mhurhangee/patent-ind-claim-en huggingface dataset:
A method (100; 200) for monitoring the termination mode of a telephone message, for example of the SMS or MMS type, sent to a mobile telephone number, called the target number, that is to say the manner in which a telephone message is routed, forwarded, to a target number, that is to say by means of which technical means in particular or which particular succession of technical means, integrated into or interfaced with one or more telecommunications networks, said telephone message is actually forwarded to said target number, characterized in that said telephone message is sent during a phase , called the sending phase, comprising the following steps: - sending, on behalf of a first party, called the trigger , said telephone message to said target number, said sending being carried out either by said trigger or by a second party, called the transmitter; and - receiving said message, by a third party , called the receiver, using said target number; said method (100; 200) comprising an analysis phase comprising the following steps: - detecting , in said message, a pattern previously stored and associated with said trigger , comprising a sign, an alphanumeric character, a string of alphanumeric characters, a word, or set of words, an image, a sound, and/or an audiovisual content, which step of detecting a pattern is carried out by a fuzzy logic detection technique; - identifying , from said pattern, the trigger of said message; - determining , a transmitter identifier on reception, and/or an identifier of a routing equipment , of said message, by analysis of said message; - verifying a termination mode of said message as a function of at least one of said identifiers and of said trigger . - sending, on behalf of a first party, called the trigger , said telephone message to said target number, said sending being carried out either by said trigger or by a second party, called the transmitter; and - receiving said message, by a third party , called the receiver, using said target number; - detecting , in said message, a pattern previously stored and associated with said trigger , comprising a sign, an alphanumeric character, a string of alphanumeric characters, a word, or set of words, an image, a sound, and/or an audiovisual content, which step of detecting a pattern is carried out by a fuzzy logic detection technique; - identifying , from said pattern, the trigger of said message; - determining , a transmitter identifier on reception, and/or an identifier of a routing equipment , of said message, by analysis of said message; - verifying a termination mode of said message as a function of at least one of said identifiers and of said trigger .
A digital signal processing unit adapted to process a composite time domain signal having a plurality of parallel and independent signals that are arranged to collectively form a parallel communication, the composite time domain signal comprising at least a first time domain signal and a second time domain signal , the first time domain signal being an Orthogonal Frequency Division Multiplex, OFDM, signal formed by at least a first OFDM symbol and a second OFDM symbol which are contiguous to each other at a first transition time boundary , the composite time domain signal corresponding to a time domain representation of a composite frequency domain signal extending over a given frequency band (B F-OFDM ) configured to be associated with the parallel communication and which is arranged into at least a first frequency sub-band (B 1 , B 2 , B 3 ) and a second frequency sub-band (B 1 , B 2 , B 3 ) which are adjacent to each other and which are respectively associated with the first time domain signal and the second time domain signal, the digital signal processing unit comprising: a first extracting unit arranged to extract a first predetermined plurality of time domain samples of the first time domain signal which are located on either side of the first transition time boundary, a first filtering unit operably coupled to the first extracting unit and arranged to filter the first extracted time domain samples, thereby creating first filtered time domain samples, a first replacing unit operably coupled to the first filtering unit and arranged to replace, in the first time domain signal, the first extracted time domain samples with the first filtered time domain samples, a window shaping unit arranged to window shape with a smooth tapered window function, in the time domain, the filtered time domain samples, thereby creating first tapered time domain samples, the window shaping unit being further arranged to window shape with an inverse function of the smooth tapered window function, in the time domain, the extracted time domain samples, thereby creating second tapered time domain samples, an adding unit operably coupled to the window shaping unit and arranged to add in a weighted manner, in the time domain, the first tapered time domain samples with the second tapered time domain samples, thereby creating combined tapered time domain samples, the first replacing unit operably coupled to the adding unit and further arranged to replace, respectively, in the first time domain signal, the extracted time domain samples or the filtered time domain samples with the combined tapered time domain samples.
Welding apparatus for joining fastening elements on workpieces , said apparatus having a control and power source , a fastening element holding device for holding a fastening element , wherein the fastening element holding device is displaceable along a first axis by means of a drive device , and a cleaning electrode holding device for holding a cleaning electrode , wherein the cleaning electrode holding device is aligned along a second axis and wherein the cleaning electrode held by the cleaning electrode holding device is connected to the electric power source , wherein the fastening element holding device and the cleaning electrode holding device are mounted on a common tool carrier , characterized in that the tool carrier is movable on a joining head by means of a tool carrier drive (54; 82; 84) into a joining position (S) in which the first axis is aligned with a joining axis , and is movable into a cleaning position (R) in which the second axis is aligned with the joining axis .
