mhurhangee/patent-ind-claim-en huggingface dataset:
A kit for measuring a measurement target substance, the kit comprising: a first particle having a label and modified with a first binding substance capable of specifically binding to a measurement target substance; a second particle having no label and modified with a second binding substance incapable of specifically binding to the measurement target substance; a flow channel for flowing the first particle and the second particle; and a substrate having a third binding substance capable of specifically binding to the measurement target substance or a substance capable of binding to the first binding substance, wherein the first particle having a label is a luminescent labeled particle containing at least one kind of compound represented by Formula and a particle, in Formula , Y 1 and Y 2 each represent a fluorine atom; R 3 represents a hydrogen atom; Ar 3 and Ar 4 each independently represent an aryl group, each of which may have a substituent; R 4 to R 11 each independently represent a hydrogen atom or an aryl group, wherein the aryl groups may have a substituent; and at least one of R 4 , ..., or R 7 represents an aryl group which may have a substituent, and at least one of R 8 , ..., or R 11 represents an aryl group which may have a substituent. a first particle having a label and modified with a first binding substance capable of specifically binding to a measurement target substance; a second particle having no label and modified with a second binding substance incapable of specifically binding to the measurement target substance; a flow channel for flowing the first particle and the second particle; and a substrate having a third binding substance capable of specifically binding to the measurement target substance or a substance capable of binding to the first binding substance, wherein the first particle having a label is a luminescent labeled particle containing at least one kind of compound represented by Formula and a particle, in Formula , Y 1 and Y 2 each represent a fluorine atom; R 3 represents a hydrogen atom; Ar 3 and Ar 4 each independently represent an aryl group, each of which may have a substituent; R 4 to R 11 each independently represent a hydrogen atom or an aryl group, wherein the aryl groups may have a substituent; and
A method of wireless communication of a user equipment (904-1, 904-2), UE, comprising: receiving a control resource set, CORESET, configuration of a first CORESET , the CORESET configuration indicating a reference location of the first CORESET with reference to a reference point in a frequency domain; and determining resources occupied by the first CORESET in the frequency domain of a carrier based on the reference location and the reference point; characterized by performing blind decoding on down link control channel, DCCH, resource candidates in a search space carried by the first CORESET to obtain a DCCH; wherein the reference point is a point at an offset from a predetermined point of a bandwidth part (922-1, 922-2) of the carrier assigned to the UE (904-1, 904-2) in the frequency domain; wherein the predetermined point is a starting point of the bandwidth part (922-1, 922-2), wherein the reference location is indicated by an integer of allocation units away from the reference point, each of the allocation units including N resource blocks, RBs, N being an integer greater than 0; wherein the offset is an integer selected from 0 to (N-1), said integer being the number of RBs of the offset. receiving a control resource set, CORESET, configuration of a first CORESET , the CORESET configuration indicating a reference location of the first CORESET with reference to a reference point in a frequency domain; and determining resources occupied by the first CORESET in the frequency domain of a carrier based on the reference location and the reference point; characterized by performing blind decoding on down link control channel, DCCH, resource candidates in a search space carried by the first CORESET to obtain a DCCH; wherein the reference point is a point at an offset from a predetermined point of a bandwidth part (922-1, 922-2) of the carrier assigned to the UE (904-1, 904-2) in the frequency domain; wherein the predetermined point is a starting point of the bandwidth part (922-1, 922-2), wherein the reference location is indicated by an integer of allocation units away from the reference point, each of the allocation units including N resource blocks, RBs, N being an integer greater than 0; wherein the offset is an integer selected from 0 to (N-1), said integer being the number of RBs of the offset.
A phosphor-enhanced lighting device comprising: - a light source comprising a light emitting surface for emitting source light of a predefined color spectrum, - a light exit window for emitting light into an ambient of the phosphor-enhanced lighting device , - a first light conversion element comprising a inorganic luminescent material, the inorganic luminescent material being configured to absorb a part of the source light and to convert a part of the absorbed light to light of a first color, - a second light conversion element comprising a first organic luminescent material, the first organic luminescent material being configured to absorb a part of the source light and/or to absorb a part of the light of the first color, and the first organic luminescent material being configured to convert a part of the absorbed light to light of a second color, wherein the second light conversion element is optically arranged in between the light exit window and the light emitting surface of the light source , the first light conversion element is optically arranged in between the second light conversion element and the light emitting surface of the light source , and a gap is present between the first light conversion element and the second light conversion element , - wherein the light source is a solid state light emitter, - wherein the second light conversion element has a second refractive index, and a material forming the gap has a first refractive index being smaller than the second refractive index, - wherein the first light conversion element is arranged on the light emitting surface of the light source . - a light source comprising a light emitting surface for emitting source light of a predefined color spectrum, - a light exit window for emitting light into an ambient of the phosphor-enhanced lighting device , - a first light conversion element comprising a inorganic luminescent material, the inorganic luminescent material being configured to absorb a part of the source light and to convert a part of the absorbed light to light of a first color, - a second light conversion element comprising a first organic luminescent material, the first organic luminescent material being configured to absorb a part of the source light and/or to absorb a part of the light of the first color, and the first organic luminescent material being configured to convert a part of the absorbed light to light of a second color, - wherein the light source is a solid state light emitter, - wherein the second light conversion element has a second refractive index, and a material forming the gap has a first refractive index being smaller than the second refractive index, - wherein the first light conversion element is arranged on the light emitting surface of the light source .
