mhurhangee/ep-ind-claims huggingface dataset:
Aerosol-generating article comprising a plurality of elements assembled in the form of a rod, the plurality of elements comprising an aerosol-forming substrate element, with an aerosol-forming substrate bulk and with a susceptor material arranged within the aerosol-forming substrate element, wherein the susceptor material comprises an aerosol-forming substrate coating.
A radio communication apparatus comprising: a first spreading section that performs first spreading of a response signal using one of a plurality of first sequences that can be separated from each other because of different cyclic shift values; and a control section that controls the first sequence used in the first spreading section, according to hopping patterns for a plurality of control channels associated with the plurality of first sequences, wherein the hopping patterns comprise a symbol-based first layer hopping pattern that varies between cells, and a slot-based second layer hopping pattern that varies between radio communication apparatuses characterized in that the slot-based second layer hopping is controlled such that unused resources are subject to block-based hopping. a first spreading section that performs first spreading of a response signal using one of a plurality of first sequences that can be separated from each other because of different cyclic shift values; and a control section that controls the first sequence used in the first spreading section, according to hopping patterns for a plurality of control channels associated with the plurality of first sequences, wherein the hopping patterns comprise a symbol-based first layer hopping pattern that varies between cells, and a slot-based second layer hopping pattern that varies between radio communication apparatuses characterized in that the slot-based second layer hopping is controlled such that unused resources are subject to block-based hopping.
A flow balancing valve for a multistage combustor, the valve comprising: a first pressure feedback line fluidly connected to a first burn line, a first metering port located in the first burn line for fluid connection to a first fuel injector, a first annulus fluidly connected to the first pressure feedback line, and a first land fluidly connected to the first annulus; a second pressure feedback line fluidly connected to a second burn line, a second metering port located in the second burn line for fluid connection to a second fuel injector, a second annulus fluidly connected to the second pressure feedback line, and a second land fluidly connected to the second annulus; and a metering land attached between the first land and the second land and located between and defining sizes of the first metering port and the second metering port; wherein: the first burn line is for fluidly connecting a first input line to the first fuel injector; the second burn line is for fluidly connecting a second input line to the second fuel injector; an increase in pressure differential between the first pressure feedback line and the second pressure feedback line causes a compensatory movement in the metering land to balance fuel flow for the first fuel injector and the second fuel injector; and an increase of pressure in the first pressure feedback line with respect to pressure in the second pressure feedback line causes the first land to move the metering land away from the first metering port, thereby increasing the size of the first metering port and decreasing the size of the second metering port. a first pressure feedback line fluidly connected to a first burn line, a first metering port located in the first burn line for fluid connection to a first fuel injector, a first annulus fluidly connected to the first pressure feedback line, and a first land fluidly connected to the first annulus; a second pressure feedback line fluidly connected to a second burn line, a second metering port located in the second burn line for fluid connection to a second fuel injector, a second annulus fluidly connected to the second pressure feedback line, and a second land fluidly connected to the second annulus; and a metering land attached between the first land and the second land and located between and defining sizes of the first metering port and the second metering port; wherein: the first burn line is for fluidly connecting a first input line to the first fuel injector; the second burn line is for fluidly connecting a second input line to the second fuel injector; an increase in pressure differential between the first pressure feedback line and the second pressure feedback line causes a compensatory movement in the metering land to balance fuel flow for the first fuel injector and the second fuel injector; and an increase of pressure in the first pressure feedback line with respect to pressure in the second pressure feedback line causes the first land to move the metering land away from the first metering port, thereby increasing the size of the first metering port and decreasing the size of the second metering port.
A medical system comprising: two implantable markers (47, 48) to wirelessly transmit a signal in response to a wirelessly transmitted excitation signal, when the markers are implanted in a body; an excitation signal transmitter to transmit the excitation signal to the implanted markers; an implantable sensing member (141, 143, 144); an implantable sensing member signal processor adapted to receive signals from the sensing member, when the sensing member is implanted in the body; a marker signal receiver to receive the response signal from each of the two implanted markers; and a marker signal processor to convert the received response signals into positional information; the positional information being a distance between the two markers; an analyzer to receive the positional information and the sensing member signals, and to provide a graph plotting the positional information against the sensing member signals; a positional information transmitter coupled to the marker signal processor and the analyzer; and an implantable sensing member signal transmitter coupled to the implantable sensing member signal processor and the analyzer. two implantable markers (47, 48) to wirelessly transmit a signal in response to a wirelessly transmitted excitation signal, when the markers are implanted in a body; an excitation signal transmitter to transmit the excitation signal to the implanted markers; an implantable sensing member (141, 143, 144); an implantable sensing member signal processor adapted to receive signals from the sensing member, when the sensing member is implanted in the body; a marker signal receiver to receive the response signal from each of the two implanted markers; and a marker signal processor to convert the received response signals into positional information; the positional information being a distance between the two markers; an analyzer to receive the positional information and the sensing member signals, and to provide a graph plotting the positional information against the sensing member signals; a positional information transmitter coupled to the marker signal processor and the analyzer; and an implantable sensing member signal transmitter coupled to the implantable sensing member signal processor and the analyzer.
