mhurhangee/ep-ind-claims huggingface dataset:
A method of additively manufacturing a sensor for a high-temperature environment in a jet engine, comprising the steps of: depositing one or more electrically insulating material to form at least one portion of a layer with low electrical conductivity; depositing one or more electrically conductive material to form at least one further portion of the layer with high electrical conductivity; depositing successive layers, each layer being formed of portions of high electrical conductivity and low electrical conductivity, wherein the electrically conductive material or materials is or are deposited on at least a segment of the electrically conductive material or materials in the previous layer so as to form at least one path of high electrical conductivity extending through the layers, said at least one path of high electrical conductivity defining: at least one electrode or at least one coil; and at least one elongate portion extending from said at least one electrode or said at least one coil; and fusing the materials to form a monolithic structure, wherein said electrically insulating material is deposited such that the at least one elongate portion is shielded from the external environment and wherein the step of fusing the materials comprises sintering or melting the materials (108, 110), the sintering or melting the or each material using at least one of: a laser; and an electron beam. depositing one or more electrically insulating material to form at least one portion of a layer with low electrical conductivity; depositing one or more electrically conductive material to form at least one further portion of the layer with high electrical conductivity; depositing successive layers, each layer being formed of portions of high electrical conductivity and low electrical conductivity, wherein the electrically conductive material or materials is or are deposited on at least a segment of the electrically conductive material or materials in the previous layer so as to form at least one path of high electrical conductivity extending through the layers, said at least one path of high electrical conductivity defining: at least one electrode or at least one coil; and at least one elongate portion extending from said at least one electrode or said at least one coil; and fusing the materials to form a monolithic structure, wherein said electrically insulating material is deposited such that the at least one elongate portion is shielded from the external environment and wherein the step of fusing the materials comprises sintering or melting the materials (108, 110), the sintering or melting the or each material using at least one of: a laser; and an electron beam.
A slurry for use in preparation of a lithium ion battery, comprising: an electrode active material, wherein the electrode active material is at least one of an anode active material and a cathode active material; a binder composition comprising a modified guaran selected from the group consisting of carboxyalkyl guaran, carboxyalkyl hydroxyalkyl guaran, and combinations thereof and an epoxy resin having at least two epoxide groups and a second polymer or a carboxylic acid, wherein the second polymer is selected from the group consisting of polyacrylic acid, polyacrylic acid copolymer, methyl vinyl ether and maleic anhydride copolymer, modified methyl vinyl ether and maleic anhydride copolymer, styrene maleic anhydride copolymer, xanthan gum, alginate, gum arabic, and combinations thereof, and the carboxylic acid is selected from the group consisting of formic acid, acetic acid, chloroacetic acid, dichloroacetic acid, trichloroacetic acid, trifluoroacetic acid, oxalic acid, benzoic acid, and combinations thereof; and water. an electrode active material, wherein the electrode active material is at least one of an anode active material and a cathode active material; a binder composition comprising a modified guaran selected from the group consisting of carboxyalkyl guaran, carboxyalkyl hydroxyalkyl guaran, and combinations thereof and an epoxy resin having at least two epoxide groups and a second polymer or a carboxylic acid, wherein the second polymer is selected from the group consisting of polyacrylic acid, polyacrylic acid copolymer, methyl vinyl ether and maleic anhydride copolymer, modified methyl vinyl ether and maleic anhydride copolymer, styrene maleic anhydride copolymer, xanthan gum, alginate, gum arabic, and combinations thereof, and the carboxylic acid is selected from the group consisting of formic acid, acetic acid, chloroacetic acid, dichloroacetic acid, trichloroacetic acid, trifluoroacetic acid, oxalic acid, benzoic acid, and combinations thereof; and a modified guaran selected from the group consisting of carboxyalkyl guaran, carboxyalkyl hydroxyalkyl guaran, and combinations thereof and an epoxy resin having at least two epoxide groups and a second polymer or a carboxylic acid, wherein the second polymer is selected from the group consisting of polyacrylic acid, polyacrylic acid copolymer, methyl vinyl ether and maleic anhydride copolymer, modified methyl vinyl ether and maleic anhydride copolymer, styrene maleic anhydride copolymer, xanthan gum, alginate, gum arabic, and combinations thereof, and the carboxylic acid is selected from the group consisting of formic acid, acetic acid, chloroacetic acid, dichloroacetic acid, trichloroacetic acid, trifluoroacetic acid, oxalic acid, benzoic acid, and combinations thereof; and water.
