mhurhangee/patent-ind-claim-en huggingface dataset:
A sensing device, comprising: a sensor array comprising a plurality of sensors, each sensor having a length dimension and a width dimension and configured to generate a signal responsive to radiation incident on the sensor; and a filter array comprising a plurality of filters, each filter having a length dimension and a width dimension, the filter array disposed to filter light before it is incident on the sensor array, the filter array arranged relative to the sensor array such that, a first sensor of the sensor array receives radiation propagating through a first filter, and a second sensor of the sensor array receives radiation propagating through at least the first filter and a second filter, wherein the first filter and the second filter are each configured to pass a different range of wavelength; wherein a ratio of the length dimension of each filter to the length dimension of a corresponding sensor that receives light propagating through the filter, a ratio of the width dimension of each filter to the width dimension of a corresponding sensor that receives light propagating through the filter, or both, is a non-integer greater than 1. a sensor array comprising a plurality of sensors, each sensor having a length dimension and a width dimension and configured to generate a signal responsive to radiation incident on the sensor; and a filter array comprising a plurality of filters, each filter having a length dimension and a width dimension, the filter array disposed to filter light before it is incident on the sensor array, the filter array arranged relative to the sensor array such that, a first sensor of the sensor array receives radiation propagating through a first filter, and a second sensor of the sensor array receives radiation propagating through at least the first filter and a second filter, wherein the first filter and the second filter are each configured to pass a different range of wavelength; a first sensor of the sensor array receives radiation propagating through a first filter, and a second sensor of the sensor array receives radiation propagating through at least the first filter and a second filter, wherein the first filter and the second filter are each configured to pass a different range of wavelength; wherein a ratio of the length dimension of each filter to the length dimension of a corresponding sensor that receives light propagating through the filter, a ratio of the width dimension of each filter to the width dimension of a corresponding sensor that receives light propagating through the filter, or both, is a non-integer greater than 1.
A method for the non-therapeutic treatment or preparation of an animal prior to subjecting the animal to a marketing or management practice, thereby preventing or minimizing the induction of stress-related inanition or anxiety-related inanition in the animal during, or at completion of, the marketing or management practice, the method comprising the step of administrating a formulation including bromide to an animal selected for the practice prior to subjecting the animal to the practice in an amount effective for preventing the animal from reducing feed intake, wherein the animal does not have stress-related inanition or anxiety-related inanition at the time of administration of the formulation.
Mould filling device for the production of containers filled with a liquid filling material that are made out of thermally conditioned preforms , with at least one mould filling station for forming and filling a preform , wherein the mould filling station comprises a longitudinally moveable stretching bar for guiding and stretching the preform , characterized in that the mould filling station comprises at least one gap space (24; 26; 28) between two mounted body parts (18; 60; 62; 64) of the mould filling station that can be moved towards one another, which gap space (24; 26; 28), in a use position of the mould filling station , is separated in a sealing manner into a high-pressure area (38; 40; 42) and a low-pressure area (44; 46; 48; 50) by means of a gap seal (30; 32; 34; 36) acting on a surface of one of the body parts, wherein the high-pressure area (38; 40; 42) can be connected in a communicating manner to the interior space of the preform , and wherein the low-pressure area (44; 46; 48; 50) is sealed by means of a flexible sealing membrane (52; 54; 56; 58) respectively connected in a sealing manner to body parts that can be moved towards one another, wherein one of the gap spaces (24; 26; 28) is formed between the stretch bar and a first sleeve-shaped body part enclosing the stretch bar in the circumferential direction at least in a longitudinal section.
A composite embedded-pole shaped in form when conductive parts are inserted into a solid insulating material, said composite embedded-pole including a 3-position disconnector earthing switch and components of a vacuum interrupter , wherein: the 3-position disconnector earthing switch and the components of the vacuum interrupter are set in parallel in a same insulating cylinder , which has upper and lower cavities; the 3-position disconnector earthing switch is in the upper cavity , and the vacuum interrupter is in the lower cavity ; right ends of the two cavities are both open and connect with a same sealing cap ; there is an outlet block on the left end of the upper cavity , a pair of spacing-set static conductive blocks in the middle, i.e. the left static conductive block and the right static conductive block , bonding with a conductive board inserted in the walls of the upper cavity; the right end is equipped with a earthing block ; the upper cavity is also equipped with a rotary lead screw for location with its right end stretching out of the sealing cap ; the lead screw, spirally connects with a moving contact set , which is located in the upper cavity ; the moving contact set has directional linear motion with the outlet block , the static conductive blocks (3; 4) and the earthing block and while rotating along with the lead screw, axial motion makes it reach 3 positions: moving contact set bonding with the outlet block reaches a disconnecting closing position with the left static conductive block ; moving contact set bonding with two static conductive blocks (3; 4), reaches a disconnecting opening position; moving contact set bonding with the right static conductive block , reaches a earthing closing position with earthing block ; the lower cavity has an insulating pull rod ; a lower end of the left static conductive block inserts into the left end of the lower cavity , and fixedly bonds with a static contact of the vacuum interrupter ; the outer end of moving contact of the vacuum interrupter fixedly connects with the left end of the insulating pull rod in a threaded manner, with one end of flexible coupling locked and fastened in the joint of thread, and the other end fastened with the lower outlet rod by bolt; the right end of the insulating pull rod stretches out of the sealing cap .