Method for preoperative prediction of a postoperative horizontal depth (postopeIOLE, postopeIOLE*) of an intraocular lens (14, 14') in a patient's eye, in which values of parameters are provided, wherein the parameters include a first parameter as the depth (preopACD) of an anterior chamber of human eyes, a second parameter as the horizontal length (preopAL) of human eyes and a third parameter as the postoperative position of intraocular lenses in human eyes, characterized in that specific value triplets with each one value of the three mentioned parameters are selected from these values as main interpolation nodes (18 to 33) and the main interpolation nodes (18 to 33) are entered into a three-dimensional coordinate system spanned by the three parameters, wherein main interpolation nodes (18 to 33) are connected by edge connecting lines (34 to 57), and at least by the positions of the edge connecting lines (34 to 57), a predictive network unevenly shaped in the three-dimensional coordinate system for predicting the postoperative horizontal depth (postopeIOLE, postopeIOLE*) of the intraocular lens (14, 14') in the patient's eye is generated, wherein parameters of the patient's eye are measured and provided for the prediction of the depth, and depending on the measured parameters of the patient's eye and on the predictive network, the postoperative horizontal depth (postopeIOLE, postopeIOLE*) is determined and provided.
A diffractive optical assembly, comprising: a sealing assembly comprising a first sealing plate, a second sealing plate and a spacer, the first sealing plate and the second sealing plate being light transparent and arranged opposite to each other, the first sealing plate comprising a first abutment face opposite to the second sealing plate, and the second sealing plate comprising a second abutment face opposite to the first sealing plate, the spacer spacing the first sealing plate and the second sealing plate apart, the first sealing plate, the second sealing plate, and the spacer cooperatively defining a closed receiving cavity; and a diffractive optical element accommodated in the receiving cavity and comprising a light-transparent diffractive body and a diffractive structure formed on the diffractive body, characterized in that at least one of the first abutment face and the second abutment face is formed with a rugged structure engaged with the diffractive structure such that at least one of the first sealing plate and the second sealing plate is in close contact with the diffractive optical element. a sealing assembly comprising a first sealing plate, a second sealing plate and a spacer, the first sealing plate and the second sealing plate being light transparent and arranged opposite to each other, the first sealing plate comprising a first abutment face opposite to the second sealing plate, and the second sealing plate comprising a second abutment face opposite to the first sealing plate, the spacer spacing the first sealing plate and the second sealing plate apart, the first sealing plate, the second sealing plate, and the spacer cooperatively defining a closed receiving cavity; and a diffractive optical element accommodated in the receiving cavity and comprising a light-transparent diffractive body and a diffractive structure formed on the diffractive body, characterized in that at least one of the first abutment face and the second abutment face is formed with a rugged structure engaged with the diffractive structure such that at least one of the first sealing plate and the second sealing plate is in close contact with the diffractive optical element.
Method for providing access to a plug element which is integrated into a charging station that provides electrical energy for electrically drivable vehicles, wherein - identification information of a user is captured by an information capturing unit assigned to the charging station and - after capturing the identification information from a non-providing position, in which the socket outlet is inaccessible in a housing of the charging station, the plug element is placed in a providing position in which the plug element is arranged in the housing so as to be accessible from the outside and a mating plug element can be inserted into the plug element, characterised in that after the plug element is placed in the providing position additional identification information is transferred to a control unit of the charging station, by means of which the user's authorisation to perform the charging process is verified and/or a billing account assigned to the user is determined. - identification information of a user is captured by an information capturing unit assigned to the charging station and - after capturing the identification information from a non-providing position, in which the socket outlet is inaccessible in a housing of the charging station, the plug element is placed in a providing position in which the plug element is arranged in the housing so as to be accessible from the outside and a mating plug element can be inserted into the plug element,
A unimodal polymer having a melt index of from 0.8 g/10 min to 4 g/10 min as determined in accordance with ASTM D 1238 condition E at 190°C with a 2160 gram weight, a density of equal to or greater than about 0.945 g/cc as measured according to ASTM D 1505 and ASTM D 1928, procedure C, a molecular weight distribution of from 2 to 4 and a ratio of z-average molecular weight to weight average molecular weight (M z /M w) of less than 4 which, when formed into a 1 mil film, displays a haze of less than 35 %, measured according to ASTM D-1003 or ASTM E167, and a moisture vapor transmission rate of less than about 0.55 g-mil/100 in 2 in 24 hours as determined in accordance with ASTM F 1249.
