mhurhangee/ep-ind-claims huggingface dataset:
A nuclear magnetic resonance [="NMR"] magnet system comprising: a housing with a neck tube; a helium vessel located in the housing and containing a magnet coil immersed in liquid helium; a cold shield surrounding the helium vessel; and a Stirling cooler attached to the neck tube such that a cold head of the cooler extends into the housing and is thermally connected to the cold shield via a thermal coupling, characterized by an NMR probe that is inserted into a room temperature bore of the NMR magnet system, the probe being configured to provide an RF excitation signal to a sample in the room temperature bore and to detect a free induction decay [="FID"] signal from said sample in response to the RF excitation signal, wherein mechanical vibrations transmitted from the Stirling cooler induce a distortion in either or both of said excitation signal and FID signal; and a compensation apparatus configured using a representation of said distortion, to apply compensation to the excitation signal and/or FID signal that counteracts said distortion, wherein the compensation apparatus comprises a data storage element in which is stored said representation of said distortion. a housing with a neck tube; a helium vessel located in the housing and containing a magnet coil immersed in liquid helium; a cold shield surrounding the helium vessel; and a Stirling cooler attached to the neck tube such that a cold head of the cooler extends into the housing and is thermally connected to the cold shield via a thermal coupling, an NMR probe that is inserted into a room temperature bore of the NMR magnet system, the probe being configured to provide an RF excitation signal to a sample in the room temperature bore and to detect a free induction decay [="FID"] signal from said sample in response to the RF excitation signal, wherein mechanical vibrations transmitted from the Stirling cooler induce a distortion in either or both of said excitation signal and FID signal; and a compensation apparatus configured using a representation of said distortion, to apply compensation to the excitation signal and/or FID signal that counteracts said distortion, wherein the compensation apparatus comprises a data storage element in which is stored said representation of said distortion.
A sanding head with a sanding disc, wherein the sanding head is adaptable to an orbital grinder, having a plate provided on its rear face with an end incorporating an inner threaded area into which it screws and is fixed to the shaft of the machine, said plate has on its front face, opposite to that through which it is fixed to the grinder, a peripheral discoid surface forming the contact mechanical attachment means for a sanding disk having on its rear face, opposite the machine, contact mechanical attachment means similar to those existing in the head, both of them formed by a Velcro-type hook and loop system; characterized in that said plate likewise has, in the center of said front face, an axial protrusion located in a sunken area towards the rear face, which is provided with the mechanical attachment means; whereas the sanding disc presents a central hole and a recessed area towards the rear face opposite the plate, which in the coupling with the plate is located inside a sunken central area existing in said plate, the coupling between the axial protrusion of the plate and the central hole of the sanding disk being performed in a plane located at the rear part, towards the machine, of the work plane or active area of the sanding disk.
A method performed by a radio access network control node operating in a communication network (20, 20', 520, 570) having an associated user device (30, 510, 560), wherein the user device has an ongoing application service session with an application server (40, 515, 565) via the communication network, wherein the application service session comprises a frame structure according to which a predetermined plurality of packets is transmitted within each frame, the method comprising: detecting (110, 530, 580) that a trigger condition is met for the user device, the trigger condition indicating an upcoming communication interruption (140, 400, 538, 587) in relation to the application service session; and causing implementation of a temporary transmission rate adjustment of the application service session, wherein implementation of the temporary transmission rate adjustment is characterized by increasing an in-frame packet rate, and wherein the temporary transmission rate adjustment provides a radio access channel margin (440c, 440d) accommodating the upcoming communication interruption before a subsequent frame. detecting (110, 530, 580) that a trigger condition is met for the user device, the trigger condition indicating an upcoming communication interruption (140, 400, 538, 587) in relation to the application service session; and causing implementation of a temporary transmission rate adjustment of the application service session, wherein implementation of the temporary transmission rate adjustment is characterized by increasing an in-frame packet rate, and wherein the temporary transmission rate adjustment provides a radio access channel margin (440c, 440d) accommodating the upcoming communication interruption before a subsequent frame.
