mhurhangee/patent-ind-claim-en huggingface dataset:
A sound output apparatus comprising: a speaker that outputs sound; a speaker arrangement portion in which the speaker is arranged therein; and a sound guiding pipe in which one end portion is continuous with the speaker arrangement portion and an internal space is formed as a sound guiding space that leads the sound outputted from the speaker, wherein an opening that emits the sound toward an ear is formed at the other end of the sound guiding pipe, and the sound output apparatus is worn on the ear in a state where an outer peripheral portion of an auricle is sandwiched between a part of the speaker arrangement portion and a part of the sound guiding pipe or between respective parts of the sound guiding pipe , characterized in that the sound guiding pipe is provided with a coupling base portion , which is continuous with the speaker arrangement portion , and a detachable portion , which is detachable from the coupling base portion and has the opening , and in that the detachable portion is formed by a material with lower hardness than that of the coupling base portion. a speaker that outputs sound; a speaker arrangement portion in which the speaker is arranged therein; and a sound guiding pipe in which one end portion is continuous with the speaker arrangement portion and an internal space is formed as a sound guiding space that leads the sound outputted from the speaker, wherein an opening that emits the sound toward an ear is formed at the other end of the sound guiding pipe, and the sound output apparatus is worn on the ear in a state where an outer peripheral portion of an auricle is sandwiched between a part of the speaker arrangement portion and a part of the sound guiding pipe or between respective parts of the sound guiding pipe , characterized in that the sound guiding pipe is provided with a coupling base portion , which is continuous with the speaker arrangement portion , and a detachable portion , which is detachable from the coupling base portion and has the opening , and in that the detachable portion is formed by a material with lower hardness than that of the coupling base portion.
A method of implementing a spiking neural network with a data processing apparatus comprising a processor, having a plurality of contiguous layers partitioned into a plurality of frustums using a first partitioning, wherein each frustum includes a rectangular intersection, defining a tile, with each partitioned layer of the spiking neural network, and wherein each tile of each partitioned layer includes a portion of each feature map of that partitioned layer, the method comprising: reading, using the processor, a first tile (108-1) of a first layer of the spiking neural network into an internal memory of the processor; and generating, using the processor , a first tile (110-1) of a second layer of the spiking neural network using the first tile of the first layer while storing intermediate data within the internal memory of the processor; the first tile of the first layer and the first tile of the second layer belonging to a same frustum, wherein the first tile of the second layer is generated for a plurality of time intervals prior to generating another tile. reading, using the processor, a first tile (108-1) of a first layer of the spiking neural network into an internal memory of the processor; and generating, using the processor , a first tile (110-1) of a second layer of the spiking neural network using the first tile of the first layer while storing intermediate data within the internal memory of the processor; the first tile of the first layer and the first tile of the second layer belonging to a same frustum, wherein the first tile of the second layer is generated for a plurality of time intervals prior to generating another tile.
Method for ascertaining a voltage type of an input voltage (Ue) of a power supply, wherein a first output signal (AS1) based on the input voltage (Ue) of the power supply (SV) is detected using a circuit arrangement (ME), wherein, after a peak (Û) of the first output signal (Ue) is passed through for the first time, the method waits for a first threshold value (SW1) to be undershot, and wherein the following steps are then run through until a predetermined number of repetitions is reached: - storing a time stamp and starting a predetermined dead time (T t ) when the first output signal (AS1) undershoots the first threshold value (SW1); - checking whether the first output signal (AS1) exceeds a second threshold value (SW2) after the predetermined dead time (T t ) has elapsed; and - waiting until the first output signal (AS1) undershoots the first threshold value again when the first output signal (AS1) has exceeded the second threshold value (SW2) when the dead time (T t ) has elapsed, wherein the second threshold value (SW2) is greater than the first threshold value (SW1); and wherein a frequency and the voltage type of the input voltage (Ue) is derived from the stored time stamps after the predetermined number of repetitions has been reached. - storing a time stamp and starting a predetermined dead time (T t ) when the first output signal (AS1) undershoots the first threshold value (SW1); - checking whether the first output signal (AS1) exceeds a second threshold value (SW2) after the predetermined dead time (T t ) has elapsed; and - waiting until the first output signal (AS1) undershoots the first threshold value again when the first output signal (AS1) has exceeded the second threshold value (SW2) when the dead time (T t ) has elapsed, wherein the second threshold value (SW2) is greater than the first threshold value (SW1);