A method of determining a reservoir parameter of a subterranean formation comprising: initiating an initial pressure pulse in the subterranean formation, wherein the initial pressure pulse comprises an initial drawdown pulse, an initial buildup time, an initial injection pulse and an initial builddown time; and initiating a series of subsequent pressure pulses in the subterranean formation, to determine the reservoir parameter, wherein the series of subsequent pressure pulses comprises at least a subsequent drawdown pulse, a subsequent buildup time, a subsequent injection pulse and a subsequent builddown time, and wherein each subsequent pressure pulse is optimized utilizing at least one of an analytical simulation model and a numerical simulation model. initiating an initial pressure pulse in the subterranean formation, wherein the initial pressure pulse comprises an initial drawdown pulse, an initial buildup time, an initial injection pulse and an initial builddown time; and initiating a series of subsequent pressure pulses in the subterranean formation, to determine the reservoir parameter, wherein the series of subsequent pressure pulses comprises at least a subsequent drawdown pulse, a subsequent buildup time, a subsequent injection pulse and a subsequent builddown time, and wherein each subsequent pressure pulse is optimized utilizing at least one of an analytical simulation model and a numerical simulation model.
An isolated monoclonal antibody, or antigen-binding fragment thereof, which specifically binds both PD-L1 and PD-L2, comprising six CDRs: CDR-L1, CDR-L2, CDR-L3, CDR-H1, CDR-H2, and CDR-H3, wherein CDR-L1 consists of the amino acid sequence encoded by nucleotides 70-102 of SEQ ID NO: 13, CDR-L2 consists of the amino acid sequence encoded by nucleotides 148-168 of SEQ ID NO: 13, CDR-L3 consists of the amino acid sequence encoded by nucleotides 265-291 of SEQ ID NO: 13, CDR-H1 consists of the amino acid sequence encoded by nucleotides 91-108 of SEQ ID NO: 15, CDR-H2 consists of the amino acid sequence encoded by nucleotides 151-198 of SEQ ID NO: 15, and CDR-H3 consists of the amino acid sequence encoded by nucleotides 295-330 of SEQ ID NO: 15, preferably wherein the isolated monoclonal antibody, or antigen-binding fragment thereof, i) comprises the heavy chain variable domain amino acid sequence encoded by SEQ ID NO: 15; ii) comprises the light chain variable domain amino acid sequence encoded by SEQ ID NO: 13; or ii) comprising the heavy chain variable domain sequence encoded by SEQ ID NO: 15 and the light chain variable domain sequence of SEQ ID NO: 13. i) comprises the heavy chain variable domain amino acid sequence encoded by SEQ ID NO: 15; ii) comprises the light chain variable domain amino acid sequence encoded by SEQ ID NO: 13; or ii) comprising the heavy chain variable domain sequence encoded by SEQ ID NO: 15 and the light chain variable domain sequence of SEQ ID NO: 13.
A method comprising: applying a thermal interface material on a first layer, such that the thermal interface material is between the first layer and a second layer of an assembly, wherein the thermal interface material comprises an emulsion of liquid metal droplets and uncured polymer; compressing the assembly thereby deforming the liquid metal droplets; and curing the thermal interface material thereby forming a cured assembly, wherein an average particle size of the liquid metal droplets in the thermal interface material prior to applying is greater than a bondline distance formed between the first layer and the second layer in the cured assembly and characterized in that the polymer after curing is elastomeric. applying a thermal interface material on a first layer, such that the thermal interface material is between the first layer and a second layer of an assembly, wherein the thermal interface material comprises an emulsion of liquid metal droplets and uncured polymer; compressing the assembly thereby deforming the liquid metal droplets; and curing the thermal interface material thereby forming a cured assembly, wherein an average particle size of the liquid metal droplets in the thermal interface material prior to applying is greater than a bondline distance formed between the first layer and the second layer in the cured assembly and characterized in that the polymer after curing is elastomeric.
