mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus; wherein the apparatus is a security edge proxy comprising: an input for receiving a first message that has been sent by a first network function and addressed to a second network function; the first message comprising a plurality of first message parts comprising: a request line or a response line; at least one header; and an optional payload; each including one or more features and optional sub-features ; a processor configured to cause: forming an encrypted second message part by encrypting as a single block a first set of the features and sub-features of the first message parts; forming an integrity protected second message part that comprises a second set of the features and sub-features of the first message parts, the integrity protected second message part further comprising references to each of the features and sub-features of the first set; forming a second message that comprises the encrypted second message part and the integrity protected second message part; and sending the second message; wherein the first set and the second set are disjoint and collectively comprise all the features and sub-features of the first message parts. an input for receiving a first message that has been sent by a first network function and addressed to a second network function; the first message comprising a plurality of first message parts comprising: a request line or a response line; at least one header; and an optional payload; each including one or more features and optional sub-features ; a processor configured to cause: forming an encrypted second message part by encrypting as a single block a first set of the features and sub-features of the first message parts; forming an integrity protected second message part that comprises a second set of the features and sub-features of the first message parts, the integrity protected second message part further comprising references to each of the features and sub-features of the first set; forming a second message that comprises the encrypted second message part and the integrity protected second message part; and sending the second message; wherein the first set and the second set are disjoint and collectively comprise all the features and sub-features of the first message parts. forming an encrypted second message part by encrypting as a single block a first set of the features and sub-features of the first message parts; forming an integrity protected second message part that comprises a second set of the features and sub-features of the first message parts, the integrity protected second message part further comprising references to each of the features and sub-features of the first set; forming a second message that comprises the encrypted second message part and the integrity protected second message part; and sending the second message; wherein the first set and the second set are disjoint and collectively comprise all the features and sub-features of the first message parts.
A process for electrochemical synthesis of the fine-crystalline silver(II) salts, in a system comprising at least two electrodes: a working electrode and a counter electrode, wherein the electrolysis of the silver(I) salt or a hydrogensalt of silver(I) in the acid solution containing the same anion as the electrolysed salt is carried out in the concentrated acid solution, characterised in that, high purity and very high crystallinity salts of silver(II) and inorganic oxoanion or oxofluoroanion of non-metal element in high oxidation state, preferably of non-metal such as C(IV), N(V), P(V), S(VI), Se(VI), Te(VI), Cl(VII), Br(VII) and I(VII) are obtained, provided that the acid solution with a concentration over 80%, preferably greater than or equal to 95% is used, and/or the acceptable contamination of the acid is water, an anhydride of the acid, or other solvent forming solutions of the corresponding silver(I) salt and the acid, optionally with the addition of electrolyte, wherein fine-crystalline silver(II) salts having the crystallite size in the range of at least 20-500 microns in length are formed.
A work machine including: a hydraulic pump that delivers a hydraulic operating fluid, an actuator driven by the hydraulic operating fluid delivered from the hydraulic pump , a directional control valve that controls flow of the hydraulic operating fluid supplied to the actuator , a pilot pump of a fixed displacement type, a solenoid valve that generates a pilot pressure to drive the directional control valve with use of a delivery pressure of the pilot pump as a source pressure, a shut-off valve that interrupts a connection between the pilot pump and the solenoid valve , a first sensor that senses an amount of operation of an operation lever , a second sensor that senses a state amount relating to operation of the solenoid valve , and a controller that controls the solenoid valve and the shut-off valve on a basis of sensing signals of the first sensor and the second sensor , characterized in that the controller is configured to: determine whether or not an abnormality of the second sensor exists on a basis of the sensing signal of the second sensor , and when determining that the second sensor is abnormal, on a basis of the sensing signal of the first sensor , make an opening command to the shut-off valve if operation of the operation lever is sensed and make a closing command to the shut-off valve if a neutral state of the operation lever is sensed. a hydraulic pump that delivers a hydraulic operating fluid, an actuator driven by the hydraulic operating fluid delivered from the hydraulic pump , a directional control valve that controls flow of the hydraulic operating fluid supplied to the actuator , a pilot pump of a fixed displacement type, a solenoid valve that generates a pilot pressure to drive the directional control valve with use of a delivery pressure of the pilot pump as a source pressure, a shut-off valve that interrupts a connection between the pilot pump and the solenoid valve , a first sensor that senses an amount of operation of an operation lever , a second sensor that senses a state amount relating to operation of the solenoid valve , and a controller that controls the solenoid valve and the shut-off valve on a basis of sensing signals of the first sensor and the second sensor , characterized in that the controller is configured to: determine whether or not an abnormality of the second sensor exists on a basis of the sensing signal of the second sensor , and when determining that the second sensor is abnormal, on a basis of the sensing signal of the first sensor , make an opening command to the shut-off valve if operation of the operation lever is sensed and make a closing command to the shut-off valve if a neutral state of the operation lever is sensed. determine whether or not an abnormality of the second sensor exists on a basis of the sensing signal of the second sensor , and when determining that the second sensor is abnormal, on a basis of the sensing signal of the first sensor , make an opening command to the shut-off valve if operation of the operation lever is sensed and make a closing command to the shut-off valve if a neutral state of the operation lever is sensed.
