mhurhangee/patent-ind-claim-en huggingface dataset:
Use of an α-lactalbumin enriched whey protein extract (WPE) as a source of cholesterol in a synthetic nutritional composition for an infant or child, wherein the α-lactalbumin enriched WPE is obtained by a process comprising: a. acidifying a whey protein product to pH 4 or below b. forming a low calcium whey protein product by concentrating the proteins in the acidified whey protein until the calcium to protein ratio is less than about 0.001 and, c. precipitating α-lactalbumin from the low-calcium whey protein product, wherein said precipitating step includes the sub-steps of: (I) diluting the low-calcium whey protein product, (II) adjusting the pH of the diluted low-calcium whey protein product to between 4 and 5 to form a precipitate and soluble proteins, and (III) Separating the precipitate proteins from the soluble proteins; Wherein the WPE is added to said composition in an effective amount sufficient to ensure that said synthetic nutritional composition has a final concentration of cholesterol found in human breast milk. a. acidifying a whey protein product to pH 4 or below b. forming a low calcium whey protein product by concentrating the proteins in the acidified whey protein until the calcium to protein ratio is less than about 0.001 and, c. precipitating α-lactalbumin from the low-calcium whey protein product, wherein said precipitating step includes the sub-steps of: (I) diluting the low-calcium whey protein product, (II) adjusting the pH of the diluted low-calcium whey protein product to between 4 and 5 to form a precipitate and soluble proteins, and (III) Separating the precipitate proteins from the soluble proteins; (I) diluting the low-calcium whey protein product, (II) adjusting the pH of the diluted low-calcium whey protein product to between 4 and 5 to form a precipitate and soluble proteins, and (III) Separating the precipitate proteins from the soluble proteins;
Use of one or more compound(s) of formula (la) and/or of formula (lb), as a fragrance substance.
Switch heating validation system for validating the operating state of the railway switch heating system 1618) for heating a railway switch , the switch heating validation system comprising: - a sensor unit which is configured for fixing to a rail or a switch tip the railway switch, for measuring a momentary temperature of the railway switch; - a control interface configured for communication with a control unit of the railway switch heating system, for establishing the operating state of the railway switch heating system which defines whether one or more heating units of the railway switch heating system are activated or deactivated; and - a communication unit configured for transmitting the momentary temperature and the operating state of the railway switch heating system to a remotely located central processing unit, characterized in that the switch heating validation system validates the operating state of the railway switch heating system on the basis of the established momentary temperature and the establishing, via the control interface, of the activation of the railway switch heating system. - a sensor unit which is configured for fixing to a rail or a switch tip the railway switch, for measuring a momentary temperature of the railway switch; - a control interface configured for communication with a control unit of the railway switch heating system, for establishing the operating state of the railway switch heating system which defines whether one or more heating units of the railway switch heating system are activated or deactivated; and - a communication unit configured for transmitting the momentary temperature and the operating state of the railway switch heating system to a remotely located central processing unit, characterized in that the switch heating validation system validates the operating state of the railway switch heating system on the basis of the established momentary temperature and the establishing, via the control interface, of the activation of the railway switch heating system.
A device for reinforcing shelving, in particular intended for mechanical reinforcement of a shelving upright of to be equipped, the reinforcement device including a profiled structure capable of allowing the reinforcement of said upright , the reinforcement device comprising means for fastening, with connecting rods, to the upright and load distribution means , said load distribution means being mechanically connected to the connecting rods and capable of being positioned between the profile and the upright , in order to limit the load forces at the fastening zones on the upright , the distribution means including at least one tab allowing a mechanical connection between the connecting rods of the fastening means , characterised in that the tab comprises a plurality of lateral slots for slidably positioning on the connecting rods , the lateral slots being inclined upwards from their opening allowing a gravitational sliding until contact between the bottoms of the lateral slots and the connecting rods . the distribution means including at least one tab allowing a mechanical connection between the connecting rods of the fastening means , characterised in that the tab comprises a plurality of lateral slots for slidably positioning on the connecting rods , the lateral slots being inclined upwards from their opening allowing a gravitational sliding until contact between the bottoms of the lateral slots and the connecting rods .