A fan for generating an air flow in a temperature conditioning system, comprising: - a blade assembly , rotatable about a longitudinal axis to generate said air flow; - a bell mouth , surrounding the blade assembly coaxially to the longitudinal axis , wherein the bell mouth has a minimum diameter defining an annular gap with respect to the blade assembly ; - a diffuser having a first edge , facing the bell mouth , and a second edge , axially displaced downstream the blade assembly , to guide the air flowing away from the blade assembly , wherein the diffuser has a first diameter at its first edge , which is smaller than the minimum diameter of the bell mouth , characterized in that the diffuser is a separate, distinct element, with respect to the bell mouth , is positioned downstream of the bell mouth and downstream of the blade assembly . - a blade assembly , rotatable about a longitudinal axis to generate said air flow; - a bell mouth , surrounding the blade assembly coaxially to the longitudinal axis , wherein the bell mouth has a minimum diameter defining an annular gap with respect to the blade assembly ; - a diffuser having a first edge , facing the bell mouth , and a second edge , axially displaced downstream the blade assembly , to guide the air flowing away from the blade assembly , wherein the diffuser has a first diameter at its first edge , which is smaller than the minimum diameter of the bell mouth ,
An intubation aid for insertion into an endotracheal tube, the intubation aid comprising a cross-sectional shape having at least one vertex defining a longitudinally extending edge, such that the intubation aid is supported within the endotracheal tube, in use, by the longitudinally extending edge, wherein a proximal end region of the intubation aid tapers toward a proximal end, and a proximal end region of the intubation aid comprises a handle having a polygonal cross-section, a cross-sectional shape (A) of the handle comprising orthogonal major and minor axes, wherein the major axis is at least 1.2 times larger than the minor axis.
An electrode structure of a back electrode of a back surface of a semiconductor substrate, having a multilayer structure including metal layers laminated in the following order on the semiconductor substrate: a Ti layer, a Ni layer, and a Ag alloy layer, wherein the Ag alloy layer includes an alloy of Ag and an addition element M selected from Sn, Sb, and Pd, and the Ag alloy layer is a Ag alloy containing the addition element M in an amount of 1.5 at% or more and 4.5 at% or less, when the back electrode is subjected to elemental analysis with an X-ray photoelectron spectrometer in a depth direction from the Ag alloy layer to the Ni layer, on a boundary between the Ni layer and the Ag alloy layer, an intermediate region is observable where spectra derived from all the metals, i.e. Ni, Ag, and the addition element M, are detected, and further, when the content (at%) of each metal in the intermediate region is measured based on the spectra derived from all the metals, i.e. Ni, Ag, and the addition element M, a maximum of the content of the addition element M in the intermediate region is 5 at% or more, and the intermediate region has a thickness of 40 nm or more and 150 nm or less. the Ag alloy layer includes an alloy of Ag and an addition element M selected from Sn, Sb, and Pd, and the Ag alloy layer is a Ag alloy containing the addition element M in an amount of 1.5 at% or more and 4.5 at% or less, when the back electrode is subjected to elemental analysis with an X-ray photoelectron spectrometer in a depth direction from the Ag alloy layer to the Ni layer, on a boundary between the Ni layer and the Ag alloy layer, an intermediate region is observable where spectra derived from all the metals, i.e. Ni, Ag, and the addition element M, are detected, and further, when the content (at%) of each metal in the intermediate region is measured based on the spectra derived from all the metals, i.e. Ni, Ag, and the addition element M, a maximum of the content of the addition element M in the intermediate region is 5 at% or more, and the intermediate region has a thickness of 40 nm or more and 150 nm or less.
A method of improving the reactivity of cellulose and preparing a transportable form of the previous for preparation of thermoplastic, dispersion able or dissolving derivatives, characterized in that molar mass and molar mass distribution of the cellulose is controlled uniformly to a range between 30 and 300 kDa, wherein the cellulose is hydrolyzed by enzymatic treatment, ozone treatment, hydrogen peroxide treatment or alkaline treatment, before performing a long chain fatty acid modification, wherein chain length of fatty acid substituents is ≥ C6, providing reactive and processable cellulose.
