mhurhangee/patent-ind-claim-en huggingface dataset:
An additive composition for polymer comprising components A, B and C, wherein it comprises: a component A: 80wt% - 99.99wt% of dialkyl phosphinates with structures shown as Formula (I): wherein, R1 and R2 are the same or different, representing ethyl, propyl and/or butyl; M is Mg, Ca, Al, Zn or Fe; m is 2 or 3; a component B: up to 20wt% of components with structures shown as Formula (II): wherein, R3 represents ethyl, propyl and/or butyl; M is Mg, Ca, Al, Zn or Fe; m is 2 or 3; and a component C: up to 0.9wt% of phosphites with structures shown as Formula (III): wherein, M is Mg, Ca, Al, Zn or Fe; m is 2 or 3; and a total sum of the components A, B and C is always 100wt%. a component A: 80wt% - 99.99wt% of dialkyl phosphinates with structures shown as Formula (I): wherein, R1 and R2 are the same or different, representing ethyl, propyl and/or butyl; M is Mg, Ca, Al, Zn or Fe; m is 2 or 3; a component B: up to 20wt% of components with structures shown as Formula (II): wherein, R3 represents ethyl, propyl and/or butyl; M is Mg, Ca, Al, Zn or Fe; m is 2 or 3; and a component C: up to 0.9wt% of phosphites with structures shown as Formula (III): wherein, M is Mg, Ca, Al, Zn or Fe; m is 2 or 3; and a total sum of the components A, B and C is always 100wt%.
A nonaqueous electrolyte secondary battery comprising: a positive electrode; a negative electrode comprising a negative electrode current collector and a negative electrode mixed-material layer disposed on the negative electrode current collector, the negative electrode mixed-material layer comprising a titanium-containing metal oxide and a binder, the titanium-containing metal oxide having lithium ions inserted into and extracted from, the binder comprising an acrylic resin, and the negative electrode satisfying equation (I); and a nonaqueous electrolyte: α / β > 1.36 × 10 − 2 where "α" represents a peel strength (N/m) measured as disclosed in the description between the negative electrode current collector and the negative electrode mixed-material layer, and "β" represents a cutting strength (N/m) as measured according to a surface and interfacial cutting method in the negative electrode mixed-material layer, as measured according the description. a positive electrode; a negative electrode comprising a negative electrode current collector and a negative electrode mixed-material layer disposed on the negative electrode current collector, the negative electrode mixed-material layer comprising a titanium-containing metal oxide and a binder, the titanium-containing metal oxide having lithium ions inserted into and extracted from, the binder comprising an acrylic resin, and the negative electrode satisfying equation (I); and a nonaqueous electrolyte: α / β > 1.36 × 10 − 2 where "α" represents a peel strength (N/m) measured as disclosed in the description between the negative electrode current collector and the negative electrode mixed-material layer, and "β" represents a cutting strength (N/m) as measured according to a surface and interfacial cutting method in the negative electrode mixed-material layer, as measured according the description.
Wind deflector assembly intended for use in front of a roof opening of an open roof construction for a vehicle , comprising a wind deflector member which extends in a transverse direction of the vehicle and which is movable between a retracted position and an extended position, which wind deflector member is connected to a first end of at least one pivotable wind deflector arm of which an opposite second end is at least pivotally connected to a stationary part , wherein a biasing device engages the wind deflector arm and is urging the wind deflector arm towards the extended position, the biasing device being at least pivotally connected to the stationary part through a pivot , characterized in that the biasing device comprises at least a first and second leg connected to each other at a connection, at least the first leg loading the wind deflector arm towards the extended position and the second leg of the biasing device being attached to the wind deflector arm, the pivot being positioned near the connection between the first and second leg .
A method performed by a User Equipment, in the following also referred to as UE, characterized by : determining whether a beam used by the UE for communications and associated with a reference signal of a cell is affected by an In-Device Coexistence, in the following also referred to as IDC, problem which relates to an IDC interference between communications performed by radio transceivers of the UE ; determining whether to include information associated with the reference signal in a report based on whether the beam associated with the reference signal is affected by the IDC problem ; and transmitting the report to a network node . determining whether a beam used by the UE for communications and associated with a reference signal of a cell is affected by an In-Device Coexistence, in the following also referred to as IDC, problem which relates to an IDC interference between communications performed by radio transceivers of the UE ; determining whether to include information associated with the reference signal in a report based on whether the beam associated with the reference signal is affected by the IDC problem ; and transmitting the report to a network node .