A method for producing an elastic composite web comprising a first corrugated web and a second corrugated web provided with ridges alternating with depressions and connected to each other at said depressions , and at least one elastic element entrapped between said first corrugated web and said second corrugated web , wherein said method comprises: - a corrugation step of said first web and of said second web by means of respective corrugating devices each provided with at least one corrugation surface configured to form said ridges alternating with said depressions along a reference direction (X), so as to obtain said first corrugated web and said corrugated second web , - an entrapment step of said elastic element between said first corrugated web and said corrugated second web , connecting together said first corrugated web and said second corrugated web at said depressions , said method being characterized in that the corrugation step is carried out before said entrapment step and involves feeding said first web and said second web towards the respective corrugating devices with a feeding speed (V1) greater than respective movement speed (V2) of said corrugation surface , and in that said entrapment step involves entrapping said elastic element while it is under tension along said reference direction (X). - a corrugation step of said first web and of said second web by means of respective corrugating devices each provided with at least one corrugation surface configured to form said ridges alternating with said depressions along a reference direction (X), so as to obtain said first corrugated web and said corrugated second web , - an entrapment step of said elastic element between said first corrugated web and said corrugated second web , connecting together said first corrugated web and said second corrugated web at said depressions ,
Hob apparatus, in particular induction hob apparatus, with a plurality of heating units (12a-b), which define at least one variable cooking surface area (14a-b), which has at least one permanently defined first partial cooking surface area (16a-b) and at least one permanently defined second partial cooking surface area (18a-b), characterised in that at least one control unit (38a-b), which, in at least one operating state in which at least one part of an item of cookware (60a-b) is placed in the partial cooking surface areas (16a-b, 18a-b) in each case, keeps a total output power, specifically a sum of the output powers of all heating units (12a-b) defining the partial cooking surface area (16a-b, 18a-b) at a particular time point, of first heating units (12a1-b1) of the heating units (12a-b) which define the first partial cooking surface area (16a-b) and a total output power of second heating units (12a2-b2) of the heating units (12a-b) which define the second partial cooking surface area (18a-b), at least essentially constant at all times, specifically that, in the operating state, the control unit (38a-b) sets a total output power at a given time point and a further total output power at a given further time point such that a quotient of a smaller power of the total output powers and of a larger power of the total output powers amounts to at least 0.9.
A method (M100) of processing a multichannel signal that includes a first audio input channel and a second audio input channel, said method comprising: performing (T100) an active noise cancellation operation on the first audio input channel to produce an antinoise signal; processing (T200) the multichannel signal to obtain a source component, said processing including performing a spatially selective processing operation on the multichannel signal to separate the source component from a background component; processing (T300) the obtained separated source component to produce a target component: producing an augmented signal from the target component, wherein the augmented signal is a stereo signal providing a perceived direction of arrival corresponding to a direction of arrival associated with the obtained separated source component, wherein the direction of arrival associated with the obtained separated source component is determined from the first audio input channel and second audio input channel; and combining (T400) the antinoise signal and the augmented signal to produce an audio output signal. performing (T100) an active noise cancellation operation on the first audio input channel to produce an antinoise signal; processing (T200) the multichannel signal to obtain a source component, said processing including performing a spatially selective processing operation on the multichannel signal to separate the source component from a background component; processing (T300) the obtained separated source component to produce a target component: producing an augmented signal from the target component, wherein the augmented signal is a stereo signal providing a perceived direction of arrival corresponding to a direction of arrival associated with the obtained separated source component, wherein the direction of arrival associated with the obtained separated source component is determined from the first audio input channel and second audio input channel; and combining (T400) the antinoise signal and the augmented signal to produce an audio output signal. producing an augmented signal from the target component, wherein the augmented signal is a stereo signal providing a perceived direction of arrival corresponding to a direction of arrival associated with the obtained separated source component, wherein the direction of arrival associated with the obtained separated source component is determined from the first audio input channel and second audio input channel; and combining (T400) the antinoise signal and the augmented signal to produce an audio output signal.