A copolymer obtainable by copolymerization of (A) at least one unsaturated dicarboxylic acid or derivatives thereof, (B) at least one α-olefin having from at least 6 up to and including 20 carbon atoms, (C) at least one C 3 - to C 20 -alkyl ester of acrylic acid or methacrylic acid or a mixture of such alkyl esters and (D) optionally one or more further copolymerizable monomers other than monomers (A), (B) and (C), followed by the reaction with at least one dialkylamine (E), where the two alkyl radicals in the at least one dialkylamine (E) are independently alkyl radicals having at least 17 up to 30 carbon atoms. (A) at least one unsaturated dicarboxylic acid or derivatives thereof, (B) at least one α-olefin having from at least 6 up to and including 20 carbon atoms, (C) at least one C 3 - to C 20 -alkyl ester of acrylic acid or methacrylic acid or a mixture of such alkyl esters and (D) optionally one or more further copolymerizable monomers other than monomers (A), (B) and (C), followed by the reaction with at least one dialkylamine (E), where the two alkyl radicals in the at least one dialkylamine (E) are independently alkyl radicals having at least 17 up to 30 carbon atoms.
A compression belt assembly for use with a chest compression device, said compression belt assembly comprising: a compression belt comprising a first end and a second end; a guard slidably disposed on the compression belt proximate the first end, the guard comprising a first fastener component configured to releasably attach the guard to a second fastener component of the chest compression device, and a first sensor component interoperable with a second sensor component of the chest compression device and configured to indicate attachment of the guard to the chest compression device. a compression belt comprising a first end and a second end; a guard slidably disposed on the compression belt proximate the first end, the guard comprising a first fastener component configured to releasably attach the guard to a second fastener component of the chest compression device, and a first sensor component interoperable with a second sensor component of the chest compression device and configured to indicate attachment of the guard to the chest compression device. a first fastener component configured to releasably attach the guard to a second fastener component of the chest compression device, and a first sensor component interoperable with a second sensor component of the chest compression device and configured to indicate attachment of the guard to the chest compression device.
A control method for a vehicle key, wherein the method relates to a user terminal , a vehicle terminal , and a service provider platform , the user terminal is deployed with a first application corresponding to the service provider platform, and the method comprises: upon receipt of a permission control request sent by the first application, determining a key identifier corresponding to the permission control request and second permission information corresponding to the key identifier, wherein first permission information corresponding to the key identifier is stored in a whitelist of an NFC security module of the vehicle terminal; generating a permission control instruction based on the key identifier and the second permission information; and sending the permission control instruction to the vehicle terminal to use the second permission information to update the first permission information in the NFC security module of the vehicle terminal, wherein using the second permission information to update the first permission information comprises finding the first permission information in token information corresponding to the key identifier in the whitelist of the NFC security module and replacing the first permission information in the token information with the second permission information. upon receipt of a permission control request sent by the first application, determining a key identifier corresponding to the permission control request and second permission information corresponding to the key identifier, wherein first permission information corresponding to the key identifier is stored in a whitelist of an NFC security module of the vehicle terminal; generating a permission control instruction based on the key identifier and the second permission information; and sending the permission control instruction to the vehicle terminal to use the second permission information to update the first permission information in the NFC security module of the vehicle terminal, wherein using the second permission information to update the first permission information comprises finding the first permission information in token information corresponding to the key identifier in the whitelist of the NFC security module and replacing the first permission information in the token information with the second permission information.
Plug-in contact for making electrical contact with a circuit board by means of plugging the plug-in contact into a contact hole of the circuit board , with two contact legs which are resilient relative to one another, one terminal region and one connecting region which connects the two contact legs to one another and to the terminal region , the plug-in contact being punched out of a metallic flat material in one piece, characterized in that the two contact legs each have a first region and a second region which are arranged at an angle α to one another so that the two contact legs are bent approximately in an L-shape, wherein the two first regions adjoining the connecting region and the ends of the two second regions form the free ends of the contact legs , wherein the first region of the contact legs run approximately parallel to the plane of the circuit board, while the second region of the contact legs with the free ends run essentially perpendicular to the plane of the circuit board. that the two contact legs each have a first region and a second region which are arranged at an angle α to one another so that the two contact legs are bent approximately in an L-shape, wherein the two first regions adjoining the connecting region and the ends of the two second regions form the free ends of the contact legs , wherein the first region of the contact legs run approximately parallel to the plane of the circuit board, while the second region of the contact legs with the free ends run essentially perpendicular to the plane of the circuit board.
