mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the moisture In a dental furnace, which dental furnace comprises a heating element surrounding a combustion chamber and being surrounded by a heat insulating body, a temperature sensor measuring the temperature in the combustion chamber or the dental furnace or the sheath, and wherein the temperature sensor is mounted in or on the thermal insulation body, and wherein the dental furnace comprises a control device for controlling at least the heating process of the dental furnace, and wherein the combustion chamber is connected to a vacuum source, characterized in that a pressure sensor measures the pressure in the combustion chamber or the dental furnace, and in that, when heating the closed combustion chamber above a boiling point of a molsture such as water, for example, the delay in the rise in temperature resulting from the evaporation heat and/or from a convection current of the moisture present in the dental furnace and/or the lowering of the temperature is detected by the control device via the temperature sensor and used for the control of the dental furnace.
A polyamide moulding compound comprising the following components to or consisting of the these components: 22 to 70 wt% of a semi-crystalline copolyamide formed from the monomers to: 20 to 37.5 mol% 1,6-hexanediamine; 12.5 to 35 mol% 1,34-bis(aminomethyl)cyclohexane; 0 to 5 mol% at least one diamine with 2 to 35 carbon atoms, differing from monomers and; 45 to 50 mol% 1,6-hexanedioic acid; and 0 to 5 mol% at least one dicarboxylic acid with 2 to 44 carbon atoms, differing from monomer; where the proportions of the monomers,, and are with respect to the sum of the diamines used and add up to 50 mol%; and where the proportions of the monomers and are with respect to the sum of the dicarboxylic acids used and add up to 50 mol%; and where the proportions of the monomers to add up to 100%; 30 to 70% by weight of at least one filler; and 0 to 8 wt% of at least one additive, where component differs from component, and where the proportion of components to add up to 100 wt%. 22 to 70 wt% of a semi-crystalline copolyamide formed from the monomers to: 20 to 37.5 mol% 1,6-hexanediamine; 12.5 to 35 mol% 1,34-bis(aminomethyl)cyclohexane; 0 to 5 mol% at least one diamine with 2 to 35 carbon atoms, differing from monomers and; 45 to 50 mol% 1,6-hexanedioic acid; and 0 to 5 mol% at least one dicarboxylic acid with 2 to 44 carbon atoms, differing from monomer; where the proportions of the monomers,, and are with respect to the sum of the diamines used and add up to 50 mol%; and where the proportions of the monomers and are with respect to the sum of the dicarboxylic acids used and add up to 50 mol%; and where the proportions of the monomers to add up to 100%; 20 to 37.5 mol% 1,6-hexanediamine; 12.5 to 35 mol% 1,34-bis(aminomethyl)cyclohexane; 0 to 5 mol% at least one diamine with 2 to 35 carbon atoms, differing from monomers and; 45 to 50 mol% 1,6-hexanedioic acid; and 0 to 5 mol% at least one dicarboxylic acid with 2 to 44 carbon atoms, differing from monomer; where the proportions of the monomers,, and are with respect to the sum of the diamines used and add up to 50 mol%; and where the proportions of the monomers and are with respect to the sum of the dicarboxylic acids used and add up to 50 mol%; and where the proportions of the monomers to add up to 100%; 30 to 70% by weight of at least one filler; and 0 to 8 wt% of at least one additive,
Method for encapsulating an electronic arrangement against permeates, wherein an electronic arrangement is provided on a substrate as a web material, more particularly in the form of a multiplicity of individual electronic arrangements, a pressure-sensitively adhesive or hotmelt-adhesive sheetlike structure is provided as a web material, more particularly as a continuous area or individual sheetlike diecuts disposed on a carrier substrate in web form, the two web materials are passed into a vacuum chamber via a pair of rolls together forming a roll nip, said chamber being sealed off at the same time by the rolls, the two web materials are passed into the roll nip via the pair of rolls, and the lamination of the pressure-sensitively adhesive or hotmelt-adhesive sheetlike structure with the electronic arrangement on the substrate takes place in a vacuum in said roll nip, the resultant laminate is led from the vacuum chamber through the roll nip of the laminating rolls, so that in a vacuum the area of the substrate including the region of the electronic arrangement that is to be encapsulated, preferably this area and the region of the electronic arrangement that is to be encapsulated, is contacted with the pressure-sensitively adhesive or hotmelt-adhesive sheetlike structure, and an assembly is produced therefrom.