Illumination optical unit for projection lithography for illuminating an object field , - comprising a first transmission optical unit for guiding illumination light emanating from a light source , - comprising an illumination-predetermining facet mirror which is disposed downstream of the first transmission optical unit and comprises a multiplicity of illumination-predetermining facets , said facet mirror generating a predetermined illumination of the object field by means of an arrangement of illuminated illumination-predetermining facets , - comprising an arrangement of the illumination optical unit in such a way that this results in an illumination, with an envelope deviating from a circular form, of an illumination pupil having a maximum extent of the illumination optical unit , which predetermines an illumination angle distribution in the object field , - wherein the illumination pupil is subdivided into a plurality of sub-pupil regions , which are present arranged in a line-by-line (Z) and/or column-by-column (S) manner, - wherein the sub-pupil regions in the illumination pupil have a maximum extent in a first sub-pupil dimension (x) and a minimum extent in a second sub-pupil dimension (y), wherein a ratio between the maximum extent and the minimum extent is at least 1.1. - comprising a first transmission optical unit for guiding illumination light emanating from a light source , - comprising an illumination-predetermining facet mirror which is disposed downstream of the first transmission optical unit and comprises a multiplicity of illumination-predetermining facets , said facet mirror generating a predetermined illumination of the object field by means of an arrangement of illuminated illumination-predetermining facets , - comprising an arrangement of the illumination optical unit in such a way that this results in an illumination, with an envelope deviating from a circular form, of an illumination pupil having a maximum extent of the illumination optical unit , which predetermines an illumination angle distribution in the object field , - wherein the illumination pupil is subdivided into a plurality of sub-pupil regions , which are present arranged in a line-by-line (Z) and/or column-by-column (S) manner, - wherein the sub-pupil regions in the illumination pupil have a maximum extent in a first sub-pupil dimension (x) and a minimum extent in a second sub-pupil dimension (y), wherein a ratio between the maximum extent and the minimum extent is at least 1.1.
A blood pump system comprising: a blood pump comprising an inlet and an outlet, a pressure sensor coupled with the outlet or the inlet of the blood pump ; a controller operably coupled with the blood pump and the pressure sensor , the controller configured to: determine a differential pressure across the blood pump based on a rotation rate of a rotor of the blood pump and a magnitude of an electrical current used to rotate the rotor at the rotation rate; calculate, with the differential pressure: 1) a pressure at the inlet of the blood pump when a pressure sensor is at the outlet, or 2) a pressure at the outlet of the blood pump when a pressure sensor is at the inlet, and generate a desired data waveform from the calculated differential pressure. a blood pump comprising an inlet and an outlet, a pressure sensor coupled with the outlet or the inlet of the blood pump ; a controller operably coupled with the blood pump and the pressure sensor , the controller configured to: determine a differential pressure across the blood pump based on a rotation rate of a rotor of the blood pump and a magnitude of an electrical current used to rotate the rotor at the rotation rate; calculate, with the differential pressure: 1) a pressure at the inlet of the blood pump when a pressure sensor is at the outlet, or 2) a pressure at the outlet of the blood pump when a pressure sensor is at the inlet, and generate a desired data waveform from the calculated differential pressure. determine a differential pressure across the blood pump based on a rotation rate of a rotor of the blood pump and a magnitude of an electrical current used to rotate the rotor at the rotation rate; calculate, with the differential pressure: 1) a pressure at the inlet of the blood pump when a pressure sensor is at the outlet, or 2) a pressure at the outlet of the blood pump when a pressure sensor is at the inlet, and 1) a pressure at the inlet of the blood pump when a pressure sensor is at the outlet, or 2) a pressure at the outlet of the blood pump when a pressure sensor is at the inlet, and generate a desired data waveform from the calculated differential pressure.