A process for preparing a compound of Formula A or a salt or solvate thereof, the process comprising the step of: a) Reacting the compound 1 with a trialkyl orthoformate to provide a compound of Formula A or a salt or solvate thereof, wherein R is the alkyl moiety of the trialkyl orthoformate. a) Reacting the compound 1 with a trialkyl orthoformate to provide a compound of Formula A or a salt or solvate thereof,
A thermocouple assembly for use with an electrode, the thermocouple assembly comprising: a plurality of temperature sensors formed by thermocouple junctions; a tubular element , wherein the plurality of temperature sensors are disposed within an inner diameter of the tubular element ; a thermally conductive material sealing each of the plurality of temperature sensors within the tubular element ; and an air gap defined by the thermally conductive material and the interior diameter of the tubular element between each pair of adjacent temperature sensors , characterised in that the tubular element comprises quartz or glass. a plurality of temperature sensors formed by thermocouple junctions; a tubular element , wherein the plurality of temperature sensors are disposed within an inner diameter of the tubular element ; a thermally conductive material sealing each of the plurality of temperature sensors within the tubular element ; and an air gap defined by the thermally conductive material and the interior diameter of the tubular element between each pair of adjacent temperature sensors , characterised in that the tubular element comprises quartz or glass.
A circuitry of a biopotential acquisition system , comprising: an input node (N1, N2), wherein the input node (N1, N2) is coupled to an electrode of the biopotential acquisition system , and in use the electrode is to be in contact with a human body; an electrode-tissue impedance, ETI, transmitter , configured to generate a transmitter signal to the input node (N1, N2); and an analog front-end circuit , coupled to the input node (N1, N2), configured to process an input signal from the input node (N1, N2) to generate a digital signal, wherein each of the input signal and the digital signal comprises components of an electrocardiography, ECG, signal and an ETI signal, characterized by a digital mixer , configured to mix the digital signal with mixer data to generate an in-phase mixed signal and a quadrature mixed signal, wherein the mixer data corresponds to a frequency of the transmitter signal, and the in-phase mixed signal and the quadrature mixed signal comprise the components of the ETI signal; and a digital filter , configured to filter the digital signal to generate the ECG signal. an input node (N1, N2), wherein the input node (N1, N2) is coupled to an electrode of the biopotential acquisition system , and in use the electrode is to be in contact with a human body; an electrode-tissue impedance, ETI, transmitter , configured to generate a transmitter signal to the input node (N1, N2); and an analog front-end circuit , coupled to the input node (N1, N2), configured to process an input signal from the input node (N1, N2) to generate a digital signal, wherein each of the input signal and the digital signal comprises components of an electrocardiography, ECG, signal and an ETI signal, characterized by a digital mixer , configured to mix the digital signal with mixer data to generate an in-phase mixed signal and a quadrature mixed signal, wherein the mixer data corresponds to a frequency of the transmitter signal, and the in-phase mixed signal and the quadrature mixed signal comprise the components of the ETI signal; and a digital filter , configured to filter the digital signal to generate the ECG signal.
A device for acquiring a characteristic image of a body , comprising: an image sensor comprising a plurality of photosensitive cells ; and a layer of a material coating a surface of the sensor , said material being such that the color of said material varies due to the variations of a physical parameter characteristic of said body when said body is in contact or almost in contact with said layer . an image sensor comprising a plurality of photosensitive cells ; and a layer of a material coating a surface of the sensor , said material being such that the color of said material varies due to the variations of a physical parameter characteristic of said body when said body is in contact or almost in contact with said layer .
