mhurhangee/ep-ind-claims huggingface dataset:
An assay device comprising: a liquid sample zone; a reagent zone downstream and in fluid communication with the sample zone containing a reagent material; a detection zone in fluid communication with the reagent zone; and a wicking zone in fluid communication with the detection zone having a capacity to receive liquid sample flowing from the detection zone, wherein the wicking zone comprises a substrate and a set of projections which extend substantially vertically from the substrate, wherein the projections have a height, cross-section and a distance between one another that defines a capillary space between the projections capable of generating capillary flow parallel to the substrate surface, and wherein the projections are arranged in a row by row configuration and the gap between the rows of pillars is greater than the gap between pillars within a row. a liquid sample zone; a reagent zone downstream and in fluid communication with the sample zone containing a reagent material; a detection zone in fluid communication with the reagent zone; and a wicking zone in fluid communication with the detection zone having a capacity to receive liquid sample flowing from the detection zone, wherein the wicking zone comprises a substrate and a set of projections which extend substantially vertically from the substrate, wherein the projections have a height, cross-section and a distance between one another that defines a capillary space between the projections capable of generating capillary flow parallel to the substrate surface, and wherein the projections are arranged in a row by row configuration and the gap between the rows of pillars is greater than the gap between pillars within a row.
An electrolytic sulphuric acid bath comprising: - a sulphuric acid solution, - a source of Sn ions, - an anode comprising the target tin to be refined, - a cathode, - gelatine, and - a compound of general formula wherein n is 1 or 2, each R independently stands for halogen, alkyl, cycloalkyl, aryl, aralkyl, hydroxyl, alkoxy, allyloxy, carboxyl, or carboalkoxy group; and wherein a and b are independently selected from an integer of from 0 to 3, and adjacent Rs may be combined to form a ring. - a sulphuric acid solution, - a source of Sn ions, - an anode comprising the target tin to be refined, - a cathode, - gelatine, and - a compound of general formula wherein n is 1 or 2, each R independently stands for halogen, alkyl, cycloalkyl, aryl, aralkyl, hydroxyl, alkoxy, allyloxy, carboxyl, or carboalkoxy group; and wherein a and b are independently selected from an integer of from 0 to 3, and adjacent Rs may be combined to form a ring. n is 1 or 2, each R independently stands for halogen, alkyl, cycloalkyl, aryl, aralkyl, hydroxyl, alkoxy, allyloxy, carboxyl, or carboalkoxy group; and wherein a and b are independently selected from an integer of from 0 to 3, and adjacent Rs may be combined to form a ring.
Wall-concealed housing for sanitary installation elements, with a side wall in which openings for connecting pipes are provided, with a clamping element and with an external bearing flange for a wall cover panel, which can be moved continuously along the side wall and is formed fixable by friction locking to the side wall at any distance from the openings, wherein at least one space is formed between the bearing flange and the side wall, into which the clamping element can be inserted, characterized in that the clamping element projects as a tongue from a second flange which can be moved along the same axis as the bearing flange.
A stable lyophilized formulation of an anti-human PD-1 antibody, made by lyophilizing an aqueous solution comprising: a) 25-100 mg/mL of the anti-human PD-1 antibody; b) 70 mg/mL sucrose; c) 0.2 mg/mL polysorbate 80; and d) 10 mM Histidine buffer at pH 5.0 - pH 6.0, and wherein the antibody, comprises: light chain comprising amino acid residues 20 to 237 of SEQ ID NO: 36 and a heavy chain comprising amino acid residues 20 to 466 of SEQ ID NO:31. a) 25-100 mg/mL of the anti-human PD-1 antibody; b) 70 mg/mL sucrose; c) 0.2 mg/mL polysorbate 80; and d) 10 mM Histidine buffer at pH 5.0 - pH 6.0, and light chain comprising amino acid residues 20 to 237 of SEQ ID NO: 36 and a heavy chain comprising amino acid residues 20 to 466 of SEQ ID NO:31.