A biometric authentication apparatus including a casing and an image sensor to capture images in a region above a surface of the casing, the biometric authentication apparatus comprising: a location detector configured to detect a contact location on the surface at which a fingertip of a hand of a user is in contact with the surface; a height calculator configured to determine an optimal height (h) of the palm being an optimal distance between the palm and the image sensor, based on a calculated first distance (d) between the contact location and the image sensor, and a second distance (c) between the fingertip and a center of the palm; a height detector configured to detect the height of the palm when the palm is raised while the fingertip remains in contact with the surface; a height determining unit configured to determine whether the height detected by the height detector is within a range including the determined optimal height (h); and an image capture controller configured to cause the image sensor to perform image capture processing when the height of the palm detected by the height detector is determined to be within the range. a location detector configured to detect a contact location on the surface at which a fingertip of a hand of a user is in contact with the surface; a height calculator configured to determine an optimal height (h) of the palm being an optimal distance between the palm and the image sensor, based on a calculated first distance (d) between the contact location and the image sensor, and a second distance (c) between the fingertip and a center of the palm; a height detector configured to detect the height of the palm when the palm is raised while the fingertip remains in contact with the surface; a height determining unit configured to determine whether the height detected by the height detector is within a range including the determined optimal height (h); and an image capture controller configured to cause the image sensor to perform image capture processing when the height of the palm detected by the height detector is determined to be within the range.
A method for realizing mobility management of an Evolved Packet Core, EPC, network comprising: when a control network element changes from a second control network element to a first control network element during a movement of a User Equipment, UE, addressing, by the first control network element, the second control network element according to an identification or address information of the second control network element sent from a first Mobility Management Entity, MME, acquiring an address of a Public Data Network, PDN, Gateway, PGW, and Tunnel Endpoint Identification, TEID, information of the PGW allocated by the second control network element, and sending to the second control network element an address of a first Serving Gateway, SGW, and TEID information of the first SGW allocated thereby; sending, by the first control network element, to the first SGW flow table information including the address of the PGW and the TEID information of the PGW; and sending, by the second control network element, to the PGW flow table information including the address of the first SGW and the TEID information of the first SGW. when a control network element changes from a second control network element to a first control network element during a movement of a User Equipment, UE, addressing, by the first control network element, the second control network element according to an identification or address information of the second control network element sent from a first Mobility Management Entity, MME, acquiring an address of a Public Data Network, PDN, Gateway, PGW, and Tunnel Endpoint Identification, TEID, information of the PGW allocated by the second control network element, and sending to the second control network element an address of a first Serving Gateway, SGW, and TEID information of the first SGW allocated thereby; sending, by the first control network element, to the first SGW flow table information including the address of the PGW and the TEID information of the PGW; and sending, by the second control network element, to the PGW flow table information including the address of the first SGW and the TEID information of the first SGW.
A wiring harness assembly, communicatively connecting a plurality of electronic devices to be mounted in a vehicle and an electronic control unit for controlling the plurality of electronic devices, the wiring harness assembly comprising: a first wiring harness connected to the electronic control unit; a standard wiring harness connected to a standard electronic device which is necessarily mounted in the vehicle among the plurality of electronic devices; an option wiring harness connected to an option electronic device which is optionally mounted to the vehicle among the plurality of electronic devices; a joint connector making a connection between the first wiring harness and the standard and option wiring harnesses (32, 33); a control device disposed inside the joint connector, and configured to control each electronic device connected thereto via the standard wiring harness and the option wiring harness in dependence on control signal for each electronic device which is multiply transmitted from the electronic control device via the first wiring harness; a standard driver disposed inside the joint connector, and being configured to supply electric power to the standard electronic device, which is controlled by the control device, so as to drive the standard electronic device; and an option driver disposed over the option wiring harness and being configured to supply electric power to the option electronic device so as to drive the option electronic device in response to the received control signal for the option electronic device. a first wiring harness connected to the electronic control unit; a standard wiring harness connected to a standard electronic device which is necessarily mounted in the vehicle among the plurality of electronic devices; an option wiring harness connected to an option electronic device which is optionally mounted to the vehicle among the plurality of electronic devices; a joint connector making a connection between the first wiring harness and the standard and option wiring harnesses (32, 33); a control device disposed inside the joint connector, and configured to control each electronic device connected thereto via the standard wiring harness and the option wiring harness in dependence on control signal for each electronic device which is multiply transmitted from the electronic control device via the first wiring harness; a standard driver disposed inside the joint connector, and being configured to supply electric power to the standard electronic device, which is controlled by the control device, so as to drive the standard electronic device; and an option driver disposed over the option wiring harness and being configured to supply electric power to the option electronic device so as to drive the option electronic device in response to the received control signal for the option electronic device.