A system comprising: a combination engine to combine an encrypted device identification associated with identifying a device accessing a network and a routing indicator, the combination resulting in a combined device identification, wherein the encrypted device identification is encrypted using a first encryption key that is unknown to one or more additional devices connected to the network; an encryption engine to encrypt the combined device identification, wherein the combined device identification is encrypted using a second encryption key that is known to the one or more additional devices connected to the network; and a transmission engine to transmit the encrypted combined device identification when communicating information from the device via the network. a combination engine to combine an encrypted device identification associated with identifying a device accessing a network and a routing indicator, the combination resulting in a combined device identification, wherein the encrypted device identification is encrypted using a first encryption key that is unknown to one or more additional devices connected to the network; an encryption engine to encrypt the combined device identification, wherein the combined device identification is encrypted using a second encryption key that is known to the one or more additional devices connected to the network; and a transmission engine to transmit the encrypted combined device identification when communicating information from the device via the network.
A position acquisition method, comprising: selecting at least one group of N effective devices from known devices that transmit signals to a target device or known devices that receive signals transmitted by the target device, wherein N is equal to a dimension of a coordinate space plus 1; adjusting a numerical value of a conversion scaling factor with respect to each group of N effective devices, and seeking a corrected value of the conversion scaling factor, the corrected value enabling N circles or spheres formed by taking a position of each effective device as a center and a corrected distance between each effective device and the target device as a radius to have a unique intersection; wherein the conversion scaling factor is used to convert a signal intensity of the signal transmitted by the effective device towards the target device or the received signal transmitted by the target device into a distance; and calculating and acquiring a position of the target device by using at least one corrected value of the conversion scaling factor acquired. selecting at least one group of N effective devices from known devices that transmit signals to a target device or known devices that receive signals transmitted by the target device, wherein N is equal to a dimension of a coordinate space plus 1; adjusting a numerical value of a conversion scaling factor with respect to each group of N effective devices, and seeking a corrected value of the conversion scaling factor, the corrected value enabling N circles or spheres formed by taking a position of each effective device as a center and a corrected distance between each effective device and the target device as a radius to have a unique intersection; wherein the conversion scaling factor is used to convert a signal intensity of the signal transmitted by the effective device towards the target device or the received signal transmitted by the target device into a distance; and calculating and acquiring a position of the target device by using at least one corrected value of the conversion scaling factor acquired.
A coated glass pane comprising at least the following layers in sequence: a glass substrate; a lower anti-reflection layer; a silver-based functional layer; a barrier layer; an upper dielectric layer; and a topmost dielectric layer which comprises an oxide of zinc (Zn), tin (Sn) and zirconium (Zr); and wherein the amount of zirconium in the topmost dielectric layer comprises at least 10 atomic percent zirconium. a glass substrate; a lower anti-reflection layer; a silver-based functional layer; a barrier layer; an upper dielectric layer; and a topmost dielectric layer which comprises an oxide of zinc (Zn), tin (Sn) and zirconium (Zr); and wherein the amount of zirconium in the topmost dielectric layer comprises at least 10 atomic percent zirconium.
Method for switching over from a coasting or freewheeling mode of a motor vehicle with an internal combustion engine and an automatic clutch which is open during the coasting or freewheeling mode, to an overrun deactivation mode, in the case of which the clutch is closed, the internal combustion engine being brought to a rotational speed before the closure of the clutch, at which rotational speed the closure of the clutch induces no or merely low torque changes in the drive train, and, after the closure of the clutch, the fuel supply to the internal combustion engine being reduced in such a way that the switchover from the coasting and freewheeling mode to the overrun deactivation mode as a rule takes place relatively gently, but the driver receives feedback about the change in the driving state, characterized in that , under one or more predefined conditions which correspond to defined driving situations, the increase in the drag torque of the internal combustion engine which acts on the motor vehicle is designed to be so gentle during the switchover from the coasting or freewheeling mode to the overrun deactivation mode that the driver does not perceive it, by the clutch being closed so slowly that the change in the vehicle deceleration during the closure of the clutch does not exceed a preset value, and/or by the fuel supply to the internal combustion engine being reduced so slowly during the closure of the clutch that the change in the vehicle deceleration during the switchover from the coasting or freewheeling mode to the overrun deactivation mode does not exceed the preset value.