A flow meter, comprising: a coupler adapted to couple to a drip chamber; a support member operatively coupled to the coupler; a first image sensor having a first field of view and operatively coupled to the support member, wherein the first image sensor is positioned to view the drip chamber within the first field of view; and a valve in fluid communication with the drip chamber; characterized in that the flow meter comprises a background pattern having an array of lines positioned within the field of view of the first image sensor wherein the drip chamber is between the first image sensor and the background pattern; and at least one processor operatively coupled to the first image sensor, wherein the at least one processor is configured to: receive a first image data from the first image sensor, and provide a background image (89, 93); and determine that a free flow condition exists by: comparing the background image (89, 93) with the first image data; and determining that the liquid distorts the array of lines by changing angles. a coupler adapted to couple to a drip chamber; a support member operatively coupled to the coupler; a first image sensor having a first field of view and operatively coupled to the support member, wherein the first image sensor is positioned to view the drip chamber within the first field of view; and a valve in fluid communication with the drip chamber; characterized in that the flow meter comprises a background pattern having an array of lines positioned within the field of view of the first image sensor wherein the drip chamber is between the first image sensor and the background pattern; and at least one processor operatively coupled to the first image sensor, wherein the at least one processor is configured to: receive a first image data from the first image sensor, and provide a background image (89, 93); and determine that a free flow condition exists by: comparing the background image (89, 93) with the first image data; and determining that the liquid distorts the array of lines by changing angles. receive a first image data from the first image sensor, and provide a background image (89, 93); and determine that a free flow condition exists by: comparing the background image (89, 93) with the first image data; and determining that the liquid distorts the array of lines by changing angles. comparing the background image (89, 93) with the first image data; and determining that the liquid distorts the array of lines by changing angles.
A method for estimating of parameters of a single signal or mixed-frequency signals in a given band, the method comprising the following steps: - receiving a single signal or mixture of signals y(t) in a given frequency band; - determining for L, strictly positive real number taken in a set of q, q strictly positive, predetermined values {L 1;...; L q} of the function of spectral correlation defined hereinbelow: L SCF y f α ≜ F τ R y L τ α f L where R y L τ α = 1 N ∑ n = 0 N y L n y ∗ L n − τ e − j 2 ⁢ παn is the cyclic autocorrelation function of elevation to the power L of the sampled version y(n) of the signal y(t) and where Fτ[.] is the Fourier transform and where, for each q, α can independently assume one or more discrete values and/or pass through one or more ranges of values; - processing each transformation LSCFy(f,α) L being taken in a set of q, q strictly positive, predetermined values {L 1;...; L q} to extract therefrom a set of peaks p i, that is, local maxima detected according to the variables f and α or according to the sole variable f for each discrete value of a, each of these peaks being characterized by a triplet {LAp i, LFp i, Lαp i} where LFp i and Lαp i are respectively the frequency and the cyclic frequency at which it is located and LAp i its amplitude; - identifying groups of triplets {LAp i, LFp i, Lαp i} as being the signature left by a set of parameters constituting signals present in the given frequency band. - receiving a single signal or mixture of signals y(t) in a given frequency band; - determining for L, strictly positive real number taken in a set of q, q strictly positive, predetermined values {L 1;...; L q} of the function of spectral correlation defined hereinbelow: L SCF y f α ≜ F τ R y L τ α f L where R y L τ α = 1 N ∑ n = 0 N y L n y ∗ L n − τ e − j 2 ⁢ παn is the cyclic autocorrelation function of elevation to the power L of the sampled version y(n) of the signal y(t) and where Fτ[.] is the Fourier transform and where, for each q, α can independently assume one or more discrete values and/or pass through one or more ranges of values; - processing each transformation LSCFy(f,α) L being taken in a set of q, q strictly positive, predetermined values {L 1;...; L q} to extract therefrom a set of peaks p i, that is, local maxima detected according to the variables f and α or according to the sole variable f for each discrete value of a, each of these peaks being characterized by a triplet {LAp i, LFp i, Lαp i} where LFp i and Lαp i are respectively the frequency and the cyclic frequency at which it is located and LAp i its amplitude; - identifying groups of triplets {LAp i, LFp i, Lαp i} as being the signature left by a set of parameters constituting signals present in the given frequency band.
A pressing operation detection device including a touch detection unit configured for detecting a touch on an operation unit by a user and a pressing amount detection unit configured for detecting a pressing amount of pressing performed by the user on the operation unit, the pressing operation detection device further comprising: a pressing operation determination unit configured to determine whether a pressing operation has been performed on the operation unit based on a result of a determination as to whether the touch detection unit detects the touch and a result of a determination as to whether the pressing amount detected by the pressing amount detection unit reaches a pressing amount threshold value; an increase-and-decrease frequency detection unit configured to detect occurrence frequency of increase and decrease of a pressing amount detected by the pressing amount detection unit every predetermined period of time; and a determination controller configured to determine whether the occurrence frequency of increase and decrease of a pressing amount detected by the increase-and-decrease frequency detection unit is larger than a frequency threshold value every predetermined period of time in a state in which the touch detection unit does not detect a touch on the operation unit, and to change the pressing amount threshold value used for the determination performed by the pressing operation determination unit in accordance with a result of the determination. a pressing operation determination unit configured to determine whether a pressing operation has been performed on the operation unit based on a result of a determination as to whether the touch detection unit detects the touch and a result of a determination as to whether the pressing amount detected by the pressing amount detection unit reaches a pressing amount threshold value; an increase-and-decrease frequency detection unit configured to detect occurrence frequency of increase and decrease of a pressing amount detected by the pressing amount detection unit every predetermined period of time; and a determination controller configured to determine whether the occurrence frequency of increase and decrease of a pressing amount detected by the increase-and-decrease frequency detection unit is larger than a frequency threshold value every predetermined period of time in a state in which the touch detection unit does not detect a touch on the operation unit, and to change the pressing amount threshold value used for the determination performed by the pressing operation determination unit in accordance with a result of the determination.