A device for continuously conveying and plasticizing cheese curd, in particular for the production of pasta filata cheese, comprising: a) a housing having an elongate chamber with an inlet opening and an outlet opening , b) at least one pair of conveying shafts (4.1, 4.2) which are arranged in the chamber , can be driven in opposite directions and the parallel axes of rotation (18.1, 18.2) of which run in the longitudinal direction with respect to the chamber , c) wherein the conveying shafts each have a shank (8.1, 8.2) with a circular-cylindrical shank section and in each case a helical structure (19.1, 19.2), which is arranged on the circumference of the shank (8.1, 8.2), with one or more helical turns for axially conveying the cheese curd from the inlet opening to the outlet opening , and the helical structures (19.1, 19.2) of the two conveying shafts (4.1, 4.2) engage in one another, d) a drive means for driving the conveying shafts in opposite directions, e) and a heating device (9.1, 17) which can heat at least part of the shank (8.1, 8.2) and at least part of an inner circumferential surface of the chamber , 1. characterized in that f) the conveying shafts (4.1, 4.2) have at least one entraining means (20.1, 20.2) which is configured in such a manner that the cheese curd which is to be conveyed and to be plasticized is at least partially also transported around the two conveying shafts (4.1, 4.2) during operation. a) a housing having an elongate chamber with an inlet opening and an outlet opening , b) at least one pair of conveying shafts (4.1, 4.2) which are arranged in the chamber , can be driven in opposite directions and the parallel axes of rotation (18.1, 18.2) of which run in the longitudinal direction with respect to the chamber , c) wherein the conveying shafts each have a shank (8.1, 8.2) with a circular-cylindrical shank section and in each case a helical structure (19.1, 19.2), which is arranged on the circumference of the shank (8.1, 8.2), with one or more helical turns for axially conveying the cheese curd from the inlet opening to the outlet opening , and the helical structures (19.1, 19.2) of the two conveying shafts (4.1, 4.2) engage in one another, d) a drive means for driving the conveying shafts in opposite directions, e) and a heating device (9.1, 17) which can heat at least part of the shank (8.1, 8.2) and at least part of an inner circumferential surface of the chamber ,
A method, comprising: measuring an amount of liquid produced from a well by a pumping unit during a predetermined time period; determining first areas of first pump cards during the predetermined time period; summing the first areas ; determining a pressure difference across a downhole pump of the pumping unit ; and based on the amount of liquid produced , the summed first areas , and the pressure difference , determining a leakage proportionality constant of the downhole pump of the pumping unit . measuring an amount of liquid produced from a well by a pumping unit during a predetermined time period; determining first areas of first pump cards during the predetermined time period; summing the first areas ; determining a pressure difference across a downhole pump of the pumping unit ; and based on the amount of liquid produced , the summed first areas , and the pressure difference , determining a leakage proportionality constant of the downhole pump of the pumping unit .
Apparatus for load determination for vehicles, in particular for rail vehicles with at least one car body and at least one running gear , wherein at least one air bellows with at least one pressure sensor as well as at least one acceleration sensor are provided, and wherein the at least one pressure sensor and the at least one acceleration sensor are connected to at least one computing unit , in which the load determination takes place, characterised in that the at least one air bellows is exclusively used for the load determination.