A method of preparing a lithium-ion cell , the method comprising: providing to an electrolyte of the cell, an additive configured to improve formation of a solid electrolyte interface on an anode ; charging the cell at a first predetermined charge rate (C 1 ) greater than or equal to 2 C, up to a first predetermined voltage (V 1 ), wherein the first predetermined voltage (V 1 ) corresponds to a voltage at which the additive begins formation of the solid electrolyte interface ; charging the cell at a second predetermined rate (C 2 ) less than or equal to 1 C, to a second predetermined voltage (V 2 ), wherein the second predetermined voltage (V 2 ) corresponds to a voltage at which the electrolyte begins formation of the solid electrolyte interface ; and charging the cell to a fully charged capacity at a third predetermined charge rate (C 3 ), the third charge rate (C 3 ) being greater than the second charge rate (C 2 ) and greater than or equal to the first predetermined charge rate (C 1 ), wherein the first predetermined voltage (V1) and the second predetermined voltage (V2) are determined based on acoustic emission signals during a pre-test of a similarly configured lithium-ion cell prior to subsequent charging processes. providing to an electrolyte of the cell, an additive configured to improve formation of a solid electrolyte interface on an anode ; charging the cell at a first predetermined charge rate (C 1 ) greater than or equal to 2 C, up to a first predetermined voltage (V 1 ), wherein the first predetermined voltage (V 1 ) corresponds to a voltage at which the additive begins formation of the solid electrolyte interface ; charging the cell at a second predetermined rate (C 2 ) less than or equal to 1 C, to a second predetermined voltage (V 2 ), wherein the second predetermined voltage (V 2 ) corresponds to a voltage at which the electrolyte begins formation of the solid electrolyte interface ; and charging the cell to a fully charged capacity at a third predetermined charge rate (C 3 ), the third charge rate (C 3 ) being greater than the second charge rate (C 2 ) and greater than or equal to the first predetermined charge rate (C 1 ), wherein the first predetermined voltage (V1) and the second predetermined voltage (V2) are determined based on acoustic emission signals during a pre-test of a similarly configured lithium-ion cell prior to subsequent charging processes.
A rubber blanket for a printing cylinder of a printing machine, comprising at least an upper printing layer made of compact elastomeric material, at least a lower layer having a contact surface in contact with said printing cylinder , and at least one fabric reinforcement layer interposed between the upper layer and the lower layer , wherein said lower layer is made of expanded elastomeric material, characterized in that said lower layer has a deformation at 120 MPa comprised between 80 micron and 120 micron and a load comprised between 2 MPa and 3 MPa to obtain a deformation of 150 micron, said expanded elastomeric material being a thermoplastic elastomer comprising a thermoplastic polyurethane or being a vulcanized thermoset elastomer, said vulcanized thermoset elastomer comprising at least one selected from PU, NBR, EPDM, SBR and EPM.
