, and 0 ≤ z ≤ 0.7, and x + y + z = 1.0.
Metallic holding element for pressing into an opening in a plastic housing and receiving and/or initiating a torque in the plastic housing , wherein the holding element in the holding region is free of concave incisions or notches or undercuts and also in its cross-sectional shape has three main corners , which are interconnected with one another by way of convex edges , wherein each of the edges is shaped in a convexly curved manner by one or more obtuse-angled intermediate corners , wherein the holding element has: a) a cylindrical bore with a predefined undersize for receiving a self-tapping screw or b) an internal thread or c) a pin which is connected to the holding element and has an external thread. a) a cylindrical bore with a predefined undersize for receiving a self-tapping screw or b) an internal thread or c) a pin which is connected to the holding element and has an external thread.
A brake calliper unit for a disc brake of a vehicle, in particular a rail vehicle, having at least two opposing brake pad holders between which it is possible to introduce a brake disc of the disc brake, characterised by - a calliper lever arm structure that is designed to transfer an application force to the brake pad holders when the disc brake is actuated; - rotatable mountings to which the brake pad holders are fastened; and - at least one pre-tensioning unit that is designed to pre-tension at least one of the rotatable mountings against the application force. - a calliper lever arm structure that is designed to transfer an application force to the brake pad holders when the disc brake is actuated; - rotatable mountings to which the brake pad holders are fastened; and - at least one pre-tensioning unit that is designed to pre-tension at least one of the rotatable mountings against the application force.
A method, performed by a mobile computing device at a location of a piece of hygiene equipment as part of installation of a sensor device, the method comprising: obtaining, from the sensor device, information indicative of an identification of the sensor device; obtaining information indicative of the location of the piece of hygiene equipment with which the sensor device is to be associated; and associating the information indicative of an identification of the sensor device with the information indicative of a location of the piece of hygiene equipment. obtaining, from the sensor device, information indicative of an identification of the sensor device; obtaining information indicative of the location of the piece of hygiene equipment with which the sensor device is to be associated; and associating the information indicative of an identification of the sensor device with the information indicative of a location of the piece of hygiene equipment.
A power generating system comprising: a combustor configured to exhaust a combustion stream; a power production turbine configured to receive and expand the combustion stream and form a turbine exhaust stream; a first compressor (21; 22) configured to receive a portion of the turbine exhaust stream and form a compressed recycle CO 2 stream; a recuperative heat exchanger configured to receive the turbine exhaust stream and the compressed recycle CO 2 stream so that the compressed recycle CO 2 stream is heated with heat withdrawn from the turbine exhaust stream; a first additive heating source arranged to provide heating for the compressed recycle CO 2 stream in addition to the heat withdrawn from the turbine exhaust stream, the first additive heat source comprising a second compressor configured to receive and compress a portion of the turbine exhaust stream and form a compressed and heated stream for passage to the recuperative heat exchanger; a pump configured to receive the stream from the first compressor and the stream from the second compressor and pressurize the streams in combination, the pump positioned downstream from the first compressor (21; 22) and the second compressor ; and at least a second additive heating source arranged to heat the compressed recycle CO 2 stream in addition to the heat withdrawn from the turbine exhaust stream. a combustor configured to exhaust a combustion stream; a power production turbine configured to receive and expand the combustion stream and form a turbine exhaust stream; a first compressor (21; 22) configured to receive a portion of the turbine exhaust stream and form a compressed recycle CO 2 stream; a recuperative heat exchanger configured to receive the turbine exhaust stream and the compressed recycle CO 2 stream so that the compressed recycle CO 2 stream is heated with heat withdrawn from the turbine exhaust stream; a first additive heating source arranged to provide heating for the compressed recycle CO 2 stream in addition to the heat withdrawn from the turbine exhaust stream, the first additive heat source comprising a second compressor configured to receive and compress a portion of the turbine exhaust stream and form a compressed and heated stream for passage to the recuperative heat exchanger; a pump configured to receive the stream from the first compressor and the stream from the second compressor and pressurize the streams in combination, the pump positioned downstream from the first compressor (21; 22) and the second compressor ; and at least a second additive heating source arranged to heat the compressed recycle CO 2 stream in addition to the heat withdrawn from the turbine exhaust stream.
A computer server liquid cooling module, comprising an external case integrating components, characterised in that : ➢ the external case has a length (L), a width (I) and a thickness (e) such that, the length (L) is smaller than twice the width (I) and the thickness (e) is smaller than half the width (I), ➢ the external case has four side walls, two so-called long ones lengthwise and two so-called short ones widthwise, a bottom and a cap , and in that the module comprises, among the integrated components: ➢ a pump oriented along the length of the external case and located along a long side wall , ➢ a fan , ➢ a heat exchanger oriented in the direction of the length of the external case and located along the other long side wall , ➢ at least two ventilation grids respectively located in the two short side walls , ➢ a clear central longitudinal space disposed between the pump and the exchanger so as to facilitate an airflow from a grid of one short side wall to a grid of the other short side wall , this air flow being driven by the fan , ➢ a portion of a secondary hydraulic circuit , for the circulation of a heat-transfer fluid towards said computer server, located in the liquid cooling module, comprising no branch that would enable the pump to operate in closed-circuit and which might obstruct this clear longitudinal space , ➢ an electronic control board disposed in the longitudinal extension of this clear central longitudinal space so as to be directly swept by this air flow. ➢ the external case has a length (L), a width (I) and a thickness (e) such that, the length (L) is smaller than twice the width (I) and the thickness (e) is smaller than half the width (I), ➢ the external case has four side walls, two so-called long ones lengthwise and two so-called short ones widthwise, a bottom and a cap , ➢ a pump oriented along the length of the external case and located along a long side wall , ➢ a fan , ➢ a heat exchanger oriented in the direction of the length of the external case and located along the other long side wall , ➢ at least two ventilation grids respectively located in the two short side walls , ➢ a clear central longitudinal space disposed between the pump and the exchanger so as to facilitate an airflow from a grid of one short side wall to a grid of the other short side wall , this air flow being driven by the fan , ➢ a portion of a secondary hydraulic circuit , for the circulation of a heat-transfer fluid towards said computer server, located in the liquid cooling module, comprising no branch that would enable the pump to operate in closed-circuit and which might obstruct this clear longitudinal space , ➢ an electronic control board disposed in the longitudinal extension of this clear central longitudinal space so as to be directly swept by this air flow.