A thermosetting resin composition comprising: an epoxy compound having an isocyanuric acid ring represented by the following formula : wherein in the formula , at least one of X, Y and Z is a group containing an epoxy ring, and when X, Y or Z contains no epoxy ring, X, Y or Z containing no epoxy ring is an atom of H, a group composed only of C and H, or a group composed only of C, H and O; a solid lubricant; and a dicyanate compound, or the dicyanate compound and a bismaleimide compound; wherein the solid lubricant is contained in an amount of 10% by weight to 70% by weight in the thermosetting resin composition; a total content amount (L+M) of a content amount (L) of the epoxy compound having the isocyanuric acid ring and a content amount (M) of the dicyanate compound, or a total content amount (L+M+N) of the content amount (L) of the epoxy compound having the isocyanuric acid ring, the content amount (M) of the dicyanate compound, and a content amount (N) of the bismaleimide compound is in a range of 20% by weight to 90% by weight; and a weight ratio (M/L) of the content amount (M) of the dicyanate compound to the content amount (L) of the epoxy compound having the isocyanuric acid ring, or a weight ratio ((M+N)/L) of a total of the content amount (M) of the dicyanate compound and the content amount (N) of the bismaleimide compound to the content amount (L) of the epoxy compound having the isocyanuric acid ring is in a range of 0.65 to 4.00. wherein in the formula , at least one of X, Y and Z is a group containing an epoxy ring, and when X, Y or Z contains no epoxy ring, X, Y or Z containing no epoxy ring is an atom of H, a group composed only of C and H, or a group composed only of C, H and O; a solid lubricant; and a dicyanate compound, or the dicyanate compound and a bismaleimide compound; wherein the solid lubricant is contained in an amount of 10% by weight to 70% by weight in the thermosetting resin composition; a total content amount (L+M) of a content amount (L) of the epoxy compound having the isocyanuric acid ring and a content amount (M) of the dicyanate compound, or a total content amount (L+M+N) of the content amount (L) of the epoxy compound having the isocyanuric acid ring, the content amount (M) of the dicyanate compound, and a content amount (N) of the bismaleimide compound is in a range of 20% by weight to 90% by weight; and a weight ratio (M/L) of the content amount (M) of the dicyanate compound to the content amount (L) of the epoxy compound having the isocyanuric acid ring, or a weight ratio ((M+N)/L) of a total of the content amount (M) of the dicyanate compound and the content amount (N) of the bismaleimide compound to the content amount (L) of the epoxy compound having the isocyanuric acid ring is in a range of 0.65 to 4.00.
An apparatus comprising: a probe having a distal portion and a lumen; an inflatable balloon deployable through the lumen beyond the distal portion, the balloon having a surface wall, a longitudinal axis and latitudes between an equator and a distal pole on the surface wall; a plurality of ablation electrodes arranged circumferentially on the balloon about the longitudinal axis; a first plurality of ultrasound transducers circumferentially distributed on the balloon along a first one of the latitudes and superimposed on a first set of the plurality of ablation electrodes, the first set of electrodes spanning the first one of the latitudes and a second one of the latitudes; a second plurality of ultrasound transducers circumferentially distributed on the balloon along the second one of the latitudes and superimposed on a second set of ablation electrodes of the plurality of ablation electrodes, each of the second set of ablation electrodes spanning the first one of the latitudes and the second one of the latitudes; and wherein the probe is connectable to circuitry configured for powering the ablation electrodes and processing signals from the transducers . a probe having a distal portion and a lumen; an inflatable balloon deployable through the lumen beyond the distal portion, the balloon having a surface wall, a longitudinal axis and latitudes between an equator and a distal pole on the surface wall; a plurality of ablation electrodes arranged circumferentially on the balloon about the longitudinal axis; a first plurality of ultrasound transducers circumferentially distributed on the balloon along a first one of the latitudes and superimposed on a first set of the plurality of ablation electrodes, the first set of electrodes spanning the first one of the latitudes and a second one of the latitudes; a second plurality of ultrasound transducers circumferentially distributed on the balloon along the second one of the latitudes and superimposed on a second set of ablation electrodes of the plurality of ablation electrodes, each of the second set of ablation electrodes spanning the first one of the latitudes and the second one of the latitudes; and wherein the probe is connectable to circuitry configured for powering the ablation electrodes and processing signals from the transducers .