A reaction analysis device that specifies a reaction state of a reaction fluid flowing through a flow reactor, the reaction analysis device comprising: a processor configured to specify the reaction state of the reaction fluid based on a reaction parameter indicating the reaction state of the reaction fluid which is obtained from a temperature distribution of the reaction fluid immediately after a reaction starts in a flow direction of the reaction fluid, characterized in that the processor is configured to acquire the reaction parameter in which a difference between an actual measurement result obtained by measuring a temperature of the reaction fluid and an estimated temperature distribution obtained by estimating the temperature distribution of the reaction fluid immediately after the reaction starts is within a predetermined value, and the processor is configured to specify the reaction state of the reaction fluid based on the acquired reaction parameter, the estimated temperature distribution is obtained by a governing equation for estimating the temperature distribution of the reaction fluid immediately after the reaction starts, and the governing equation has a first reaction parameter relevant to a peak value of the temperature distribution of the reaction fluid immediately after the reaction starts and a second reaction parameter relevant to a peak position of the temperature distribution of the reaction fluid immediately after the reaction starts. a processor configured to specify the reaction state of the reaction fluid based on a reaction parameter indicating the reaction state of the reaction fluid which is obtained from a temperature distribution of the reaction fluid immediately after a reaction starts in a flow direction of the reaction fluid, characterized in that the processor is configured to acquire the reaction parameter in which a difference between an actual measurement result obtained by measuring a temperature of the reaction fluid and an estimated temperature distribution obtained by estimating the temperature distribution of the reaction fluid immediately after the reaction starts is within a predetermined value, and the processor is configured to specify the reaction state of the reaction fluid based on the acquired reaction parameter, the estimated temperature distribution is obtained by a governing equation for estimating the temperature distribution of the reaction fluid immediately after the reaction starts, and the governing equation has a first reaction parameter relevant to a peak value of the temperature distribution of the reaction fluid immediately after the reaction starts and a second reaction parameter relevant to a peak position of the temperature distribution of the reaction fluid immediately after the reaction starts.
A lithium ion battery, comprising a negative electrode sheet and a positive electrode sheet, wherein the positive electrode sheet includes a positive current collector and a positive electrode film provided on at least one surface of the positive current collector and comprising a positive active material, wherein the positive active material comprises one or more selected from lithium nickel cobalt manganese oxide, olivine-type lithium-containing phosphates; the negative electrode sheet comprises: a negative current collector and a negative electrode film provided on at least one surface of the negative current collector and comprising a negative active material, wherein the negative electrode film satisfies: 8≤P×[(30-Dv50)/2+2×(10-M)]≤12; wherein, P represents a porosity of the negative electrode film; Dv50 represents a volume median particle diameter of the negative active material, and a unit is μm; M represents a capacity per unit area of the negative electrode film, and a unit is mAh/cm 2; and wherein the capacity M per unit area of the negative electrode film is 0.5mAh/cm 2 ~7.0mAh/cm 2, characterized in that the negative electrode active material comprises graphite and in that a cohesive force F between the negative electrode film and the negative current collector and the capacity M per unit area of the negative electrode film satisfy: M/3≤F≤6M, wherein a unit of F is N/m. the positive electrode sheet includes a positive current collector and a positive electrode film provided on at least one surface of the positive current collector and comprising a positive active material, wherein the positive active material comprises one or more selected from lithium nickel cobalt manganese oxide, olivine-type lithium-containing phosphates; the negative electrode sheet comprises: a negative current collector and a negative electrode film provided on at least one surface of the negative current collector and comprising a negative active material, wherein the negative electrode film satisfies: 8≤P×[(30-Dv50)/2+2×(10-M)]≤12; wherein, P represents a porosity of the negative electrode film; Dv50 represents a volume median particle diameter of the negative active material, and a unit is μm; M represents a capacity per unit area of the negative electrode film, and a unit is mAh/cm 2; and wherein the capacity M per unit area of the negative electrode film is 0.5mAh/cm 2 ~7.0mAh/cm 2, a negative current collector and a negative electrode film provided on at least one surface of the negative current collector and comprising a negative active material, wherein the negative electrode film satisfies: 8≤P×[(30-Dv50)/2+2×(10-M)]≤12; wherein, P represents a porosity of the negative electrode film; Dv50 represents a volume median particle diameter of the negative active material, and a unit is μm; M represents a capacity per unit area of the negative electrode film, and a unit is mAh/cm 2; and wherein the capacity M per unit area of the negative electrode film is 0.5mAh/cm 2 ~7.0mAh/cm 2,
