mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a binaural hearing system , said binaural hearing system comprising a first hearing aid and a second hearing aid , wherein in the first hearing aid , a first reference signal is generated from a sound signal by a first reference microphone , wherein in the second hearing aid , a second reference signal is generated from the sound signal by a second reference microphone , wherein the first reference signal and the second reference signal are both used to derive a first binaural beamformer signal , and wherein for at least a number of frequency bands below 2 kHz, a first output signal is derived from the first binaural beamformer signal , wherein the first reference signal and the second reference signal are both used to derive a second binaural beamformer signal , ; wherein for at least said number of frequency bands below 2 kHz, a second output signal is derived from the second binaural beamformer signal , characterized in that for said number of frequency bands, - the first reference signal is used to derive a first phase , - the second reference signal is used to derive a second phase , - the first output signal is further derived from the first phase , and the second output signal is further derived from the second phase , - the first binaural beamformer signal is decomposed into its magnitude and phase components, - the first output signal is derived using the magnitude component of the first binaural beamformer signal and the first phase , wherein the magnitude component of the first output signal is given by the magnitude component of the first binaural beamformer signal , and the phase component of the first output signal is given by the first phase , - the second binaural beamformer signal is decomposed into its magnitude and phase components, - the second output signal is derived using the magnitude component of the second beamformer signal and the second phase , wherein the magnitude component of the second output signal is given by the magnitude component of the second beamformer signal , and the phase component of the second output signal is given by the second phase . - the first reference signal is used to derive a first phase , - the second reference signal is used to derive a second phase , - the first output signal is further derived from the first phase , and the second output signal is further derived from the second phase , - the first binaural beamformer signal is decomposed into its magnitude and phase components, - the first output signal is derived using the magnitude component of the first binaural beamformer signal and the first phase , - the second binaural beamformer signal is decomposed into its magnitude and phase components, - the second output signal is derived using the magnitude component of the second beamformer signal and the second phase ,
An image processing apparatus for image data of a super high resolution microscope , comprising a computing device for processing the image data read out by an optoelectronic sensor , adapted to determine coordinates of brightness distribution maxima in the image data with an accuracy higher than the pixel pitch; characterised in that the computing device is adapted to determine the coordinates of a brightness maximum by calculating differences (diff.1, diff.2, diff.3, diff.4) of brightness values of adjacent pixels and concatenating these differences in an ordered sequence corresponding to the spatial sequence of the pixels to form an address, wherein the computing device furthermore comprises a memory with a table stored therein and containing coordinate values, wherein the computing device is adapted to read out a coordinate value from the table using the address defined by the concatenated difference values.
A method of manufacturing a rope drum that has a drum casing and end plates attached thereto at the end faces, characterized in that the drum casing is seamlessly rolled from an annular workpiece blank by means of a rolling apparatus , with a rope groove profile being formed at the outer casing surface of the seamless drum casing on and/or after the rolling thereof by a non-cutting machining by means of a tool that is mapped in the outer casing surface .
A computerized controller for a solid freeform fabrication, SFF, system, the computerized controller comprising a circuit and being configured to operate the SFF system to dispense and harden at least a first modeling material and a second modeling material to form a plurality of layers, wherein each of at least a portion of said layers is formed to have a core region and one or more envelope regions at least partially surrounding said core region, thereby to fabricate an object having a layered core constituting core regions and a layered shell constituting envelope regions, wherein a width within said layer of an envelope region of said one or more envelope regions is calculated separately for each layer, said width being defined within a plane engaged by said layer; characterized in that said core region comprises said first and said second materials being interlaced over said core region in a pixelated manner, and wherein said envelope region either comprises only said second material, or comprises both said first and said second materials being interlaced in a pixelated manner at a relative surface density which is different from a relative surface density of said materials in said core region.