A clutch module intended to be installed between an engine and a transmission of a motor vehicle, the clutch module comprising: - a first clutch rotating about an axis of rotation (O); - a second clutch rotating about the axis of rotation (O); - a clutch support designed to radially support the first and second clutches via a support bearing , the clutch support delimiting a duct allowing a hydraulic fluid to circulate toward the clutches , said duct having at least one outlet orifice via which the hydraulic fluid can leave the duct; - a fixing member for the attachment of the clutch module , the fixing member being configured to allow the clutch module to be fixed to a casing of an actuating system , said actuating system being designed to configure the first and second clutches between an engaged configuration and a disengaged configuration; characterized in that an access (T) to the fixing member is situated radially on the inside of the outlet orifice of the duct . - a first clutch rotating about an axis of rotation (O); - a second clutch rotating about the axis of rotation (O); - a clutch support designed to radially support the first and second clutches via a support bearing , the clutch support delimiting a duct allowing a hydraulic fluid to circulate toward the clutches , said duct having at least one outlet orifice via which the hydraulic fluid can leave the duct; - a fixing member for the attachment of the clutch module , the fixing member being configured to allow the clutch module to be fixed to a casing of an actuating system , said actuating system being designed to configure the first and second clutches between an engaged configuration and a disengaged configuration;
A method of relocating application context by an edge enabler client, EEC , in an edge computing system, the method comprising: determining whether a relocation of the application context is required by detecting that a user equipment, UE , has moved or that the UE is expected to move outside a service area of a source edge application server, S-EAS , based on comparison between edge data network, EDN, service area and UE location information; transmitting a context relocation request to a source edge enabler server, S-EES , based on the determination that the relocation of the application context is required; receiving a context relocation response message indicating a completion of the relocation of the application context from the S-EES ; and rerouting an application data traffic, to a target edge application server, T-EAS , based on the context relocation response message. determining whether a relocation of the application context is required by detecting that a user equipment, UE , has moved or that the UE is expected to move outside a service area of a source edge application server, S-EAS , based on comparison between edge data network, EDN, service area and UE location information; transmitting a context relocation request to a source edge enabler server, S-EES , based on the determination that the relocation of the application context is required; receiving a context relocation response message indicating a completion of the relocation of the application context from the S-EES ; and rerouting an application data traffic, to a target edge application server, T-EAS , based on the context relocation response message.
A compound of the formula: wherein X is N, or C substituted with CN; R 1 is selected from: H, and R 2 and R 3 are both H, or one is H and the other is OH; R 4 , R 5 , R 6 , R 7 and R 9 are independently H or CH 3 ; R 8 is H, CH 3 , CH 2 CH 2 OH, C(=O)CH 2 NH 2 , or C(=O)CH 3 ; and R 10 is OH or NH 2 ; or a pharmaceutically acceptable salt thereof. X is N, or C substituted with CN; R 1 is selected from: H, and R 2 and R 3 are both H, or one is H and the other is OH; R 4 , R 5 , R 6 , R 7 and R 9 are independently H or CH 3 ; R 8 is H, CH 3 , CH 2 CH 2 OH, C(=O)CH 2 NH 2 , or C(=O)CH 3 ; and R 10 is OH or NH 2 ; or a pharmaceutically acceptable salt thereof.
A measurement method, comprising: determining , by a terminal, a first beam reference signal detected by the terminal, and sending a request message to a Location Management Function, LMF, entity to request positioning assistance data from the LMF entity, wherein the request message contains first beam information of the first beam reference signal, wherein the first beam reference signal is a Downlink Reference Signal, DL-RS, used to support data communication and/or a Positioning Reference Signal, PRS, used to support positioning; wherein the first beam information comprises a part or all of: a DL-RS beam identifier, DL-RS signal strength, a PRS beam identifier; receiving , by the terminal, first positioning assistance data containing second beam information of second beam reference signals sent by the LMF entity; measuring , by the terminal, the second beam reference signals from adjacent base stations according to the first positioning assistance data; wherein the second beam reference signals each is a positioning reference signal used to support positioning; determining, by the terminal, positioning information obtained by measurements, wherein the positioning information comprises RSTD measurements obtained by the terminal measuring the second beam reference signals from the adjacent base stations according to the first positioning assistance data; and sending, by the terminal, the positioning information and the second beam information of the second beam reference signals used for measurements to the LMF entity. determining , by a terminal, a first beam reference signal detected by the terminal, and sending a request message to a Location Management Function, LMF, entity to request positioning assistance data from the LMF entity, wherein the request message contains first beam information of the first beam reference signal, wherein the first beam reference signal is a Downlink Reference Signal, DL-RS, used to support data communication and/or a Positioning Reference Signal, PRS, used to support positioning; wherein the first beam information comprises a part or all of: a DL-RS beam identifier, DL-RS signal strength, a PRS beam identifier; receiving , by the terminal, first positioning assistance data containing second beam information of second beam reference signals sent by the LMF entity; measuring , by the terminal, the second beam reference signals from adjacent base stations according to the first positioning assistance data; wherein the second beam reference signals each is a positioning reference signal used to support positioning; determining, by the terminal, positioning information obtained by measurements, wherein the positioning information comprises RSTD measurements obtained by the terminal measuring the second beam reference signals from the adjacent base stations according to the first positioning assistance data; and sending, by the terminal, the positioning information and the second beam information of the second beam reference signals used for measurements to the LMF entity.