An ink for use in a three-dimensional printing system comprising: a polymerizable material; and a reactive wax comprising a saturated alkyl moiety bonded to an ethylenically unsaturated moiety through a urethane or urea linkage, wherein the reactive wax comprises a chemical species of Formula, or: and wherein x is an integer from 0 to 34, y is an integer from 1 to 17, and R is H or CH 3; and wherein the ink is free of non-reactive wax or the non-reactive wax is present in an amount of less than 5 wt.-%, based on the total weight of the ink. a polymerizable material; and a reactive wax comprising a saturated alkyl moiety bonded to an ethylenically unsaturated moiety through a urethane or urea linkage,
A container system for producing, supplying or holding medical liquids comprising ▪ an inner container and an outer container (420, 421) surrounding the inner container, ▪ ports (306, 307) at the inner container and the outer container (420, 421) for filling and/or removing liquids, characterized in that the container system furthermore comprises: ▪ one or more through-openings (316, 317, 318, 319) through the inner container that are configured such that parts of the volume defined by the outer container (420, 421) are brought into flow communication with one. ▪ an inner container and an outer container (420, 421) surrounding the inner container, ▪ ports (306, 307) at the inner container and the outer container (420, 421) for filling and/or removing liquids, ▪ one or more through-openings (316, 317, 318, 319) through the inner container that are configured such that parts of the volume defined by the outer container (420, 421) are brought into flow communication with one.
A computer-implemented method of minting a trusted non-fungible token, NFT, on a blockchain, the NFT corresponding to a digital asset, the computer-implemented method comprising the steps of: receiving a request to mint the NFT on the blockchain; accessing programming logic on the blockchain, the programming logic configured to mint the NFT to the blockchain; generating an NFT ID which comprises data identifying the NFT; inserting the NFT ID into the digital asset to generate a modified digital asset; storing the modified digital asset in an electronic memory, the storage location of the modified digital asset described by a first electronic storage address; generating metadata comprising the first storage address and storing the generated metadata in an electronic memory, the storage location of the metadata described by a second electronic storage address; and providing the second electronic storage address as an input to the programming logic; and executing the programming logic, thereby minting the trusted NFT to the blockchain. receiving a request to mint the NFT on the blockchain; accessing programming logic on the blockchain, the programming logic configured to mint the NFT to the blockchain; generating an NFT ID which comprises data identifying the NFT; inserting the NFT ID into the digital asset to generate a modified digital asset; storing the modified digital asset in an electronic memory, the storage location of the modified digital asset described by a first electronic storage address; generating metadata comprising the first storage address and storing the generated metadata in an electronic memory, the storage location of the metadata described by a second electronic storage address; and providing the second electronic storage address as an input to the programming logic; and executing the programming logic, thereby minting the trusted NFT to the blockchain.
Inhaler, in particular electronic cigarette product, comprising at least one evaporator unit with at least one electric evaporator for evaporating liquid supplied to the evaporator, and comprising an electronic controller for controlling and/or regulating the at least one evaporator unit, wherein the inhaler has at least one replaceable cartridge, wherein the cartridge has the evaporator unit and a liquid tank which is connected or can be connected, characterized in that the evaporator is formed by a block-shaped heating element made of an electrically conductive material, preferably silicon, wherein the heating element is provided with a plurality of microchannels, which connect an inlet side of the heating element to an outlet side in a liquid-conducting manner.