A reversibly thermochromic composition comprising: (a) a pyridine derivative represented by the following formula (A), as an electron-donating color-developing organic compound; (b) an electron-accepting compound; and (c) a reaction medium which reversibly induces an electron transfer reaction between the component (a) and the component (b) in a specific temperature range: (wherein, each R A1 is independently hydrogen, a halogen group, or a linear or branched alkoxy group having 1 to 6 carbon atoms, provided that at least one of R A1 is an alkoxy group, each mA is independently an integer of 1 to 3, IA is an integer of 1 or 2, and X is hydrogen or a group represented by the following formula: wherein, each R A2 is independently hydrogen, a linear or branched alkyl group having 1 to 6 carbon atoms, or a linear or branched alkoxy group having 1 to 6 carbon atoms, and each nA is independently an integer of 1 to 3, provided that two X never simultaneously form hydrogen and never simultaneously form a phenyl group). (a) a pyridine derivative represented by the following formula (A), as an electron-donating color-developing organic compound; (b) an electron-accepting compound; and (c) a reaction medium which reversibly induces an electron transfer reaction between the component (a) and the component (b) in a specific temperature range: (wherein, each R A1 is independently hydrogen, a halogen group, or a linear or branched alkoxy group having 1 to 6 carbon atoms, provided that at least one of R A1 is an alkoxy group, each mA is independently an integer of 1 to 3, IA is an integer of 1 or 2, and X is hydrogen or a group represented by the following formula: wherein, each R A2 is independently hydrogen, a linear or branched alkyl group having 1 to 6 carbon atoms, or a linear or branched alkoxy group having 1 to 6 carbon atoms, and each nA is independently an integer of 1 to 3, provided that two X never simultaneously form hydrogen and never simultaneously form a phenyl group). each R A1 is independently hydrogen, a halogen group, or a linear or branched alkoxy group having 1 to 6 carbon atoms, provided that at least one of R A1 is an alkoxy group, each mA is independently an integer of 1 to 3, IA is an integer of 1 or 2, and X is hydrogen or a group represented by the following formula: wherein, each R A2 is independently hydrogen, a linear or branched alkyl group having 1 to 6 carbon atoms, or a linear or branched alkoxy group having 1 to 6 carbon atoms, and each nA is independently an integer of 1 to 3, provided that two X never simultaneously form hydrogen and never simultaneously form a phenyl group).
Switching apparatus for disconnecting a current path of a DC voltage network, which current path comprises source-side and/or load-side inductances , comprising at least two switching modules connected in series, wherein each of the switching modules comprises at least one controllable semiconductor switching element with which a series circuit comprising a resistor and a capacitor is connected in parallel, wherein the switching apparatus is configured in such a manner that, during disconnection of the current path , in order to reduce the energy stored in the inductances , the semiconductor switching element of at least one of the switching modules is turned on with a duty factor, characterized in that the duty factor is formed using the difference between the actual voltage across the semiconductor switching element and a setpoint voltage across the semiconductor switching element, and wherein the setpoint voltage is formed at least from the system voltage of the DC voltage network and the number of switching modules . wherein the switching apparatus is configured in such a manner that, during disconnection of the current path , in order to reduce the energy stored in the inductances , the semiconductor switching element of at least one of the switching modules is turned on with a duty factor, characterized in that the duty factor is formed using the difference between the actual voltage across the semiconductor switching element and a setpoint voltage across the semiconductor switching element, and wherein the setpoint voltage is formed at least from the system voltage of the DC voltage network and the number of switching modules .
A hair treatment method comprising the following step (i) and step (ii) in this order: Step (i): a step of applying a composition containing the following component (A) on a hair: (A) a compound represented by the following general formula or a salt thereof: wherein a broken line represents the presence or absence of a π bond; R 1 represents a hydroxy group or an acetoxy group; R 2 represents a hydrogen atom or -COOR (R is a hydrogen atom, a methyl group, or an ethyl group); and R 3 represents a hydrogen atom, an acetyl group, a methyl group, or an ethyl group; and Step (ii): a step of giving a shape to the hair while applying a temperature of 140°C or higher and 220°C or lower to the hair. Step (i): a step of applying a composition containing the following component (A) on a hair: (A) a compound represented by the following general formula or a salt thereof: (A) a compound represented by the following general formula or a salt thereof: wherein a broken line represents the presence or absence of a π bond; R 1 represents a hydroxy group or an acetoxy group; R 2 represents a hydrogen atom or -COOR (R is a hydrogen atom, a methyl group, or an ethyl group); and R 3 represents a hydrogen atom, an acetyl group, a methyl group, or an ethyl group; and Step (ii): a step of giving a shape to the hair while applying a temperature of 140°C or higher and 220°C or lower to the hair.