An encoding method for a stereo signal, comprising: determining an inter-channel time difference in a current frame; performing interpolation processing based on the inter-channel time difference in the current frame and an inter-channel time difference in a previous frame of the current frame, to obtain an inter-channel time difference after the interpolation processing in the current frame; performing delay alignment on a stereo signal in the current frame based on the inter-channel time difference in the current frame, to obtain a stereo signal after the delay alignment in the current frame; performing time-domain downmixing processing on the stereo signal after the delay alignment in the current frame, to obtain a primary-channel signal and a secondary-channel signal in the current frame; quantizing the inter-channel time difference after the interpolation processing in the current frame, and writing a quantized inter-channel time difference into a bitstream; and quantizing the primary-channel signal and the secondary-channel signal in the current frame, and writing a quantized primary-channel signal and a quantized secondary-channel signal into the bitstream. determining an inter-channel time difference in a current frame; performing interpolation processing based on the inter-channel time difference in the current frame and an inter-channel time difference in a previous frame of the current frame, to obtain an inter-channel time difference after the interpolation processing in the current frame; performing delay alignment on a stereo signal in the current frame based on the inter-channel time difference in the current frame, to obtain a stereo signal after the delay alignment in the current frame; performing time-domain downmixing processing on the stereo signal after the delay alignment in the current frame, to obtain a primary-channel signal and a secondary-channel signal in the current frame; quantizing the inter-channel time difference after the interpolation processing in the current frame, and writing a quantized inter-channel time difference into a bitstream; and quantizing the primary-channel signal and the secondary-channel signal in the current frame, and writing a quantized primary-channel signal and a quantized secondary-channel signal into the bitstream.
A seat assembly (S) comprising: a seat structure configured for receiving a passenger seated thereon; a base structure for supporting the seat structure on a surface; a swivel mechanism between the seat structure and the base structure for permitting pivoting of the seat structure relative to the base structure; a swivel stop connected to the seat structure to pivot with the seat structure; and a plate connected to the base structure and arranged to be contacted by the swivel stop after the seat structure pivots through a predetermined swivel limit angle to thereby prevent further swiveling of the seat structure; the plate and swivel stop are configured so that the swivel stop contacts an inboard edge of the plate to prevent further pivoting or rotation of the swivel stop; and wherein the inboard edge of said plate includes one section recessed relative to another section , wherein the swivel stop contacts the one section and the another section at different swivel angles. a seat structure configured for receiving a passenger seated thereon; a base structure for supporting the seat structure on a surface; a swivel mechanism between the seat structure and the base structure for permitting pivoting of the seat structure relative to the base structure; a swivel stop connected to the seat structure to pivot with the seat structure; and a plate connected to the base structure and arranged to be contacted by the swivel stop after the seat structure pivots through a predetermined swivel limit angle to thereby prevent further swiveling of the seat structure; the plate and swivel stop are configured so that the swivel stop contacts an inboard edge of the plate to prevent further pivoting or rotation of the swivel stop; and wherein the inboard edge of said plate includes one section recessed relative to another section , wherein the swivel stop contacts the one section and the another section at different swivel angles.
A method for automated control of a combustion turbine fuel composition through automated modification of a ratio of fuel gas, the method comprises: providing a first fuel source; providing a second fuel source; supplying fuel to a combustion turbine in a blend of fuel from the first source and second source; specifying one or more first tuning priorities, wherein the one or more first tuning priorities are selected from the group comprising NOx levels, power level and combustion dynamics, heat rate, CO levels, heat recovery steam generator life, and turndown capability, and wherein the specifying comprises selecting or de-selecting one or more first tuning priorities or selecting a numerical value for the one or more first tuning priorities and wherein the specifying operates to change a first set of predetermined operational limits; specifying a second tuning priority, wherein the second tuning priority is fuel blend ratio, and wherein the specifying comprises selecting the second tuning priority and wherein the specifying of the second tuning priority operates to overlay a second set of predetermined operational limits within the first set of predetermined operational limits; sensing the operational parameters of the gas turbine; determining whether the operational parameters are within the first or second set of predetermined operational limits; adjusting the blend of the first fuel source and the second fuel source, based on whether the operational parameters are within the first or second set of predetermined operational limits. providing a first fuel source; providing a second fuel source; supplying fuel to a combustion turbine in a blend of fuel from the first source and second source; specifying one or more first tuning priorities, wherein the one or more first tuning priorities are selected from the group comprising NOx levels, power level and combustion dynamics, heat rate, CO levels, heat recovery steam generator life, and turndown capability, and wherein the specifying comprises selecting or de-selecting one or more first tuning priorities or selecting a numerical value for the one or more first tuning priorities and wherein the specifying operates to change a first set of predetermined operational limits; specifying a second tuning priority, wherein the second tuning priority is fuel blend ratio, and wherein the specifying comprises selecting the second tuning priority and wherein the specifying of the second tuning priority operates to overlay a second set of predetermined operational limits within the first set of predetermined operational limits; sensing the operational parameters of the gas turbine; determining whether the operational parameters are within the first or second set of predetermined operational limits; adjusting the blend of the first fuel source and the second fuel source, based on whether the operational parameters are within the first or second set of predetermined operational limits.