A cyclone separator arrangement, comprising - a preceding apparatus having an outlet, and - a cyclone separator having an inlet, the arrangement further comprising - a crossover duct connected to the outlet and the inlet for supplying gas flow comprising particles from the preceding apparatus to the cyclone separator, wherein - the crossover duct creates a flow channel from the outlet to the inlet, the horizontal cross-section of the preceding apparatus has a round shape having a horizontal inner diameter, and wherein - the width (d) is a dimension of the flow channel in a horizontal plane crossing the centre of gravity of a flow-through area of the flow channel at the outlet of the preceding apparatus, wherein - the inner diameter is a width of the preceding apparatus in a horizontal plane crossing the centre of gravity of a flow-through area of the preceding apparatus and being parallel to the width (d) of the flow channel, and that - the flow channel is arranged asymmetrically in a horizontal cross-section of the preceding apparatus, characterized in that - the flow channel having a cross-section having a height and a width (d), said width (d) relating to the inner diameter such that 0.15 x D < d < 0.6 x D, in that - the crossover duct is arranged to the round preceding apparatus so that a distal wall of the crossover duct is tangentially directed in respect of the preceding apparatus, and in that - a relation of the height of the crossover duct to the width (d) thereof is H/d < 3.75 at the outlet. - a preceding apparatus having an outlet, and - a cyclone separator having an inlet, the arrangement further comprising - a crossover duct connected to the outlet and the inlet for supplying gas flow comprising particles from the preceding apparatus to the cyclone separator, wherein - the crossover duct creates a flow channel from the outlet to the inlet, the horizontal cross-section of the preceding apparatus has a round shape having a horizontal inner diameter, and wherein - the width (d) is a dimension of the flow channel in a horizontal plane crossing the centre of gravity of a flow-through area of the flow channel at the outlet of the preceding apparatus, wherein - the inner diameter is a width of the preceding apparatus in a horizontal plane crossing the centre of gravity of a flow-through area of the preceding apparatus and being parallel to the width (d) of the flow channel, and that - the flow channel is arranged asymmetrically in a horizontal cross-section of the preceding apparatus, characterized in that - the flow channel having a cross-section having a height and a width (d), said width (d) relating to the inner diameter such that 0.15 x D < d < 0.6 x D, in that - the crossover duct is arranged to the round preceding apparatus so that a distal wall of the crossover duct is tangentially directed in respect of the preceding apparatus, and in that - a relation of the height of the crossover duct to the width (d) thereof is H/d < 3.75 at the outlet.
A system comprising: a distributed broadcast network comprising a plurality of nodes organized into a binary tree structure where the connections between nodes represent communication paths over a communications network, said network further organized to include three types ofnodes, designated: T0, T1 and T2; the T0 nodes having a single parent node that feeds the T0 node with one or more data streams, the T0 node being incapable of supporting any child nodes that receive data from the T0 node; the T1 nodes having a single parent node that feeds the T1 node with one or more data streams, the T1 node being capable of supporting one child node that receives data from the T1 node; and, the T2 nodes having a single parent node that feeds the T2 node with one or more data streams, the T2 node being capable of supporting two child nodes that receive data from the T2 node, and wherein the system is able to form and maintain linear chains of the nodes, the linear chains comprising at least one T1 node. a distributed broadcast network comprising a plurality of nodes organized into a binary tree structure where the connections between nodes represent communication paths over a communications network, said network further organized to include three types ofnodes, designated: T0, T1 and T2; the T0 nodes having a single parent node that feeds the T0 node with one or more data streams, the T0 node being incapable of supporting any child nodes that receive data from the T0 node; the T1 nodes having a single parent node that feeds the T1 node with one or more data streams, the T1 node being capable of supporting one child node that receives data from the T1 node; and, the T2 nodes having a single parent node that feeds the T2 node with one or more data streams, the T2 node being capable of supporting two child nodes that receive data from the T2 node, and