An integrated circuit chip device, comprising: a main processing circuit and a plurality of basic processing circuits; the plurality of basic processing circuits are arranged as an array having h rows and w columns, each basic processing circuit is connected to an adjacent basic processing circuit, the main processing circuit is connected to w basic processing circuits in a first row, w basic processing circuits in an h th row, and h basic processing circuits in a first column; the integrated circuit chip device is configured to perform a convolution computation; the main processing circuit is configured to: perform respective neural network computations in series, transfer data of some or all convolution kernels to the w basic processing circuits in the first row through horizontal data input interfaces, classify input data according to positions of convolution, and transfer data of some or all positions of convolution in the input data to the h basic processing circuits in the first column through vertical data input interfaces; and the plurality of basic processing circuits are configured to: perform computations in a neural network in parallel according to the transferred data, and transfer computation results to the main processing circuit through the basic processing circuits that are connected to the main processing circuit. the plurality of basic processing circuits are arranged as an array having h rows and w columns, each basic processing circuit is connected to an adjacent basic processing circuit, the main processing circuit is connected to w basic processing circuits in a first row, w basic processing circuits in an h th row, and h basic processing circuits in a first column; the integrated circuit chip device is configured to perform a convolution computation; the main processing circuit is configured to: perform respective neural network computations in series, transfer data of some or all convolution kernels to the w basic processing circuits in the first row through horizontal data input interfaces, classify input data according to positions of convolution, and transfer data of some or all positions of convolution in the input data to the h basic processing circuits in the first column through vertical data input interfaces; and the plurality of basic processing circuits are configured to: perform computations in a neural network in parallel according to the transferred data, and transfer computation results to the main processing circuit through the basic processing circuits that are connected to the main processing circuit.
A reinforced and impact attenuating helmet assembly comprising: a shell configured to receive a head of a wearer of the helmet , the shell comprising a reinforcing layer that includes an outer surface and an inner surface, wherein the reinforcing layer comprises a series of linked coils that are entirely encased within a filler material, and wherein the series of linked coils are positioned between the outer surface and inner surface of the reinforcing layer, the shell comprising an outer surface and an inner surface, the reinforcing layer being located proximate the inner surface of the shell. a shell configured to receive a head of a wearer of the helmet , the shell comprising a reinforcing layer that includes an outer surface and an inner surface, wherein the reinforcing layer comprises a series of linked coils that are entirely encased within a filler material, and wherein the series of linked coils are positioned between the outer surface and inner surface of the reinforcing layer, the shell comprising an outer surface and an inner surface, the reinforcing layer being located proximate the inner surface of the shell.
A sensor apparatus comprising a sensor device (2; 102; 202; 302; 402; 710; 1602; 2002), for attaching to an outer surface of a compression garment (1; 720), and a controller, wherein the sensor device comprises: a first mounting point for attaching to a first point on the outer surface of the compression garment; and a second mounting point for attaching to a second point on the outer surface of the compression garment, wherein the sensor device is arranged to sense displacement between the first and second mounting points; and wherein the controller is configured to process information representative of the sensed displacement to estimate a pressure exerted by the compression garment on a wearer of the compression garment. a first mounting point for attaching to a first point on the outer surface of the compression garment; and a second mounting point for attaching to a second point on the outer surface of the compression garment, wherein the sensor device is arranged to sense displacement between the first and second mounting points; and wherein the controller is configured to process information representative of the sensed displacement to estimate a pressure exerted by the compression garment on a wearer of the compression garment.