Assembly for a drug delivery device comprising a needle mounting feature , a needle detector , a housing and a movable feature which is movable with respect to the housing between a first position and a second position different from the first position, wherein the needle detector is configured to detect whether a needle is mounted to the needle mounting feature , wherein the assembly is configured such that when a needle is mounted to the needle mounting feature , the movable feature is in the second position and when the needle is not mounted to the needle mounting feature , the movable feature is in the first position, wherein the assembly is configured such that during mounting of the needle to the needle mounting feature , the movable feature is moved from the first position to the second position, and wherein the assembly comprises a cap , characterised in that the cap is configured such that in the first position of the movable feature the cap is securable to the assembly in a first mounting position, and in the second position of the movable feature the cap is securable to the assembly in a second mounting position being different from the first mounting position, wherein in the second position of the movable feature , the movable feature prevents the cap from being secured in the first mounting position.
A composition comprising from about 20 to about 40% by weight R-1132a, from about 30 to about 60% by weight carbon dioxide, from about 1 to about 20% by weight R-23 and from about 1 to about 35% by weight R-125.
A method of making an aluminum alloy product comprising: direct chill casting an aluminum alloy comprising: 0.15-0.50 wt. % Si, 0.35-0.65 wt. % Fe, 0.05-0.30 wt. % Cu, 0.60-1.10 wt. % Mn, 0.80-1.30 wt. % Mg, 0.000-0.080 wt. % Cr, 0.000-0.500 wt. % Zn, 0.000-0.080 wt. % Ti, up to 0.15 wt. % impurities, with the remainder Al, into an ingot; homogenizing the ingot; hot rolling the homogenized ingot to form a hot rolled product; cold rolling the hot rolled product in a first cold rolling step to form a first cold rolled product, wherein the first cold rolling step produces an 60-90 % thickness reduction; prior to a second cold rolling step, recrystallization annealing the first cold rolled product, wherein the recrystallization annealing is at a metal temperature from 290-500 °C for 0.5-4 hrs, cold rolling the first cold rolled product in a second cold rolling step to form a second cold rolled product, wherein the second cold rolling produces an 15-30 % thickness reduction, and stabilization annealing of the second cold rolling product, wherein the stabilization annealing is at a metal temperature from 100-300 °C for 0.5-4 hrs. 0.15-0.50 wt. % Si, 0.35-0.65 wt. % Fe, 0.05-0.30 wt. % Cu, 0.60-1.10 wt. % Mn, 0.80-1.30 wt. % Mg, 0.000-0.080 wt. % Cr, 0.000-0.500 wt. % Zn, 0.000-0.080 wt. % Ti, up to 0.15 wt. % impurities, with the remainder Al, into an ingot; homogenizing the ingot; hot rolling the homogenized ingot to form a hot rolled product; cold rolling the hot rolled product in a first cold rolling step to form a first cold rolled product, wherein the first cold rolling step produces an 60-90 % thickness reduction; prior to a second cold rolling step, recrystallization annealing the first cold rolled product, wherein the recrystallization annealing is at a metal temperature from 290-500 °C for 0.5-4 hrs, cold rolling the first cold rolled product in a second cold rolling step to form a second cold rolled product, wherein the second cold rolling produces an 15-30 % thickness reduction, and stabilization annealing of the second cold rolling product, wherein the stabilization annealing is at a metal temperature from 100-300 °C for 0.5-4 hrs.
A method for a logon procedure in a satellite communication system comprising at least one terminal, a satellite and either a gateway proxy on-board the satellite or a gateway, the method comprising transmitting a logon burst signal from a terminal of the satellite communication system to said gateway proxy on-board the satellite or said gateway, said logon burst signal being a burst signal specifically used during the logon procedure and comprising one or more of a transmit parameter field corresponding to a signal transmit time of said logon burst signal in said terminal or a transmit parameter field corresponding to a signal transmit power level of said logon burst signal in said terminal or a transmit parameter field corresponding to a signal transmit frequency of said logon burst signal in said terminal.