A gasket arrangement for a plate heat exchanger comprising a gasket , which is arranged to be positioned between first and second aligned heat transfer plates of the plate heat exchanger with a lower side of the gasket abutting the first heat transfer plate and an opposing upper side of the gasket abutting the second heat transfer plate , and a projection projecting from an outside of the gasket , which projection comprises an outer part having a length extension and being arranged to extend outside the first and second heat transfer plates , and a first connection part , connecting the gasket and the outer part of the projection , characterized in that it further comprises an RFID tag which at least partly is embedded in at least said outer part of the projection .
A method for acquiring oscillometry measurements with an oscillometry measuring system in lung function assessment, the method comprising: receiving repeated oscillometry measurements, using at least one processor of the oscillometry measuring system , the repeated oscillometry measurements being from at least one oscillometry recording; identifying , using the at least one processor of the oscillometry measuring system , parameters in the repeated oscillometry measurements; calculating , using the at least one processor of the oscillometry measuring system , at least one objective function from the parameters of the repeated oscillometry measurements, the at least one objective function capturing variability between the repeated oscillometry measurements, evaluating , using the at least one processor of the oscillometry measuring system , the at least one objective function as a function of at least one predetermined threshold; based on the results of the evaluating , accepting or rejecting , using the at least one processor of the oscillometry measuring system , the repeated oscillometry measurements; and outputting, using the at least one processor of the oscillometry measuring system , oscillometry data using the oscillometry measurements if accepted from the evaluating . receiving repeated oscillometry measurements, using at least one processor of the oscillometry measuring system , the repeated oscillometry measurements being from at least one oscillometry recording; identifying , using the at least one processor of the oscillometry measuring system , parameters in the repeated oscillometry measurements; calculating , using the at least one processor of the oscillometry measuring system , at least one objective function from the parameters of the repeated oscillometry measurements, the at least one objective function capturing variability between the repeated oscillometry measurements, evaluating , using the at least one processor of the oscillometry measuring system , the at least one objective function as a function of at least one predetermined threshold; based on the results of the evaluating , accepting or rejecting , using the at least one processor of the oscillometry measuring system , the repeated oscillometry measurements; and outputting, using the at least one processor of the oscillometry measuring system , oscillometry data using the oscillometry measurements if accepted from the evaluating .
A pump station arrangement for removing harmful fluids from wastewater, wherein the pump station arrangement comprises: - a pre-chamber having an inlet for influent wastewater and an outlet , and - a pump sump having an outlet for effluent wastewater and an inlet that is in fluid communication with the outlet of the pre-chamber such that the wastewater is transported from the pre-chamber to the pump sump under the influence of gravity, characterized in that the pump station arrangement furthermore comprises: - a recirculation channel extending from the pump sump to the pre-chamber , and - a gas sensor arranged in the pump sump and configured to measure the content of harmful fluids in the form of gas in the pump sump , wherein the pump station arrangement is configured to recirculate the wastewater via the recirculation channel from the pump sump to the pre-chamber if the measured content of harmful fluids in the form of gas in the pump sump exceed a predetermined value. - a pre-chamber having an inlet for influent wastewater and an outlet , and - a pump sump having an outlet for effluent wastewater and an inlet that is in fluid communication with the outlet of the pre-chamber such that the wastewater is transported from the pre-chamber to the pump sump under the influence of gravity, - a recirculation channel extending from the pump sump to the pre-chamber , and - a gas sensor arranged in the pump sump and configured to measure the content of harmful fluids in the form of gas in the pump sump ,
A data transmission method, comprising: Determining , by a first device , a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe, wherein the first subframe comprises M orthogonal frequency division multiplexing OFDM symbols, the second subframe comprises N OFDM symbols, M and N are positive integers; and Sending , by the first device , the first subframe and the second subframe to a second device , wherein the second subframe comprises the HARQ process number of the second subframe wherein M < N; wherein the second subframe is a Q th subframe sent after the first subframe, and Q is a positive integer, and wherein the determining, by a first device , a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe comprises: determining , by the first device , the HARQ process number of the first subframe according to a first formula x = y + i or a second formula x = y - i , wherein x is the HARQ process number of the first subframe, y is the HARQ process number of the second subframe, and i is a positive integer. Determining , by a first device , a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe, wherein the first subframe comprises M orthogonal frequency division multiplexing OFDM symbols, the second subframe comprises N OFDM symbols, M and N are positive integers; and Sending , by the first device , the first subframe and the second subframe to a second device , wherein the second subframe comprises the HARQ process number of the second subframe wherein M < N; wherein the second subframe is a Q th subframe sent after the first subframe, and Q is a positive integer, and wherein the determining, by a first device , a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe comprises: determining , by the first device , the HARQ process number of the first subframe according to a first formula x = y + i or a second formula x = y - i , wherein x is the HARQ process number of the first subframe, y is the HARQ process number of the second subframe, and i is a positive integer.
