mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic flowmeter comprising: a flow path that has a rectangular cross section and through which a fluid to be measured flows; a partition plate that divides the flow path into a plurality of layers to form layered flow paths ; a pair of ultrasonic sensors that are arranged upstream and downstream of a surface forming the flow path and transmitting and receiving ultrasonic signals; a flow rate calculator configured to detect a flow rate of the fluid to be measured based on a propagation time from when the ultrasonic signals are transmitted from one of the pair of ultrasonic sensors until when the ultrasonic signals are received by another one of the pair of ultrasonic sensors after propagating through the fluid to be measured; mounting portions that mount the ultrasonic sensors on the flow path ; and openings that are provided directly below the mounting portions and through which ultrasonic waves pass, each of the openings is open to face a plurality of layers of the layered flow paths , characterised in that the plurality of layered flow paths includes a measurement flow path for detecting the flow rate of the measured fluid and non-measurement flow paths other than the measurement flow path , each of the openings comprises a smaller opening facing the measurement flow path and smaller openings each facing a corresponding one of the non-measurement flow paths and that the ultrasonic sensors are configured to propagate the ultrasonic waves mainly to the measurement flow path . a flow path that has a rectangular cross section and through which a fluid to be measured flows; a partition plate that divides the flow path into a plurality of layers to form layered flow paths ; a pair of ultrasonic sensors that are arranged upstream and downstream of a surface forming the flow path and transmitting and receiving ultrasonic signals; a flow rate calculator configured to detect a flow rate of the fluid to be measured based on a propagation time from when the ultrasonic signals are transmitted from one of the pair of ultrasonic sensors until when the ultrasonic signals are received by another one of the pair of ultrasonic sensors after propagating through the fluid to be measured; mounting portions that mount the ultrasonic sensors on the flow path ; and openings that are provided directly below the mounting portions and through which ultrasonic waves pass, each of the openings is open to face a plurality of layers of the layered flow paths , characterised in that the plurality of layered flow paths includes a measurement flow path for detecting the flow rate of the measured fluid and non-measurement flow paths other than the measurement flow path , each of the openings comprises a smaller opening facing the measurement flow path and smaller openings each facing a corresponding one of the non-measurement flow paths and that the ultrasonic sensors are configured to propagate the ultrasonic waves mainly to the measurement flow path .
A battery module , comprising: a plurality of battery cells ; a module case configured to accommodate the plurality of battery cells stacked to be electrically connected to each other from a front side to a rear side of module case , the module case having a first and a second inner cooling channel , the first inner cooling channel extending from the front side to the rear side between a first side wall of the module case and a first side of the stacked battery cells and the second inner cooling channel extending from the front side to the rear side between a second side wall of the module case opposite the first side wall and a second side of the stacked battery cells opposite the first side of the stacked battery cells ; at least one opening provided at both side walls of the module case to face the inner cooling channels of the module case ; a pair of film members mounted to both side walls of the module case to cover the at least one opening , the pair of film members being melted over a predetermined temperature to open the at least one opening ; and a cooling unit including: a cooling air supplying portion provided at the front side of the module case to provide the cooling air toward the first inner cooling channel , and a cooling air discharging portion provided at the rear side of the module case to discharge the cooling air in the second inner cooling channel to the outside of the module case . a plurality of battery cells ; a module case configured to accommodate the plurality of battery cells stacked to be electrically connected to each other from a front side to a rear side of module case , the module case having a first and a second inner cooling channel , the first inner cooling channel extending from the front side to the rear side between a first side wall of the module case and a first side of the stacked battery cells and the second inner cooling channel extending from the front side to the rear side between a second side wall of the module case opposite the first side wall and a second side of the stacked battery cells opposite the first side of the stacked battery cells ; at least one opening provided at both side walls of the module case to face the inner cooling channels of the module case ; a pair of film members mounted to both side walls of the module case to cover the at least one opening , the pair of film members being melted over a predetermined temperature to open the at least one opening ; and a cooling unit including: a cooling air supplying portion provided at the front side of the module case to provide the cooling air toward the first inner cooling channel , and a cooling air discharging portion provided at the rear side of the module case to discharge the cooling air in the second inner cooling channel to the outside of the module case . a cooling air supplying portion provided at the front side of the module case to provide the cooling air toward the first inner cooling channel , and a cooling air discharging portion provided at the rear side of the module case to discharge the cooling air in the second inner cooling channel to the outside of the module case .