A method for reducing rest tackiness of a moisture curing polyurethane hot-melt adhesive composition by adding at least one crystalline monofunctional alcohol to a mixture from which the moisture curing polyurethane hot-melt adhesive composition is prepared.
A calculator for determining phase correction data for an audio signal, the calculator comprising: a variation determiner for determining a variation of a phase of the audio signal in a first and a second variation mode; a variation comparator for comparing a first variation determined using the first variation mode and a second variation determined using the second variation mode; a correction data calculator for calculating the phase correction data in accordance with the first variation mode or the second variation mode based on a result of the comparing. a variation determiner for determining a variation of a phase of the audio signal in a first and a second variation mode; a variation comparator for comparing a first variation determined using the first variation mode and a second variation determined using the second variation mode; a correction data calculator for calculating the phase correction data in accordance with the first variation mode or the second variation mode based on a result of the comparing.
A process of machining air seals in situ comprising: mounting a cutting tool assembly proximate an air seal, wherein said air seal is assembled in a gas turbine engine case; characterised by fluidly coupling a blower to at least one cooling air passage of said gas turbine engine case; flowing a purge air stream through said at least one cooling air passage; and discharging said purge air stream proximate said air seal. mounting a cutting tool assembly proximate an air seal, wherein said air seal is assembled in a gas turbine engine case; characterised by fluidly coupling a blower to at least one cooling air passage of said gas turbine engine case; flowing a purge air stream through said at least one cooling air passage; and discharging said purge air stream proximate said air seal.
A processing device comprising: a memory configured to store data, wherein the data include data to be computed in a neural network, and the memory comprising an input storage module configured to store the data to be computed in the neural network and a synaptic storage module, wherein the synaptic storage module comprises a plurality of synaptic storage sub-modules configured to store a plurality of synaptic parameters; a computational circuit configured to compute the data to be computed in the neural network, including performing computations on the data to be computed in the neural network with different computation bit widths by using an adder circuit and a multiplier circuit, wherein the computational circuit includes a plurality of computation modules, wherein each of the computation modules is correspondingly connected to one or more of the plurality of synaptic storage sub-modules respectively, and during computation, the input storage module is configured to transmit input data to all the computation modules, the synaptic storage module is configured to transmit synapse data to corresponding computation modules, and after the computation modules perform computations, a result is written in an output storage module; and a control circuit configured to control the memory and the computational circuit, including determining a type of the multiplier circuit and a type of the adder circuit of the computational circuit according to the data to be computed so as to perform computations. a memory configured to store data, wherein the data include data to be computed in a neural network, and the memory comprising an input storage module configured to store the data to be computed in the neural network and a synaptic storage module, wherein the synaptic storage module comprises a plurality of synaptic storage sub-modules configured to store a plurality of synaptic parameters; a computational circuit configured to compute the data to be computed in the neural network, including performing computations on the data to be computed in the neural network with different computation bit widths by using an adder circuit and a multiplier circuit, wherein the computational circuit includes a plurality of computation modules, wherein each of the computation modules is correspondingly connected to one or more of the plurality of synaptic storage sub-modules respectively, and during computation, the input storage module is configured to transmit input data to all the computation modules, the synaptic storage module is configured to transmit synapse data to corresponding computation modules, and after the computation modules perform computations, a result is written in an output storage module; and a control circuit configured to control the memory and the computational circuit, including determining a type of the multiplier circuit and a type of the adder circuit of the computational circuit according to the data to be computed so as to perform computations.