A method of manufacturing an aerofoil for a gas turbine engine , the airfoil having a pair of opposing axial faces extending between a leading edge and a trailing edge , the method including: casting a first body portion forming at least part of the first axial face of the aerofoil , the first body portion having a passage passing there-through, wherein the passage extends from an opening at a first end at or near the leading edge to an opening at a second end at or near the trailing edge ; wherein the passage is formed during the casting process by a core ; and, wherein the core is supported at the first and second end through the respective openings of the passage , during casting, removing the core from the first body portion ; casting a second body portion forming at least part of the second axial face ; and, joining the first body portion and the second body portion to form the aerofoil , wherein the second body portion closes at least the opening at the first end of the passage . casting a first body portion forming at least part of the first axial face of the aerofoil , the first body portion having a passage passing there-through, wherein the passage extends from an opening at a first end at or near the leading edge to an opening at a second end at or near the trailing edge ; wherein the passage is formed during the casting process by a core ; and, wherein the core is supported at the first and second end through the respective openings of the passage , during casting, removing the core from the first body portion ; casting a second body portion forming at least part of the second axial face ; and, joining the first body portion and the second body portion to form the aerofoil , wherein the second body portion closes at least the opening at the first end of the passage .
A control device for an automatic transmission for a vehicle, the control device comprising: a vehicle-propelling friction engagement element (BR2) configured to be engaged when the vehicle starts traveling; an other friction engagement element (CL1, CL2, CL3); a vehicle-propelling friction engagement element temperature detector configured to detect or calculate a temperature of the vehicle-propelling friction engagement element (BR2); an input speed detector configured to detect an input speed of the automatic transmission ; and a control unit configured to control supply of lubricant to the vehicle-propelling friction engagement element (BR2) and the other friction engagement element (CL1, CL2, CL3), characterized in that the control unit is configured to switch a supply amount of lubricant to the vehicle-propelling friction engagement element (BR2) according to the temperature of the vehicle-propelling friction engagement element (BR2), and configured to switch a supply amount of lubricant to the other friction engagement element (CL1, CL2, CL3) according to the input speed. a vehicle-propelling friction engagement element (BR2) configured to be engaged when the vehicle starts traveling; an other friction engagement element (CL1, CL2, CL3); a vehicle-propelling friction engagement element temperature detector configured to detect or calculate a temperature of the vehicle-propelling friction engagement element (BR2); an input speed detector configured to detect an input speed of the automatic transmission ; and a control unit configured to control supply of lubricant to the vehicle-propelling friction engagement element (BR2) and the other friction engagement element (CL1, CL2, CL3), characterized in that the control unit is configured to switch a supply amount of lubricant to the vehicle-propelling friction engagement element (BR2) according to the temperature of the vehicle-propelling friction engagement element (BR2), and configured to switch a supply amount of lubricant to the other friction engagement element (CL1, CL2, CL3) according to the input speed.
A method for preparing a composite part for assembly, the method comprising: - placing a preform (189, 189-1) with a manufacturing excess (122, 122-9) upon a mandrel (110, 110-1); - hardening the preform (189, 189-1) into composite part (120, 120-1) with a hardened manufacturing excess (122, 122-9) while still upon mandrel (110, 110-1); and - operating a mandrel work station (130 through 130-8) to install an indexing feature (126, B126) into the manufacturing excess (122, 122-9) of the composite part (120, 120-1) pre-hardening and/or post hardening prior to demolding the composite part (120, 120-1) from mandrel (110, 110-1). - placing a preform (189, 189-1) with a manufacturing excess (122, 122-9) upon a mandrel (110, 110-1); - hardening the preform (189, 189-1) into composite part (120, 120-1) with a hardened manufacturing excess (122, 122-9) while still upon mandrel (110, 110-1); and - operating a mandrel work station (130 through 130-8) to install an indexing feature (126, B126) into the manufacturing excess (122, 122-9) of the composite part (120, 120-1) pre-hardening and/or post hardening prior to demolding the composite part (120, 120-1) from mandrel (110, 110-1).
A method for detecting circulating endothelial cells (CECs) in a non-enriched blood sample, comprising (a) determining, using fluorescent scanning microscopy, presence or absence of one or more immunofluorescent markers by direct analysis in nucleated cells in the non-enriched blood sample in the presence of surrounding white blood cells (WBCs), wherein the immunofluorescent markers comprise a marker specific for endothelial cells, and (b) assessing the morphology of the nucleated cells, wherein the CECs are detected among the nucleated cells based on a combination of distinct immunofluorescent staining and morphological characteristics.