A memory device , comprising: an access transistor comprising a bitline and a wordline ; a series of alternating plate lines and an insulating material over the access transistor , the plate lines comprising an adhesion material on a top and a bottom thereof and a metal material in between the adhesion material , of the metal material having one or more voids therein; two or more ferroelectric capacitors over the access transistor and through the series of alternating plate lines and an insulating material such that a first one of the ferroelectric capacitors is coupled to a first one of the plate lines and a second one of the ferroelectric capacitors is coupled to a second one of the plate lines , and wherein the two or more ferroelectric capacitors are each coupled to and controlled by the access transistor ; and a plurality of vias each via landing on a respective one of the plate lines , the plurality of vias comprising a same metal material as the plate lines . an access transistor comprising a bitline and a wordline ; a series of alternating plate lines and an insulating material over the access transistor , the plate lines comprising an adhesion material on a top and a bottom thereof and a metal material in between the adhesion material , of the metal material having one or more voids therein; two or more ferroelectric capacitors over the access transistor and through the series of alternating plate lines and an insulating material such that a first one of the ferroelectric capacitors is coupled to a first one of the plate lines and a second one of the ferroelectric capacitors is coupled to a second one of the plate lines , and wherein the two or more ferroelectric capacitors are each coupled to and controlled by the access transistor ; and a plurality of vias each via landing on a respective one of the plate lines , the plurality of vias comprising a same metal material as the plate lines .
A vehicle luminous module intended to generate a light beam along an optical axis (I), and comprising: - primary light guides each comprising an entrance dioptric interface and an exit ; - a light source arranged facing an entrance dioptric interface ; - a projecting assembly comprising a focal region (F) and an exit member , said projecting assembly being arranged so that the light rays passing through said focal region (F) and reaching the exit member are imaged in a projection field downstream of said projecting assembly; - the exits of the guides being arranged level with the focal region (F); said luminous module being characterized in that it comprises at least one secondary light guide distinct from the primary light guides , and arranged so as to deviate light rays generated by the light source so that they do not reach the exit member , and/or so as to spread said light rays in said projection field, the secondary light guide or the secondary light guides being only designed to refract and deviate stray light rays, stray light rays being rays that are generated by a light source placed upstream of a primary light guide but that do not enter into said primary light guide , or that exit via one of the lateral faces of this primary guide before reaching its exit. - primary light guides each comprising an entrance dioptric interface and an exit ; - a light source arranged facing an entrance dioptric interface ; - a projecting assembly comprising a focal region (F) and an exit member , said projecting assembly being arranged so that the light rays passing through said focal region (F) and reaching the exit member are imaged in a projection field downstream of said projecting assembly; - the exits of the guides being arranged level with the focal region (F);
A user equipment, UE, apparatus comprising means for: - obtaining a resource configuration for a control channel carrying control data, - obtaining information indicating a transmission period for a repeated transmission of said control data on said control channel; - obtaining a transmission configuration data defining one or more transmission states for said resource configuration; - obtaining monitoring information indicating one or more monitoring occasions associated with said resource configuration; and - monitoring (206 - 211) said control channel for control data on said monitoring occasions by using a mapping scheme between at least one of said one or more transmission states and said monitoring occasions within said transmission period. - obtaining a resource configuration for a control channel carrying control data, - obtaining information indicating a transmission period for a repeated transmission of said control data on said control channel; - obtaining a transmission configuration data defining one or more transmission states for said resource configuration; - obtaining monitoring information indicating one or more monitoring occasions associated with said resource configuration; and - monitoring (206 - 211) said control channel for control data on said monitoring occasions by using a mapping scheme between at least one of said one or more transmission states and said monitoring occasions within said transmission period.