A device for inserting or extracting a stopper (14, 114, 214) in or from a mouth of a container, like a bulk container for pharmaceuticals, said stopper (14, 114, 214) made of a resilient material, like rubber or other flexible material, said stopper having at least a side rib arranged to be forced in said mouth to sealingly close said container, wherein said device comprises an end plate (1, 101, 201) having a recess wherein that end plate (1, 101, 201) is arranged to generate a pulling force on that stopper, characterized in that the recess is configured to fit said stopper (14, 114, 214) in such a way that a concave inner surface of said recess faces an external face of said stopper (14, 114, 214), and in that said end plate (1, 101, 201) is arranged to generate a pulling force on said stopper (14, 114, 214) in such a way that said stopper bends elastically from a rest position to a deformed position in which said external face of said stopper (14, 114, 214) is bent towards said concave inner surface of said recess.
An electrically operated aerosol-generating system comprising: a liquid storage portion storing a liquid from which aerosol may be generated; an electric heater; a capillary wick positioned between the liquid in the liquid storage portion and the electric heater and configured to convey liquid from the liquid storage portion to the electric heater; and electric circuitry connected to the electric heater, the electric circuitry configured to: activate the electric heater for a vaporising period in response to a user input to vaporise liquid in the capillary wick, a first predetermined time after the vaporising period activate the heater for a second period, wherein the first predetermined time is shorter than a time needed for an amount of liquid in the wick to reach equilibrium following the vaporising period, record a temperature measurement of the heater during or immediately following the second period, and determine a liquid level in the liquid storage portion based on the temperature measurement. a liquid storage portion storing a liquid from which aerosol may be generated; an electric heater; a capillary wick positioned between the liquid in the liquid storage portion and the electric heater and configured to convey liquid from the liquid storage portion to the electric heater; and electric circuitry connected to the electric heater, the electric circuitry configured to: activate the electric heater for a vaporising period in response to a user input to vaporise liquid in the capillary wick, a first predetermined time after the vaporising period activate the heater for a second period, wherein the first predetermined time is shorter than a time needed for an amount of liquid in the wick to reach equilibrium following the vaporising period, record a temperature measurement of the heater during or immediately following the second period, and determine a liquid level in the liquid storage portion based on the temperature measurement. activate the electric heater for a vaporising period in response to a user input to vaporise liquid in the capillary wick, a first predetermined time after the vaporising period activate the heater for a second period, wherein the first predetermined time is shorter than a time needed for an amount of liquid in the wick to reach equilibrium following the vaporising period, record a temperature measurement of the heater during or immediately following the second period, and determine a liquid level in the liquid storage portion based on the temperature measurement.
An apparatus, comprising: a computer-readable memory; signature logic to: compute a message hash of an input message using a secure hash algorithm; process the message hash to generate an array of secret key components for the input message; apply a hash chain function to the array of secret key components to generate an array of signature components, the hash chain function comprising a series of even-index hash chains and a series of odd-index hash chains, wherein the even-index hash chains and the odd-index hash chains generate a plurality of intermediate node values and a one-time public key component between the secret key components and the signature components; and store at least some of the intermediate node values in the computer-readable memory for use in one or more subsequent signature operations. a computer-readable memory; signature logic to: compute a message hash of an input message using a secure hash algorithm; process the message hash to generate an array of secret key components for the input message; apply a hash chain function to the array of secret key components to generate an array of signature components, the hash chain function comprising a series of even-index hash chains and a series of odd-index hash chains, wherein the even-index hash chains and the odd-index hash chains generate a plurality of intermediate node values and a one-time public key component between the secret key components and the signature components; and store at least some of the intermediate node values in the computer-readable memory for use in one or more subsequent signature operations. compute a message hash of an input message using a secure hash algorithm; process the message hash to generate an array of secret key components for the input message; apply a hash chain function to the array of secret key components to generate an array of signature components, the hash chain function comprising a series of even-index hash chains and a series of odd-index hash chains, wherein the even-index hash chains and the odd-index hash chains generate a plurality of intermediate node values and a one-time public key component between the secret key components and the signature components; and store at least some of the intermediate node values in the computer-readable memory for use in one or more subsequent signature operations.
A tracheostomy tube having a shaft with a patient end, a machine end and a fenestrated region along its length including at least one opening at a location adapted to lie within the trachea, characterised in that the shaft is formed of a relatively soft material, and that the fenestrated region is provided by a plate of a stiffer material than the shaft, and that the at least one opening is formed in the plate.