A twin-shaft vacuum pump comprising: a pumping chamber ; two rotatable shafts each mounted on bearings ; each of said two rotatable shafts comprising at least one rotor element , said rotor elements being within said pumping chamber and said two rotatable shafts extending beyond said pumping chamber to a support member ; said support member comprising mounting means for mounting said bearings at a predetermined distance from each other, said predetermined distance defining a distance between said two shafts ; and at least one thermal path along structural elements connecting said pumping chamber and said mounting means ; a thermal break in at least one of said at least one thermal path for impeding thermal conductivity between said pumping chamber and said mounting means , such that said pumping chamber and mounting means can be maintained at different temperatures; the twin-shaft vacuum pump being characterised by thermal break comprising a portion of said thermal path where at least one physical property is different to a physical property of an adjoining portion of said thermal path such that thermal conductance of said thermal break portion is more than 20% lower than said thermal conductance of an equivalent thermal path length of said adjoining portion; wherein said thermal break comprises a hollow portion of each of said rotatable shafts between said pumping chamber and said bearing . a pumping chamber ; two rotatable shafts each mounted on bearings ; each of said two rotatable shafts comprising at least one rotor element , said rotor elements being within said pumping chamber and said two rotatable shafts extending beyond said pumping chamber to a support member ; said support member comprising mounting means for mounting said bearings at a predetermined distance from each other, said predetermined distance defining a distance between said two shafts ; and at least one thermal path along structural elements connecting said pumping chamber and said mounting means ; a thermal break in at least one of said at least one thermal path for impeding thermal conductivity between said pumping chamber and said mounting means , such that said pumping chamber and mounting means can be maintained at different temperatures; the twin-shaft vacuum pump being characterised by thermal break comprising a portion of said thermal path where at least one physical property is different to a physical property of an adjoining portion of said thermal path such that thermal conductance of said thermal break portion is more than 20% lower than said thermal conductance of an equivalent thermal path length of said adjoining portion; wherein said thermal break comprises a hollow portion of each of said rotatable shafts between said pumping chamber and said bearing .
Use of a structure for killing and/or inhibiting the growth of a microorganism, wherein the structure comprises an antimicrobial surface on a substrate , the antimicrobial surface comprising a plurality of nanostructures , each nanostructure comprising: i. a nanopillar on the substrate, the nanopillar having a height (H), and ii. a nanoparticle covering a distal end and part of the height (H) of the nanopillar , thereby defining an uncovered nanopillar portion , wherein the nanoparticle is formed of another material than the nanopillar portion . i. a nanopillar on the substrate, the nanopillar having a height (H), and ii. a nanoparticle covering a distal end and part of the height (H) of the nanopillar , thereby defining an uncovered nanopillar portion , wherein the nanoparticle is formed of another material than the nanopillar portion .
A processor configured to control a first base station (200-1) in a 3GPP communication system, the processor included in a controller of the first base station (200-1), and the processor being configured to control the first base station to: manage a first cell, transmit to a radio terminal a message for starting a handover from the first cell to a second cell, wherein the processor is configured to control the first base station (200-1) to include sidelink configuration information into the message for the radio terminal to perform a Vehicle-to-Vehicle, V2V, sidelink communication interrupted by reception of the message, before completion of the handover, and the sidelink configuration information includes synchronization configuration information for the radio terminal to transmit a synchronization signal in the V2V sidelink communication and resource pool information indicating a resource pool used for the radio terminal to perform the V2V sidelink communication, the processor is configured to control the first base station to include the sidelink configuration information into the message when the radio terminal performs the V2V sidelink communication. manage a first cell, transmit to a radio terminal a message for starting a handover from the first cell to a second cell, wherein the processor is configured to control the first base station (200-1) to include sidelink configuration information into the message for the radio terminal to perform a Vehicle-to-Vehicle, V2V, sidelink communication interrupted by reception of the message, before completion of the handover, and the sidelink configuration information includes synchronization configuration information for the radio terminal to transmit a synchronization signal in the V2V sidelink communication and resource pool information indicating a resource pool used for the radio terminal to perform the V2V sidelink communication, the processor is configured to control the first base station to include the sidelink configuration information into the message when the radio terminal performs the V2V sidelink communication.