A device for protecting the posterior cruciate ligament in knee prostheses, comprising a substantially elliptical body provided with a recess in its central portion, said recess being provided with rounded edges on at least one side of the recess to allow the passage of the posterior cruciate ligament, characterized in that a central front lip and a lateral front lip of said body are of a thickness and a shape match that are sufficient to avoid dislocation even in the event of rupture of the posterior cruciate ligament, the thickness of said central front lip and of said lateral front lip of said body being at least 11 mm higher than the point of lowest thickness of said body
An Infusion solution composition comprising: one or more amino acids; and glucose, galactose, mannose, fucose, xylose, N-acetylglucosamine, N-acetylgalactosamine and N-acetylneuraminic acid, and a stabilizer,wherein the stabilizer is one or more selected from the group consisting of β-cyclodextrin and aminoguanidine. one or more amino acids; and glucose, galactose, mannose, fucose, xylose, N-acetylglucosamine, N-acetylgalactosamine and N-acetylneuraminic acid, and a stabilizer,wherein the stabilizer is one or more selected from the group consisting of β-cyclodextrin and aminoguanidine.
An LED LAN cable connector capable of high speed data transmission, being configured to be installed at each of both end portions of a cable comprising a first line and a second line for transmitting data, the connector comprising: a main body unit adapted to be connected to the end portion of the cable; a substrate unit that is installed in the main body unit, wherein the substrate unit is provided with: a power source terminal adapted to receive input of external power source; characterized in that the substrate unit further comprises a condenser installed to receive the power source and convert the power source to have a predetermined cycle and amplitude corresponding to the standards for transmitting data at a speed of 100MPs or above, and wherein the substrate unit is configured to be connected to each of the first line and the second line so that the power source can be transmitted to the first line and the second line; and a light emitting unit that is installed in the substrate unit, and that receives the power source from the condenser and emits light. a main body unit adapted to be connected to the end portion of the cable; a substrate unit that is installed in the main body unit, wherein the substrate unit is provided with: a power source terminal adapted to receive input of external power source; characterized in that the substrate unit further comprises a condenser installed to receive the power source and convert the power source to have a predetermined cycle and amplitude corresponding to the standards for transmitting data at a speed of 100MPs or above, and wherein the substrate unit is configured to be connected to each of the first line and the second line so that the power source can be transmitted to the first line and the second line; and a light emitting unit that is installed in the substrate unit, and that receives the power source from the condenser and emits light.
A method, comprising: executing, on a receiver unit , a predetermined routine associated with an operation of an analyte monitoring device ; detecting a predefined alarm condition associated with the analyte monitoring device ; outputting, to a user interface of the receiver unit, a first indication associated with the detected predefined alarm condition during the execution of the predetermined routine ; and outputting, to the user interface of the receiver unit, a second indication associated with the detected predefined alarm condition ; wherein the second indication is output after the completion of the execution of the predetermined routine; the predetermined routine is executed without interruption during the outputting of the first indication; the first indication includes a temporary indicator and, further, the second indication includes a predetermined alarm associated with the detected predefined alarm condition; and the predetermined routine includes one or more processes that interface with the user interface of the receiver unit. executing, on a receiver unit , a predetermined routine associated with an operation of an analyte monitoring device ; detecting a predefined alarm condition associated with the analyte monitoring device ; outputting, to a user interface of the receiver unit, a first indication associated with the detected predefined alarm condition during the execution of the predetermined routine ; and outputting, to the user interface of the receiver unit, a second indication associated with the detected predefined alarm condition ; wherein the second indication is output after the completion of the execution of the predetermined routine; the predetermined routine is executed without interruption during the outputting of the first indication; the first indication includes a temporary indicator and, further, the second indication includes a predetermined alarm associated with the detected predefined alarm condition; and the predetermined routine includes one or more processes that interface with the user interface of the receiver unit. the second indication is output after the completion of the execution of the predetermined routine; the predetermined routine is executed without interruption during the outputting of the first indication; the first indication includes a temporary indicator and, further, the second indication includes a predetermined alarm associated with the detected predefined alarm condition; and the predetermined routine includes one or more processes that interface with the user interface of the receiver unit.