A control resource configuration method, comprising: receiving (S303), by a terminal side apparatus from a network side apparatus, first signaling indicating a search space, wherein a monitoring periodicity and a monitoring occasion in time domain is configured for the terminal side apparatus; characterized in that the search space comprises a plurality of monitoring locations in frequency domain for one monitoring occasion, and the monitoring locations are used to monitor a physical downlink control channel, PDCCH, by the terminal side apparatus; the first signaling comprises a third field, and the third field indicates a quantity of PDCCH candidates at each monitoring location corresponding to different aggregation levels; and by monitoring, by the terminal side apparatus, the PDCCH in the search space. receiving (S303), by a terminal side apparatus from a network side apparatus, first signaling indicating a search space, wherein a monitoring periodicity and a monitoring occasion in time domain is configured for the terminal side apparatus; characterized in that the search space comprises a plurality of monitoring locations in frequency domain for one monitoring occasion, and the monitoring locations are used to monitor a physical downlink control channel, PDCCH, by the terminal side apparatus; the first signaling comprises a third field, and the third field indicates a quantity of PDCCH candidates at each monitoring location corresponding to different aggregation levels; and by monitoring, by the terminal side apparatus, the PDCCH in the search space.
Protection method of solid oxide cells, in which method is arranged gas flows in the cell by at least two cell structure plates made of metal, characterized in that the in the method is formed high temperature thermal flame to which liquid precursor is fed to form metal oxide compounds, said liquid precursor comprising metal ions, which form the desired coating with oxygen, said liquid precursor is formed from at least one of metal nitrates and metal acetates, and from solvent formed at least one of organic compounds and water in which solvent at least one of metal nitrates and metal acetates are dissolved, and from organic compounds which stabilize the liquid precursor through the chelation resulting more homogenous mixture of metal complex, and from organic compounds that are exothermic above characteristic energy threshold level, and from organic compounds that form gases as reaction product and therefore further increase the atomization of the liquid precursor, and is formed metal oxide material on metallic structure from liquid precursor containing at least metal ions and at least one of organic and inorganic compounds fed into thermal flame having average gas velocity over 200 m/s, and in the method is controlled flow rate at least of fuel, oxygen and liquid precursor in order to regulate thermal characteristics of the thermal spraying and to improve atomization of the precursor.
A communication method, wherein the method comprises: sending, by a network device, a physical downlink control channel, PDCCH, carrying downlink control information, DCI, wherein the DCI comprises indication information, and the indication information indicates a type of system information; wherein the type of system information is first-type system information or second-type system information, the first-type system information is system information block type1, SIB1, and the second-type system information is system information, SI, other than the SIB1, and the DCI indicates a physical resource carrying the system information, wherein the physical resource carrying the system information is determined, by the network device, based on the type of the system information, and the physical resource comprises a time domain resource and/or frequency domain resource of a physical downlink shared channel, PDSCH; sending, by the network device according to a frequency domain reference point, a demodulation reference signal, DMRS, for the PDSCH, wherein the frequency domain reference point corresponds to the type of system information; and sending, by the network device, the system information on the physical resource. sending, by a network device, a physical downlink control channel, PDCCH, carrying downlink control information, DCI, wherein the DCI comprises indication information, and the indication information indicates a type of system information; wherein the type of system information is first-type system information or second-type system information, the first-type system information is system information block type1, SIB1, and the second-type system information is system information, SI, other than the SIB1, and the DCI indicates a physical resource carrying the system information, wherein the physical resource carrying the system information is determined, by the network device, based on the type of the system information, and the physical resource comprises a time domain resource and/or frequency domain resource of a physical downlink shared channel, PDSCH; sending, by the network device according to a frequency domain reference point, a demodulation reference signal, DMRS, for the PDSCH, wherein the frequency domain reference point corresponds to the type of system information; and sending, by the network device, the system information on the physical resource.
A device for filtering a cooling air flow (F) for cooling a low-pressure turbine of a turbomachine, characterised in that it includes a duct having a geometry configured to centrifuge said cooling air flow (F) passing through said duct , said duct having openings dimensioned to allow separation of the solid particles contained in said cooling air flow (F) being centrifuged, characterised in that said duct has a circular helix shape inscribed on a cylinder of revolution with an axis of revolution (Ox).