A signal transmission method by a base station to a relay node, in a relay communication system, the method comprising: transmitting a downlink signal to the relay node via a signal transmission period (305, 405, 505) of a downlink subframe (310, 410, 510), characterized in that an end symbol of the signal transmission period (305, 405, 505) is determined according to whether a downlink subframe boundary of the base station and a downlink subframe boundary of the relay node are time aligned with or without time delay therebetween, wherein if the downlink subframe boundary of the base station and the downlink subframe boundary of the relay node are time aligned without time delay therebetween, the end symbol of the signal transmission period (305, 405, 505) is a second last symbol of the downlink subframe (310, 410, 510) transmitted to the relay node, and wherein if the downlink subframe boundary of the base station and the downlink subframe boundary of the relay node are time aligned with time delay therebetween, the end symbol of the signal transmission period (305, 405, 505) is a last symbol of the downlink subframe (310, 410, 510) transmitted to the relay node. transmitting a downlink signal to the relay node via a signal transmission period (305, 405, 505) of a downlink subframe (310, 410, 510), characterized in that an end symbol of the signal transmission period (305, 405, 505) is determined according to whether a downlink subframe boundary of the base station and a downlink subframe boundary of the relay node are time aligned with or without time delay therebetween, wherein if the downlink subframe boundary of the base station and the downlink subframe boundary of the relay node are time aligned without time delay therebetween, the end symbol of the signal transmission period (305, 405, 505) is a second last symbol of the downlink subframe (310, 410, 510) transmitted to the relay node, and wherein if the downlink subframe boundary of the base station and the downlink subframe boundary of the relay node are time aligned with time delay therebetween, the end symbol of the signal transmission period (305, 405, 505) is a last symbol of the downlink subframe (310, 410, 510) transmitted to the relay node.
An agricultural control system, comprising a base control system that communicates with a vehicle control system of an agricultural vehicle, wherein the base control system plans an implement path through an agricultural field (16,48,86) of an agricultural implement coupled to the agricultural vehicle based at least in part on at least one characteristic of the agricultural field (16,48,86), plans a vehicle path of the agricultural vehicle based at least in part on the planned implement path, sends a first signal to the vehicle control system indicative of the vehicle path characterized in that the base control system is configured to plan the vehicle path based on a geometry of a hitch between the agricultural vehicle and the agricultural implement.
A method for managing end-to-end machine-to-machine service layer sessions, the method comprising: receiving, by a service layer session management function of a machine-to-machine apparatus, a session request to create a communication session; determining, by the service layer session management function based on the session request, a first application and a second application for the communication session; determining, by the service layer session management function based on the session request, a first service layer instance, the first service layer instance being an intermediate service layer instance associated with the communication session; receiving, by the service layer session management function, a credential response based on a request for session credentials, the credential response comprising the session credentials for the communication session; and providing, by the service layer session management function, the session credentials to the first application, the second application, and the first service layer instance of the communication session. receiving, by a service layer session management function of a machine-to-machine apparatus, a session request to create a communication session; determining, by the service layer session management function based on the session request, a first application and a second application for the communication session; determining, by the service layer session management function based on the session request, a first service layer instance, the first service layer instance being an intermediate service layer instance associated with the communication session; receiving, by the service layer session management function, a credential response based on a request for session credentials, the credential response comprising the session credentials for the communication session; and providing, by the service layer session management function, the session credentials to the first application, the second application, and the first service layer instance of the communication session.
A method for inactivating or reducing an amount of a biological contaminant in a human milk product comprising exposing the human milk product to ultraviolet light having a wavelength from 250nm to 270nm, and imparting a vortical flow to the human milk product to facilitate exposure of the biological contaminant to the UV light; wherein said exposure inactivates or reduces the amount of the biological contaminant in the human milk product; and wherein an activity of a bioactive component present in the milk product is not substantially reduced, such that after inactivation of the biological contaminant by UV light exposure, the activity of the bioactive component present in the human milk product is at least 50% of the activity of the bioactive component before UV light exposure.