Vehicle driven by an electric motor, comprising a drive unit with at least one electric motor , at least one energy storage device permanently installed in the vehicle and an actuating unit for influencing the flow of energy between the at least one electric motor and the at least one energy storage device permanently installed in the vehicle , further comprising an interface with a plurality of terminal areas for one replacement energy storage device respectively, wherein the actuating unit is configured to influence the flow of energy between the at least one electric motor and each replacement energy storage device connected to a terminal area of the interface , characterized in that the actuating unit is configured to influence the flow of energy between the replacement energy storage devices and the at least one electric motor when several replacement energy storage devices are connected to the interface such that the replacement energy storage devices are run down sequentially, the actuating unit is configured to influence the flow of energy between the energy storage device permanently installed in the vehicle and the replacement energy storage devices and the at least one electric motor during traction operation of the vehicle such that each replacement energy storage device connected to the interface is run down first, and the energy storage device permanently installed in the vehicle is not used until the moment where each of the replacement energy storage devices connected to the interface can no longer be used for energy supply to the at least one electric motor , and that the actuating unit is configured to influence the flow of energy between the at least one electric motor and the energy storage device permanently installed in the vehicle as well as the replacement energy storage devices during propulsion operation of the vehicle such that the energy storage device permanently installed in the vehicle is charged before one or more of the replacement energy storage devices are charged.
A method for receiving input data for a layer of a convolutional neural network "CNN" for processing, the method comprising: receiving input data comprising input data values to be processed in a layer of the CNN; determining addresses in banked memory of a buffer in which the received data values are to be stored based upon format data indicating a format parameter of the input data in the layer and indicating a format parameter of a filter which is to be used to process the input data in the layer, wherein the format parameter of the input data indicates one or more dimensions of the input data and the format parameter of the filter indicates one or more dimensions of the filter; storing the received input data values at the determined addresses in the buffer; and reading windows of the input data from the buffer in a plurality of read cycles and passing the windows of the input data to convolution engines for processing in the layer using the filter, each window of the input data comprising input data values corresponding to a different position of the filter with respect to the input data; wherein the banked memory comprises a plurality of banks and a single address in each bank of the buffer can be read in each read cycle; wherein the addresses in banked memory are determined from the one or more dimensions of the input data and the one or more dimensions of the filter so as to distribute the input data values of each window evenly across the plurality of banks. receiving input data comprising input data values to be processed in a layer of the CNN; determining addresses in banked memory of a buffer in which the received data values are to be stored based upon format data indicating a format parameter of the input data in the layer and indicating a format parameter of a filter which is to be used to process the input data in the layer, wherein the format parameter of the input data indicates one or more dimensions of the input data and the format parameter of the filter indicates one or more dimensions of the filter; storing the received input data values at the determined addresses in the buffer; and reading windows of the input data from the buffer in a plurality of read cycles and passing the windows of the input data to convolution engines for processing in the layer using the filter, each window of the input data comprising input data values corresponding to a different position of the filter with respect to the input data; wherein the banked memory comprises a plurality of banks and a single address in each bank of the buffer can be read in each read cycle; wherein the addresses in banked memory are determined from the one or more dimensions of the input data and the one or more dimensions of the filter so as to distribute the input data values of each window evenly across the plurality of banks.