A load-driving circuit for receiving the supply of power from a power source to drive a load, the load-driving circuit comprising: a high-side switching element, connected to a positive electrode side of the power source, for outputting a high-side driving current; a low-side switching element, connected to a negative electrode side of the power source, for outputting a low-side driving current; a high-side current detection circuit, connected in parallel to the high-side switching element, for detecting the high-side driving current; and a fault detection circuit for detecting a fault state of the load-driving circuit from an output result (IsH) of the high-side current detection circuit, wherein the high-side current detection circuit includes a high-side sense switching element (5H1), including a device of the same type as the high-side switching element, for operating on a gate signal (INH_S) different from that of the high-side switching element, and when a connection terminal between the load-driving circuit and the load is short-circuited to the positive electrode side of the power source, or short-circuited to the negative electrode side of the power source, the fault detection circuit detects the fault states distinguishing them, with the output result (IsH) of the high-side current detection circuit, the gate signal (INH_M) of the high-side switching element, and the gate signal (INH_S) of the high-side sense switching element (5H1) as inputs. a high-side switching element, connected to a positive electrode side of the power source, for outputting a high-side driving current; a low-side switching element, connected to a negative electrode side of the power source, for outputting a low-side driving current; a high-side current detection circuit, connected in parallel to the high-side switching element, for detecting the high-side driving current; and a fault detection circuit for detecting a fault state of the load-driving circuit from an output result (IsH) of the high-side current detection circuit, wherein the high-side current detection circuit includes a high-side sense switching element (5H1), including a device of the same type as the high-side switching element, for operating on a gate signal (INH_S) different from that of the high-side switching element, and when a connection terminal between the load-driving circuit and the load is short-circuited to the positive electrode side of the power source, or short-circuited to the negative electrode side of the power source, the fault detection circuit detects the fault states distinguishing them, with the output result (IsH) of the high-side current detection circuit, the gate signal (INH_M) of the high-side switching element, and the gate signal (INH_S) of the high-side sense switching element (5H1) as inputs.
A process for the gravity bending of a glass sheet on a support comprising a chassis, a first frame and a second frame, the second frame being of articulated type and comprising a mobile lateral part (103,104) that passes from an open position to a closed position by means of an articulation in the course of the bending procedure, the bending of the sheet beginning on the first frame while the second frame is in the open position, and finishing on the second frame in the closed position, the sheet passing from the first frame to the second frame during the bending procedure as a result of the relative vertical movement of the first and second frame and of the raising of the mobile part of the second frame, characterized in that the contact area of the first frame with the glass sheet located in a vertical line with the articulation is above the articulation at the instant the latter is closed.
A regenerative filter comprising: a filter housing having inlet and outlet zones; a fluid path provided between the inlet and outlet zones; a plurality of filter elements (31, 72, 73, 74) each having an outer surface filter media applied thereto and functioning to filter particulate or contaminants from the fluid path; whereby said plurality of filter elements are disposed so that adjacent filter elements are arranged in a monolithic array in close relative proximity, but defining a gap therebetween that is less than a width of the filter element; and characterized by an inlet nozzle that is disposed within the filter housing at the inlet zone and that is constructed and arranged so as to direct the fluid path away from the filter element array so as to assist in maintaining a controlled turbulence at the inlet zone, and is provided with a series of slots that are spaced apart and that are disposed along a bottom circumference of the inlet nozzle. a filter housing having inlet and outlet zones; a fluid path provided between the inlet and outlet zones; a plurality of filter elements (31, 72, 73, 74) each having an outer surface filter media applied thereto and functioning to filter particulate or contaminants from the fluid path; whereby said plurality of filter elements are disposed so that adjacent filter elements are arranged in a monolithic array in close relative proximity, but defining a gap therebetween that is less than a width of the filter element; and characterized by an inlet nozzle that is disposed within the filter housing at the inlet zone and that is constructed and arranged so as to direct the fluid path away from the filter element array so as to assist in maintaining a controlled turbulence at the inlet zone, and is provided with a series of slots that are spaced apart and that are disposed along a bottom circumference of the inlet nozzle.
A system comprising: a housing comprising a first wall, wherein the first wall comprises one or more openings, and the housing defines a cavity; a radio module disposed at least partially within the cavity of the housing; and an antenna coupled to the radio module and disposed at least partially within the cavity of the housing, wherein the radio module is configured to transmit or to receive a radio signal in a desired frequency spectrum via the antenna, wherein the one or more openings contribute to the housing having a resonant frequency within the desired frequency spectrum, characterized by an enclosure (58, 60, 62), wherein the housing is mounted in a recess of the enclosure (58, 60, 62) such that the emission face is substantially flush with an external face of the enclosure, and the first wall forms a portion of the housing and of the enclosure (58, 60, 62) and is shared by them. a housing comprising a first wall, wherein the first wall comprises one or more openings, and the housing defines a cavity; a radio module disposed at least partially within the cavity of the housing; and an antenna coupled to the radio module and disposed at least partially within the cavity of the housing, wherein the radio module is configured to transmit or to receive a radio signal in a desired frequency spectrum via the antenna, wherein the one or more openings contribute to the housing having a resonant frequency within the desired frequency spectrum, characterized by an enclosure (58, 60, 62), wherein the housing is mounted in a recess of the enclosure (58, 60, 62) such that the emission face is substantially flush with an external face of the enclosure, and the first wall forms a portion of the housing and of the enclosure (58, 60, 62) and is shared by them.