A fuel cell system comprising: a hydrogen generator configured to reform material gas and generates hydrogen-containing gas; a material supplying unit configured to supply the material gas to the hydrogen generator; a fuel cell configured to generate electricity by using hydrogen-containing gas discharged from the hydrogen generator and oxidant gas; a combustor configured to heat the hydrogen generator; a fuel gas channel through which fuel gas discharged from the hydrogen generator is supplied to the combustor via the fuel cell; an ignition device configured to perform ignition at the combustor; a combustion detector configured to detect combustion of the combustor; a temperature detector configured to detect a temperature of the hydrogen generator; and a controller, characterized in that, at a predetermined time after operation stops of the hydrogen generator and the fuel cell, the controller is configured to control the material supplying unit such that the material gas is supplied to at least the hydrogen generator, and control the ignition device such that ignition is performed at the combustor, wherein the predetermined time is a time when the temperature of the hydrogen generator decreases to a temperature lower than a predetermined temperature, the predetermined temperature is close to ambient temperature. a hydrogen generator configured to reform material gas and generates hydrogen-containing gas; a material supplying unit configured to supply the material gas to the hydrogen generator; a fuel cell configured to generate electricity by using hydrogen-containing gas discharged from the hydrogen generator and oxidant gas; a combustor configured to heat the hydrogen generator; a fuel gas channel through which fuel gas discharged from the hydrogen generator is supplied to the combustor via the fuel cell; an ignition device configured to perform ignition at the combustor; a combustion detector configured to detect combustion of the combustor; a temperature detector configured to detect a temperature of the hydrogen generator; and a controller, characterized in that, at a predetermined time after operation stops of the hydrogen generator and the fuel cell, the controller is configured to control the material supplying unit such that the material gas is supplied to at least the hydrogen generator, and control the ignition device such that ignition is performed at the combustor, wherein the predetermined time is a time when the temperature of the hydrogen generator decreases to a temperature lower than a predetermined temperature, the predetermined temperature is close to ambient temperature.
A steering interface for a cart (110, 310) including a drive control system, comprising: at least one grasping portion (302, 304) configured to be grasped so as to move the cart (110, 310); at least one sensor (320, 322) disposed at a location of the at least one grasping portion (302, 304), the at least one sensor (320, 322) positioned to sense turning, fore, and aft forces exerted by a user on the at least one grasping portion (302, 304) to move the cart (110, 310); and a coupling mechanism for removably coupling the steering interface with the cart (110, 310); wherein the at least one sensor (320, 322) is configured to be placed in signal communication with the drive control system of the cart (110, 310) when the steering interface is in a coupled state with the cart (110, 310). at least one grasping portion (302, 304) configured to be grasped so as to move the cart (110, 310); at least one sensor (320, 322) disposed at a location of the at least one grasping portion (302, 304), the at least one sensor (320, 322) positioned to sense turning, fore, and aft forces exerted by a user on the at least one grasping portion (302, 304) to move the cart (110, 310); and a coupling mechanism for removably coupling the steering interface with the cart (110, 310); wherein the at least one sensor (320, 322) is configured to be placed in signal communication with the drive control system of the cart (110, 310) when the steering interface is in a coupled state with the cart (110, 310).
Method in a Multi-Standard Radio, MSR, network node for network operation, the network comprising the MSR network node and at least another network node and wherein the MSR network node is capable of handling multiple Radio Access Technologies, RATs, and includes common radio frequency components for all supported RATs, the common radio frequency components including a power amplifier and/or a radio frequency filter, the method comprising: - generating a message comprising an MSR network node identifier identifying the MSR network node, MSR network node configuration data, MSR network node capability information relating at least in part to RATs supported by the MSR network node and information about configured sub-blocks of frequency or spectrum in a non-contiguous MSR network node, wherein the MSR network node configuration data indicates that the MSR network node supports non-contiguous multi-carrier operation and the information about the configured sub-blocks of frequency or spectrum comprises at least: the location of each sub-block of frequency in frequency domain; a size of each sub-block; number of carriers in each sub-block; and types of RATs for each carrier in each sub-block; and, - sending the generated message to the at least another network node for use in network operation. - generating a message comprising an MSR network node identifier identifying the MSR network node, MSR network node configuration data, MSR network node capability information relating at least in part to RATs supported by the MSR network node and information about configured sub-blocks of frequency or spectrum in a non-contiguous MSR network node, wherein the MSR network node configuration data indicates that the MSR network node supports non-contiguous multi-carrier operation and the information about the configured sub-blocks of frequency or spectrum comprises at least: the location of each sub-block of frequency in frequency domain; a size of each sub-block; number of carriers in each sub-block; and types of RATs for each carrier in each sub-block; and, - sending the generated message to the at least another network node for use in network operation.