A vibrating densitometer comprising: a vibrating tube portion ; a housing ; and a spool body , with the spool body comprising: a driver configured to vibrate the vibrating tube portion with respect to the housing ; at least one vibration sensor configured to detect vibrations of the vibrating tube portion ; characterized in that the spool body further comprises: a core ; a plurality of spines emanating distally from the core ; at least one channel defined by the plurality of spines ; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core . a vibrating tube portion ; a housing ; and a spool body , with the spool body comprising: a driver configured to vibrate the vibrating tube portion with respect to the housing ; at least one vibration sensor configured to detect vibrations of the vibrating tube portion ; characterized in that the spool body further comprises: a core ; a plurality of spines emanating distally from the core ; at least one channel defined by the plurality of spines ; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core . a driver configured to vibrate the vibrating tube portion with respect to the housing ; at least one vibration sensor configured to detect vibrations of the vibrating tube portion ; characterized in that the spool body further comprises: a core ; a plurality of spines emanating distally from the core ; at least one channel defined by the plurality of spines ; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core . a core ; a plurality of spines emanating distally from the core ; at least one channel defined by the plurality of spines ; and wherein the at least one channel comprises a filler material therein wherein the plurality of spines and the at least one channel are disposed radially or circumferentially about a longitudinal axis of the core .
A build material management system for a 3D printing system, the build material management system comprising: a housing comprising: one or more air-flow ports to connect to one or more respective transportable containers, the transportable containers to contain a volume of build material comprising 3D printed parts and a portion of non-fused build material; and a pump operable to provide a pressure differential across a conduit network of the build material management system, the conduit network connecting the air-flow port(s) to the pump; and processing circuitry to control the pump to cause an air-flow through at least one of the one or more air-flow ports whereby to cause cooling within the respective transportable container(s). wherein either: the one or more air-flow ports is at least two air-flow ports connectable to respective transportable containers; or the housing does not comprise a filling port for filling the or a further transportable container with at least a portion of fresh build material for use in a subsequent 3D printing operation. a housing comprising: one or more air-flow ports to connect to one or more respective transportable containers, the transportable containers to contain a volume of build material comprising 3D printed parts and a portion of non-fused build material; and a pump operable to provide a pressure differential across a conduit network of the build material management system, the conduit network connecting the air-flow port(s) to the pump; and one or more air-flow ports to connect to one or more respective transportable containers, the transportable containers to contain a volume of build material comprising 3D printed parts and a portion of non-fused build material; and a pump operable to provide a pressure differential across a conduit network of the build material management system, the conduit network connecting the air-flow port(s) to the pump; and processing circuitry to control the pump to cause an air-flow through at least one of the one or more air-flow ports whereby to cause cooling within the respective transportable container(s). wherein either: the one or more air-flow ports is at least two air-flow ports connectable to respective transportable containers; or the housing does not comprise a filling port for filling the or a further transportable container with at least a portion of fresh build material for use in a subsequent 3D printing operation. the one or more air-flow ports is at least two air-flow ports connectable to respective transportable containers; or the housing does not comprise a filling port for filling the or a further transportable container with at least a portion of fresh build material for use in a subsequent 3D printing operation.
A computer-implemented method to determine a water equivalent diameter of an exposed subject, the method comprising: receiving image data comprising one or more scout images of the exposed subject from an image acquisition device; identifying, using a processor , objects in the one or more scout images; segmenting, using a processor, the exposed subject in the one or more scout images; determining pixels corresponding to air by comparing each pixel to the air threshold value in the one or more scout images; determining pixels corresponding to each object identified in the one or more scout images and finding a contour of the subject; removing attenuation due to air inside the subject contour in the one or more scout images; isolating subject attenuation parameters in the one or more scout images; computing , using the processor, the water equivalent diameter of the exposed subject in the one or more scout images. receiving image data comprising one or more scout images of the exposed subject from an image acquisition device; identifying, using a processor , objects in the one or more scout images; segmenting, using a processor, the exposed subject in the one or more scout images; determining pixels corresponding to air by comparing each pixel to the air threshold value in the one or more scout images; determining pixels corresponding to each object identified in the one or more scout images and finding a contour of the subject; removing attenuation due to air inside the subject contour in the one or more scout images; isolating subject attenuation parameters in the one or more scout images; computing , using the processor, the water equivalent diameter of the exposed subject in the one or more scout images.