Steam cooker accessory for heating and/or steaming food contained in a receptacle , the steam cooker accessory comprising an enclosure having an outer side wall and a bottom wall , a steam generator configured to supply steam to the enclosure , the steam generator having a steam-generating chamber connected to a steam-dispensing outlet provided in a lower portion of the steam generator , the enclosure comprising a water tank surrounding and supplying water to the steam-generating chamber through at least one water supply inlet , the steam-generating chamber communicating with a steam discharge outlet arranged higher than the water supply inlet , the steam-generating chamber comprising a heating device , the enclosure comprising a first side wall surrounding the heating device and at least partially delimiting the steam-generating chamber , characterised in that the steam discharge outlet is arranged in the enclosure at a distance from the top of the first side wall .
A method for generating a high dynamic range image from a low dynamic range image, comprising the following steps: performing (S100) grey-level adjustment on a low dynamic range image to be processed in accordance with a preset mapping relationship to obtain an image after the grey-level adjustment; confirming (S200) a plurality of saturation areas in the image after the grey-level adjustment; performing (S300) grey-level enhancement of the saturation areas in the image after the grey-level adjustment, to obtain a target high dynamic range image; and outputting (S400) the target high dynamic range image; wherein, the grey-level adjustment (S100) comprises anti-gamma correction and grey-level value increase; and the grey-level value of pixels in the saturation areas is greater than a preset high dynamic saturation threshold; characterized in that the grey-level adjustment (S100) is performed in accordance with the following formula: C i = 2 n − 1 i 2 m − 1 1 γ ; wherein, C(i) is a grey-level value of each pixel in the image after the grey-level adjustment, i is a grey-level value of each pixel in the low dynamic range image to be processed, and i ∈ ; m is a grey-level scale of the low dynamic range image to be processed, n is a grey-level scale of the image after the grey-level adjustment, and m ≤ n ; and γ is a preset gamma value. performing (S100) grey-level adjustment on a low dynamic range image to be processed in accordance with a preset mapping relationship to obtain an image after the grey-level adjustment; confirming (S200) a plurality of saturation areas in the image after the grey-level adjustment; performing (S300) grey-level enhancement of the saturation areas in the image after the grey-level adjustment, to obtain a target high dynamic range image; and outputting (S400) the target high dynamic range image; wherein, the grey-level adjustment (S100) comprises anti-gamma correction and grey-level value increase; and the grey-level value of pixels in the saturation areas is greater than a preset high dynamic saturation threshold; characterized in that the grey-level adjustment (S100) is performed in accordance with the following formula: C i = 2 n − 1 i 2 m − 1 1 γ ; wherein, C(i) is a grey-level value of each pixel in the image after the grey-level adjustment, i is a grey-level value of each pixel in the low dynamic range image to be processed, and i ∈ ; m is a grey-level scale of the low dynamic range image to be processed, n is a grey-level scale of the image after the grey-level adjustment, and m ≤ n ; and γ is a preset gamma value.
Blade of a wind turbine comprising an airfoil with chord c with a thickness of more than 20%c with a vortex generator pair between chordwise position 20%c and 70%c with two not directly connected fins and a base which interconnects said fins which have a lateral spacing at their trailing edges of about the fin chord wherein said vortex generator pair comprises a fin with at least 1% camber and in particular at least 2% camber and more in particular at least 3% camber, which camber is a percentage of the fin chord.
A system for use in connection with a wheel torque generating component in a heavy-duty vehicle , comprising: - a fluid conduit , - a flow creating device configured to provide a pressurized air flow trough said fluid conduit, - a flow directing device enabling the pressurized air flow to be directed from the fluid conduit to the wheel torque generating component so as to control the temperature of the wheel torque generating component, and - a control unit characterized in that the control unit is configured to compare a determined first temperature (T1) of the pressurized air flow with a determined second temperature (T2) of the wheel torque generating component, wherein the control unit is further configured to, based on the comparison of the first temperature and the second temperature, selectively control the flow directing device to direct the pressurized air flow to the wheel torque generating component. - a fluid conduit , - a flow creating device configured to provide a pressurized air flow trough said fluid conduit, - a flow directing device enabling the pressurized air flow to be directed from the fluid conduit to the wheel torque generating component so as to control the temperature of the wheel torque generating component, and - a control unit
An electronic vaporizing device having a housing and an atomizer in the housing a capillary buffer in the housing, the capillary buffer having a first end , a second end , a capillary buffer portion between the first end and a second end , and a vapor channel ; and a liquid supply with the capillary buffer in between the liquid supply and the atomizer , and the vapor channel leading to the atomizer , characterized in that (a) the capillary buffer portion comprises a liquid conduit which is formed: (a1) between the first end and the second end , and (a2) through the capillary buffer portion; (b) the liquid supply is connecting into the liquid conduit . (a) the capillary buffer portion comprises a liquid conduit which is formed: (a1) between the first end and the second end , and (a2) through the capillary buffer portion; (a1) between the first end and the second end , and (a2) through the capillary buffer portion; (b) the liquid supply is connecting into the liquid conduit .