A transport device for transporting containers with a plurality of pucks , which are each designed for receiving a container and for standing transport of the container , wherein the transport device comprises an intermediate starwheel and a container lifting device designed to adjust the vertical position of the containers , and wherein the transport device is designed such that the containers can be transported by means of the pucks to an inlet of a treatment machine and away from an outlet of the treatment machine , characterized in that the container lifting device is integrally formed with or attached to the intermediate starwheel and is formed and arranged in operation such that it lifts the containers for removing the containers from the pucks before they pass through a treatment section of the treatment machine and lowers the containers for inserting the containers into the pucks after they have passed through the treatment section , wherein the transport device comprises an infeed starwheel and an outfeed starwheel and the intermediate starwheel is arranged between the infeed starwheel and the outfeed starwheel such that during transfer to the infeed starwheel and taking over from the outfeed starwheel , it simultaneously forms the counterpart to the infeed starwheel and the outfeed starwheel . wherein the transport device comprises an intermediate starwheel and a container lifting device designed to adjust the vertical position of the containers , and wherein the transport device is designed such that the containers can be transported by means of the pucks to an inlet of a treatment machine and away from an outlet of the treatment machine , characterized in that the container lifting device is integrally formed with or attached to the intermediate starwheel and is formed and arranged in operation such that it lifts the containers for removing the containers from the pucks before they pass through a treatment section of the treatment machine and lowers the containers for inserting the containers into the pucks after they have passed through the treatment section , wherein the transport device comprises an infeed starwheel and an outfeed starwheel and the intermediate starwheel is arranged between the infeed starwheel and the outfeed starwheel such that during transfer to the infeed starwheel and taking over from the outfeed starwheel , it simultaneously forms the counterpart to the infeed starwheel and the outfeed starwheel .
A method of fabricating a composite structure , the method comprising the steps of: providing a pair of preforms , each comprising a plurality of reinforcing fibres ; providing an intermediate layer of resiliently deformable material between said preforms to space said preforms apart from one another such that each preform bears against a respective side of the intermediate layer ; providing a curable matrix material around said fibres ; and curing said matrix material to form said composite structure , whereby the method further comprises either: (i) measuring the thickness of the preforms ; or (ii) determining the thickness of the preforms by measuring the thickness of the fibres or plies of the fibres of a batch of plies from which the preforms are formed; and the thickness (t 4 ) of said intermediate layer is selected in dependence on the measured or determined thickness (t 1 , t 2 ) of one or more of said preforms such that the composite structure fabricated via the method has a predetermined desired thickness (T).
End effector for an electrical charging device for charging an electrical energy store of a vehicle , wherein the end effector has a mount for an electrical charging plug , and the end effector has its own automatic adjustment device for the mount as well as a flange-like connection for connection to a positioning apparatus of the charging device , wherein the adjustment device is designed to automatically couple and possibly uncouple the electrical charging plug to/from a charging socket on the vehicle and the adjustment device has at least one adjustment unit which can move in a translatory and/or rotational manner, wherein the at least one adjustment unit has a controllable drive, characterized in that the end effector has a retractable and extendable compensation device for the charging plug , in particular the mount , which compensation device can be adjusted in at least one axis and is designed to compensate for relative movements between the vehicle and the positioning apparatus during charging.
A metal compound adsorbent capable of adsorbing a compound of at least one of tungsten and molybdenum present in solution as a negative ion, comprising at least one kind of a first amino acid selected from among lysine, glutamic acid, and arginine; wherein at least a part of the first amino acid is present in solution as a free amino acid, and wherein the metal compound adsorbent comprises a total amount of 10 mol% or more of the free amino acid of the first amino acid relative to a total amount of the free amino acid. wherein at least a part of the first amino acid is present in solution as a free amino acid, and wherein the metal compound adsorbent comprises a total amount of 10 mol% or more of the free amino acid of the first amino acid relative to a total amount of the free amino acid.
Non-therapeutic use of a liquid mixture for application to the scalp, wherein the mixture comprises at least the following ingredients: an amino acid, Biotin, Lecithin, Sandalwood oil. an amino acid, Biotin, Lecithin, Sandalwood oil.
Circuitry for a base station for use in a wireless telecommunications system in which downlink communications are made by the base station using a radio interface that spans a system frequency bandwidth and supports at least some communications with at least some terminal devices within a plurality of restricted frequency bands which are narrower than and within the system frequency bandwidth, the circuitry comprising a processor unit and a transceiver unit , and wherein the processor unit is configured to select a restricted frequency band to be used for downlink communications with a terminal device from among the plurality of restricted frequency bands based on an identifier for the terminal device; and to configure the transceiver unit to transmit downlink communications to the terminal device within the selected restricted frequency band; wherein the circuitry is configured such that downlink communications transmitted to the terminal device within the selected restricted frequency band comprise user-plane data and control-plane data, and wherein the control-plane data comprise an indication of resources within the selected restricted frequency band to be used for communicating the user-plane data; and wherein all the control-plane data and all the user-plane data which is addressed to the terminal device is made within the selected restricted frequency band.