A composition for use as an internal standard comprising one or more mixtures of lipid molecules comprising one or more lipid molecular species present in one or more corresponding lipid classes in a sample of interest, each mixture of lipid molecules comprising one or more of: a lipid backbone having a single isotopically-labeled fatty acid at a first position on the lipid backbone and having a mixture of at least two different fatty acids at a separate position on the lipid backbone, wherein the lipid backbone is for a lipid class having at least two fatty acids, wherein the lipid class consists of phosphatidylethanolamines or p-phosphatidylethanolamines, wherein the first position is a sn-1 position and the separate position is a sn-2 position, or wherein the first position is a sn-2 position and the separate position is a sn-1 position, wherein deuterium-labeled stearate-d9 (18:0-d9) is present at the first position, and wherein the mixture of fatty acids at the separate position comprises: 9Z-octadecenoyl (18:1n9), 9Z,12Z-octadecadienoyl (18:2n6), 9Z,12Z,15Z-octadecatrienoyl (18:3n3), 8Z,11Z,14Z-eicosatrienoyl (20:3n6), 5Z,8Z,11Z,14Z-eicosatetraenoyl (20:4n6), 5Z,8Z,11Z,14Z,17Z-eicosapentaenoyl (20:5n3), 7Z,10Z,13Z,16Z,19Z-docosapentaenoyl (22:5n3), and 4Z,7Z,10Z,13Z,16Z,19Z-docosahexaenoyl (22:6n3); wherein the mixture of fatty acids is present as follows: 20% 18:1n9, 20% 18:2n6, 5% 18:3n3, 5% 20:3n6, 20% 20:4n6, 5% 20:5n3, 5% 22:5n3, and 20% 22:6n3. a lipid backbone having a single isotopically-labeled fatty acid at a first position on the lipid backbone and having a mixture of at least two different fatty acids at a separate position on the lipid backbone, wherein the lipid backbone is for a lipid class having at least two fatty acids, wherein the lipid class consists of phosphatidylethanolamines or p-phosphatidylethanolamines, wherein the first position is a sn-1 position and the separate position is a sn-2 position, or wherein the first position is a sn-2 position and the separate position is a sn-1 position, wherein deuterium-labeled stearate-d9 (18:0-d9) is present at the first position, and wherein the mixture of fatty acids at the separate position comprises: 9Z-octadecenoyl (18:1n9), 9Z,12Z-octadecadienoyl (18:2n6), 9Z,12Z,15Z-octadecatrienoyl (18:3n3), 8Z,11Z,14Z-eicosatrienoyl (20:3n6), 5Z,8Z,11Z,14Z-eicosatetraenoyl (20:4n6), 5Z,8Z,11Z,14Z,17Z-eicosapentaenoyl (20:5n3), 7Z,10Z,13Z,16Z,19Z-docosapentaenoyl (22:5n3), and 4Z,7Z,10Z,13Z,16Z,19Z-docosahexaenoyl (22:6n3); 9Z-octadecenoyl (18:1n9), 9Z,12Z-octadecadienoyl (18:2n6), 9Z,12Z,15Z-octadecatrienoyl (18:3n3), 8Z,11Z,14Z-eicosatrienoyl (20:3n6), 5Z,8Z,11Z,14Z-eicosatetraenoyl (20:4n6), 5Z,8Z,11Z,14Z,17Z-eicosapentaenoyl (20:5n3), 7Z,10Z,13Z,16Z,19Z-docosapentaenoyl (22:5n3), and 4Z,7Z,10Z,13Z,16Z,19Z-docosahexaenoyl (22:6n3); wherein the mixture of fatty acids is present as follows: 20% 18:1n9, 20% 18:2n6, 5% 18:3n3, 5% 20:3n6, 20% 20:4n6, 5% 20:5n3, 5% 22:5n3, and 20% 22:6n3.