Use of an electrochemical cell in a low earth orbit spacecraft, said electrochemical cell comprising a positive electrode and a negative electrode, said negative electrode comprising as an electrochemically active material a lithiated titanate oxide or a titanate oxide able to be lithiated.
An absorbent product comprising a topsheet , a backsheet , and an absorbent core structure , the absorbent core structure comprising a top core layer and a lower core level , wherein the top core layer comprises a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, and a HIPE foam intermixed with a nonwoven web , wherein the heterogeneous mass contains stripes of high capillarity and one or more canals of high permeability, wherein the stripes of high capillarity contain the HIPE foam and the nonwoven web; wherein the canals of high permeability contain between 0% and 40% of the amount of HIPE foam in the stripes of high capillarity and nonwoven web; and wherein the lower core level comprises a substrate plus superabsorbent polymer layer containing greater than 50%, of a superabsorbent polymer and less than 30% of cellulose. wherein the top core layer comprises a heterogeneous mass layer comprising a longitudinal axis, a lateral axis, a vertical axis, and a HIPE foam intermixed with a nonwoven web , wherein the heterogeneous mass contains stripes of high capillarity and one or more canals of high permeability, wherein the stripes of high capillarity contain the HIPE foam and the nonwoven web; wherein the canals of high permeability contain between 0% and 40% of the amount of HIPE foam in the stripes of high capillarity and nonwoven web; and wherein the lower core level comprises a substrate plus superabsorbent polymer layer containing greater than 50%, of a superabsorbent polymer and less than 30% of cellulose.
An injection head for liquid fire extinguishing agent, in a fire extinguishing equipment using a liquid fire extinguishing agent, the injection head arranged for releasing the liquid fire extinguishing agent to a fire extinguishing area, wherein the injection head comprising of: an injection head body for connecting with a pipe providing the liquid fire extinguishing agent; an orifice plate arranged in the injection head body and forming with an orifice through which flowing the liquid fire extinguishing agent; a porous member having a block shape arranged in an exiting part of the orifice ; and a baffle plate contacting with an end surface of said porous member opposite side of the exiting part of the orifice ; wherein said baffle plate covers at least a projected area of a circumscribed circle of the orifice of an end surface of the porous member and, as well as the liquid fire extinguishing agent is released via a gap formed between the injection head body and the baffle plate , and/or, a through hole formed outside of the projected area of the circumscribed circle of the orifice of the injection head body and/or the baffle plate , characterised in that a release form of said liquid fire extinguishing agent has a cylindrical shape in a direction as the same as an axial direction of the orifice .
A speaker comprising a housing and a speaker body mounted thereon, a rear cavity leading to a diaphragm of the speaker body being formed in the housing , characterized in that the speaker further comprises air valves each comprising: a valve body , an elastic valve plate , an air inlet penetrating through an inner surface and an outer surface of the valve body , and an air outlet penetrating through an inner surface and an outer surface of the valve plate , wherein the valve plate is connected with the valve body in a sealing manner to form an annular sealing area encircling the air outlet and the air inlet , and wherein the inner surface of the valve body covers the air outlet , and/or the inner surface of the valve plate covers the air inlet ; and in that the housing is provided with at least one of the air valves as an air inlet valve , an air outlet of the air inlet valve being communicated with the rear cavity , and the housing is further provided with at least one of the air valves as an air outlet valve , an air inlet of the air outlet valve being communicated with the rear cavity .
An edge strip for coating the narrow face of material panels , in particular furniture panels or countertops, with - a base layer made of a thermoplastic material, the top face of which is structured, and - a cover layer made of a transparent or translucent thermoplastic material and arranged on the base layer , wherein the cover layer with its top face completely or partially forms the visible surface of the edge strip and with its bottom face completely or partially adjoins the profiled top face of the base layer , wherein the top face of the cover layer is formed to be flat or curved and the bottom face of the cover layer is formed to be complementary to the structuring of the top face of the base layer over the entire width or part of the width so that the cover layer has a thickness which varies over the width of the strip, wherein the base layer and the cover layer are produced by coextrusion and bonded together, and wherein the base layer is colored opaque. - a base layer made of a thermoplastic material, the top face of which is structured, and - a cover layer made of a transparent or translucent thermoplastic material and arranged on the base layer ,