A transgenic mouse whose genome comprises: (a) a stably integrated complete human λ light chain locus spanning 0.9 Mb, wherein said λ light chain locus is in germline configuration; (b) a stably integrated portion of a human κ light chain locus in germline configuration, wherein said portion is the human κ light chain locus as found in XenoMouse IIa; (c) a stably integrated portion of a human immunoglobulin heavy chain locus in germline configuration, wherein said portion is the human immunoglobulin heavy chain locus as found in XenoMouse IIa, except that the Cγ constant region genes are; human Cγ1 constant region genes, or human Cγ4 constant region genes; (d) homozygous inactivated endogenous immunoglobulin heavy chain loci; and (e) homozygous inactivated endogenous immunoglobulin κ light chain loci. (a) a stably integrated complete human λ light chain locus spanning 0.9 Mb, wherein said λ light chain locus is in germline configuration; (b) a stably integrated portion of a human κ light chain locus in germline configuration, wherein said portion is the human κ light chain locus as found in XenoMouse IIa; (c) a stably integrated portion of a human immunoglobulin heavy chain locus in germline configuration, wherein said portion is the human immunoglobulin heavy chain locus as found in XenoMouse IIa, except that the Cγ constant region genes are; human Cγ1 constant region genes, or human Cγ4 constant region genes; (d) homozygous inactivated endogenous immunoglobulin heavy chain loci; and (e) homozygous inactivated endogenous immunoglobulin κ light chain loci.
An image sensor, comprising: at least one pixel, the at least one pixel including a transistor (M4) to couple an overflow capacitor (Cof) to a floating diffusion (FD) node, wherein, under a low light condition, photocharge is to be collected in a floating diffusion, but substantially not into an overflow node (OFD); and wherein, under a high light condition, photocharge is to overflow into the overflow node; characterized in that the at least one pixel is coupled to a column readout circuit comprising a comparator configured to inspect a signal on the floating diffusion, wherein an output of the comparator is to charge a capacitor (C1) to a level of the floating diffusion under the low light condition or of the floating diffusion and the overflow node under the high light condition. at least one pixel, the at least one pixel including a transistor (M4) to couple an overflow capacitor (Cof) to a floating diffusion (FD) node, wherein, under a low light condition, photocharge is to be collected in a floating diffusion, but substantially not into an overflow node (OFD); and wherein, under a high light condition, photocharge is to overflow into the overflow node; characterized in that the at least one pixel is coupled to a column readout circuit comprising a comparator configured to inspect a signal on the floating diffusion, wherein an output of the comparator is to charge a capacitor (C1) to a level of the floating diffusion under the low light condition or of the floating diffusion and the overflow node under the high light condition.
A mobile terminal for controlling a vehicle, comprising: a wearable wrist band ; a first body connected to the wearable wrist band ; a second body including an input unit and configured to be detachably mounted to the first body ; and a controller in the second body and configured to: execute a first function based on the second body being attached to the first body , execute a second function based on the second body being separated from the first body , and transmit vehicle information to a second controller in the first body . a wearable wrist band ; a first body connected to the wearable wrist band ; a second body including an input unit and configured to be detachably mounted to the first body ; and a controller in the second body and configured to: execute a first function based on the second body being attached to the first body , execute a second function based on the second body being separated from the first body , and transmit vehicle information to a second controller in the first body . execute a first function based on the second body being attached to the first body , execute a second function based on the second body being separated from the first body , and transmit vehicle information to a second controller in the first body .
A formulation comprising: a protein-based excipient obtained from a protein composition or a hydrolysate thereof which comprises proteins - as per monomer - of at least 50 amino acids in length; and a class II or a class IV active pharmaceutical ingredient (API) according to the biopharmaceutics classification system; characterized therein that said protein-based excipient and said API form a completely homogenous and amorphous solid dispersion, which dispersion contains no traces of heterogeneity and no traces of crystallinity as verified by X-ray powder diffraction (XRD) and/or differential scanning calorimetry (DSC); and, wherein the mass ratio (w/w) of API to excipient is between at least 5% API and at most 95% excipient (5/95) to at most 40% API and at least 60% excipient (40/60); wherein 100% is defined as the total mass of the API and excipient. a protein-based excipient obtained from a protein composition or a hydrolysate thereof which comprises proteins - as per monomer - of at least 50 amino acids in length; and a class II or a class IV active pharmaceutical ingredient (API) according to the biopharmaceutics classification system; characterized therein that said protein-based excipient and said API form a completely homogenous and amorphous solid dispersion, which dispersion contains no traces of heterogeneity and no traces of crystallinity as verified by X-ray powder diffraction (XRD) and/or differential scanning calorimetry (DSC); and, wherein the mass ratio (w/w) of API to excipient is between at least 5% API and at most 95% excipient (5/95) to at most 40% API and at least 60% excipient (40/60); wherein 100% is defined as the total mass of the API and excipient.