A method of providing a security posture assessment engine for managing a mobile device, comprising: receiving, at an identity provider, an authentication request for the mobile device; wherein the authentication request includes a joint user-and-device authentication packet and device security posture attribute information from the mobile device, the method further comprising: providing (3.1), from the identity provider to a device security posture assessment server, device attributes affecting a device security posture assessment, wherein the identity provider is a security assertion markup language (SAML) identity provider; receiving (3.2), at the identity provider, from the device security posture assessment server, a device security posture rating of the mobile device; and providing, from the identity provider to the mobile device, a security token to which the device security posture rating is appended. receiving, at an identity provider, an authentication request for the mobile device; wherein the authentication request includes a joint user-and-device authentication packet and device security posture attribute information from the mobile device, the method further comprising: providing (3.1), from the identity provider to a device security posture assessment server, device attributes affecting a device security posture assessment, wherein the identity provider is a security assertion markup language (SAML) identity provider; receiving (3.2), at the identity provider, from the device security posture assessment server, a device security posture rating of the mobile device; and providing, from the identity provider to the mobile device, a security token to which the device security posture rating is appended. providing (3.1), from the identity provider to a device security posture assessment server, device attributes affecting a device security posture assessment, wherein the identity provider is a security assertion markup language (SAML) identity provider; receiving (3.2), at the identity provider, from the device security posture assessment server, a device security posture rating of the mobile device; and providing, from the identity provider to the mobile device, a security token to which the device security posture rating is appended.
A temperature protection device comprising: a temperature detector (31,32,33,34,35,36) configured to detect a temperature of a semiconductor component; a temperature estimator configured to estimate an estimated temperature of the semiconductor component; an overheated state determining component (37,65) configured to determine whether the semiconductor component is in an overheated state based on the detected temperature and the estimated temperature by using a first estimated temperature at a time point when the detected temperature has reached a first threshold temperature and a second estimated temperature that is estimated subsequent to the time point at which the detected temperature has reached the first threshold temperature, the overheated state determining component (37,65) being further configured to calculate a temperature differential between the first estimated temperature and the second estimated temperature, and determine that the semiconductor component is in an overheated state when the temperature differential has exceeded a second threshold temperature; and an overheating protection component configured to protect the semiconductor component from the overheating based on a determination made by the overheated state determining component (37,65). a temperature detector (31,32,33,34,35,36) configured to detect a temperature of a semiconductor component; a temperature estimator configured to estimate an estimated temperature of the semiconductor component; an overheated state determining component (37,65) configured to determine whether the semiconductor component is in an overheated state based on the detected temperature and the estimated temperature by using a first estimated temperature at a time point when the detected temperature has reached a first threshold temperature and a second estimated temperature that is estimated subsequent to the time point at which the detected temperature has reached the first threshold temperature, the overheated state determining component (37,65) being further configured to calculate a temperature differential between the first estimated temperature and the second estimated temperature, and determine that the semiconductor component is in an overheated state when the temperature differential has exceeded a second threshold temperature; and an overheating protection component configured to protect the semiconductor component from the overheating based on a determination made by the overheated state determining component (37,65).
A method for evaluating a frequency spectrum representative of at least one time-dependent signal, the at least one time dependent signal being derived from an output of a measuring device under predetermined measuring device operating conditions, wherein the measuring device is a vortex measuring device, the time-dependent signal comprising a portion being representative of a flow as a desired signal, and a portion being representative of noise, characterized by the method comprising the steps of: - determining, based on the frequency spectrum of the signal, a value representative of the noise floor, the value representative of the noise floor being calculated as an average amplitude of a number of selected noise representative frequencies spectrum components of the time-dependent signal; - identifying, based on the frequency spectrum of the signal derived under the predetermined operating condition, a peak component, the peak component being the frequency component with a greatest amplitude value, and - if the amplitude of the identified peak component satisfies a relative peak criterion determined on the basis of the determined value representative of the noise floor, determining the desired signal by applying a predetermined algorithm. - determining, based on the frequency spectrum of the signal, a value representative of the noise floor, the value representative of the noise floor being calculated as an average amplitude of a number of selected noise representative frequencies spectrum components of the time-dependent signal; - identifying, based on the frequency spectrum of the signal derived under the predetermined operating condition, a peak component, the peak component being the frequency component with a greatest amplitude value, and - if the amplitude of the identified peak component satisfies a relative peak criterion determined on the basis of the determined value representative of the noise floor, determining the desired signal by applying a predetermined algorithm.