A gas turbine engine comprising: a lubrication system including a scavenge pump, a supply pump, an oil tank and an oil filter, all connected by a lubrication circuit; a spool; a first accessory gearbox connected to and driven by the spool and positioned substantially inside a core cowling; a second accessory gearbox connected to and driven by the first accessory gearbox and positioned substantially outside of the core cowling on a fan case; the scavenge pump connected between the first accessory gearbox and the second accessory gearbox, wherein the first accessory gearbox drives the second accessory gearbox through the scavenge pump; the supply pump connected to and driven by the second accessory gearbox; the oil tank positioned on the fan case; the oil filter positioned on the fan case; a generator connected to and driven by the first accessory gearbox; a fuel pump connected to and driven by the first accessory gearbox; a hydraulic pump connected to and driven by the first accessory gearbox; and a starter connected to and driven by the first accessory gearbox; wherein the scavenge pump is mounted to the first accessory gearbox, a first gear system connects the spool to the first accessory gearbox, and a second gear system connects the scavenge pump to the second accessory gearbox. a lubrication system including a scavenge pump, a supply pump, an oil tank and an oil filter, all connected by a lubrication circuit; a spool; a first accessory gearbox connected to and driven by the spool and positioned substantially inside a core cowling; a second accessory gearbox connected to and driven by the first accessory gearbox and positioned substantially outside of the core cowling on a fan case; the scavenge pump connected between the first accessory gearbox and the second accessory gearbox, wherein the first accessory gearbox drives the second accessory gearbox through the scavenge pump; the supply pump connected to and driven by the second accessory gearbox; the oil tank positioned on the fan case; the oil filter positioned on the fan case; a generator connected to and driven by the first accessory gearbox; a fuel pump connected to and driven by the first accessory gearbox; a hydraulic pump connected to and driven by the first accessory gearbox; and a starter connected to and driven by the first accessory gearbox; wherein the scavenge pump is mounted to the first accessory gearbox, a first gear system connects the spool to the first accessory gearbox, and a second gear system connects the scavenge pump to the second accessory gearbox.
An image sensor (1000, 2000, 3000), comprising: a semiconductor substrate integrated with a plurality of photo-sensing devices spaced apart from each other in a horizontal direction; and a nanopattern layer on the semiconductor substrate, the nanopattern layer including at least two types of dielectric substances having different refractive indexes from each other and having a plurality of nanopatterns, the two types of dielectric substances having a refractive index difference of greater than or equal to 0.2, the two types of dielectric substances being formed in separate regions from each other, and the nanopatterns being defined at the interface between the two types of dielectric substances, wherein a single nanopattern of the plurality of nanopatterns corresponds to a single photo-sensing device of the plurality of photo-sensing devices; wherein each nanopattern of the plurality of nanopatterns has a size greater than or equal to 1 nanometer to less than 1 micrometer; and wherein the size of the nanopattern is the longest horizontal width that the nanopattern has in cross-section when the nanopattern layer is horizontally cut, and characterized in that the single nanopattern transmits light in a wavelength region only onto the single photo-sensing device corresponding thereto. a semiconductor substrate integrated with a plurality of photo-sensing devices spaced apart from each other in a horizontal direction; and a nanopattern layer on the semiconductor substrate, the nanopattern layer including at least two types of dielectric substances having different refractive indexes from each other and having a plurality of nanopatterns, the two types of dielectric substances having a refractive index difference of greater than or equal to 0.2, the two types of dielectric substances being formed in separate regions from each other, and the nanopatterns being defined at the interface between the two types of dielectric substances, wherein a single nanopattern of the plurality of nanopatterns corresponds to a single photo-sensing device of the plurality of photo-sensing devices; wherein each nanopattern of the plurality of nanopatterns has a size greater than or equal to 1 nanometer to less than 1 micrometer; and wherein the size of the nanopattern is the longest horizontal width that the nanopattern has in cross-section when the nanopattern layer is horizontally cut, and characterized in that the single nanopattern transmits light in a wavelength region only onto the single photo-sensing device corresponding thereto.
Device for the preparation of popcorn in a cooking vessel, in particular in a cooking pot, comprising an elongated stirrer with a shaft that exhibits a scratcher unit at its lower end for loosening of sticking popcorn from the bottom of the cookware, as well as a heat resistant hood for putting over the cooking vessel with an opening for sticking through the shaft of the stirrer so that the scratcher unit is located under the heat resistant hood, characterized by the fact that a) the heat resistant hood is made of a flexible textile material that can be pulled over the rim of the cookware, and b) the shaft of the elongated stirrer exhibits a handle at its upper end, which is placed outside of and above the flexible heat resistant hood for manual operation of the stirrer. a) the heat resistant hood is made of a flexible textile material that can be pulled over the rim of the cookware, and b) the shaft of the elongated stirrer exhibits a handle at its upper end, which is placed outside of and above the flexible heat resistant hood for manual operation of the stirrer.