A mat material comprising: inorganic fibers; and an inorganic binder and an organic binder attached to the inorganic fibers, wherein the mat material has an initial compression surface pressure of 900 kPa or more as measured when compressed to a bulk density of 0.50 g/cm 3 , wherein the mat material is a mat produced by papermaking, and wherein the mat material includes twisted strings of the inorganic fibers twisted together, and in a cross section parallel to a thickness direction of the mat material, a cross-sectional area percentage of the twisted strings is 0.5% or more and 10% or less relative to a cross-sectional area of the mat material, and wherein the initial compression surface pressure is measured by the method described in the description. inorganic fibers; and an inorganic binder and an organic binder attached to the inorganic fibers, wherein the mat material has an initial compression surface pressure of 900 kPa or more as measured when compressed to a bulk density of 0.50 g/cm 3 , wherein the mat material is a mat produced by papermaking, and wherein the mat material includes twisted strings of the inorganic fibers twisted together, and in a cross section parallel to a thickness direction of the mat material, a cross-sectional area percentage of the twisted strings is 0.5% or more and 10% or less relative to a cross-sectional area of the mat material, and wherein the initial compression surface pressure is measured by the method described in the description.
A heat-conductive composite silicone rubber sheet comprising a non-adhesive high-hardness heat-conductive silicone rubber sheet and an acrylic pressure-sensitive adhesive layer laid on one surface of the silicone rubber sheet, the non-adhesive silicone rubber sheet including a heat-conductive silicone rubber layer which is a cured product of a heat-conductive silicone composition containing a heat-conductive filler, the cured product having a hardness of 60 to 96 on the Durometer A scale, and the acrylic pressure-sensitive adhesive layer being a cured product of an acrylic adhesive composition comprising 100 parts by weight of an acrylic adhesive composed of a polymer, obtained from a monomer mixture containing 5 to 50 mol% of a hydroxyl-containing monomer, based on the entire constituent monomers in the acrylic adhesive, and 0.05 to 5 parts by weight per 100 parts by weight of the acrylic adhesive of a chelate curing agent. the non-adhesive silicone rubber sheet including a heat-conductive silicone rubber layer which is a cured product of a heat-conductive silicone composition containing a heat-conductive filler, the cured product having a hardness of 60 to 96 on the Durometer A scale, and the acrylic pressure-sensitive adhesive layer being a cured product of an acrylic adhesive composition comprising 100 parts by weight of an acrylic adhesive composed of a polymer, obtained from a monomer mixture containing 5 to 50 mol% of a hydroxyl-containing monomer, based on the entire constituent monomers in the acrylic adhesive, and 0.05 to 5 parts by weight per 100 parts by weight of the acrylic adhesive of a chelate curing agent.
A lyophilized formulation of an anti-tissue factor (TF) antibody-drug conjugate (ADC), the lyophilized formulation obtainable or obtained by lyophilizing an aqueous formulation comprising from about 9 to about 11 g/L of said anti-TF ADC and pharmaceutically acceptable excipients comprising about 29 to about 31 mM histidine buffer having a pH of about 5.5 to about 6.5; about 84 to about 92 mM sucrose and about 158 to about 172 mM mannitol, and wherein: a. the formulation is free of surfactant, b. the anti-TF antibody portion of the ADC comprises a variable heavy (VH) region comprising a CDR1 region having the amino acid sequence set forth in SEQ ID NO: 6, a CDR2 region having the amino acid sequence set forth in SEQ ID NO: 7, and a CDR3 region having the amino acid sequence set forth in SEQ ID NO: 8, and a variable light (VL) region comprising a CDR1 region having the amino acid sequence set forth in SEQ ID NO:46, a CDR2 region having the amino acid sequence set forth in SEQ ID NO: 47, and a CDR3 region having the amino acid sequence set forth in SEQ ID NO: 48, or a variant which has at most 1, 2, or 3 amino-acid modifications, more preferably amino-acid substitutions such as conservative amino acid substitutions in said sequences, c. the drug portion of the ADC is vcMMAE . a. the formulation is free of surfactant, b. the anti-TF antibody portion of the ADC comprises a variable heavy (VH) region comprising a CDR1 region having the amino acid sequence set forth in SEQ ID NO: 6, a CDR2 region having the amino acid sequence set forth in SEQ ID NO: 7, and a CDR3 region having the amino acid sequence set forth in SEQ ID NO: 8, and a variable light (VL) region comprising a CDR1 region having the amino acid sequence set forth in SEQ ID NO:46, a CDR2 region having the amino acid sequence set forth in SEQ ID NO: 47, and a CDR3 region having the amino acid sequence set forth in SEQ ID NO: 48, or a variant which has at most 1, 2, or 3 amino-acid modifications, more preferably amino-acid substitutions such as conservative amino acid substitutions in said sequences, c. the drug portion of the ADC is vcMMAE .
Method for the preparation of capsules of aqueous substances, characterised in that it comprises the following steps: a) mixing a source of ions of an alkaline earth metal selected from calcium and magnesium with an aqueous substance to be encapsulated, wherein the aqueous substance to be encapsulated is a liquid food product selected from fruit juices and pastes, milk products, infusions, vinegars, spirit drinks, wines, alcoholic beverages, fermented juices (for example, of soya), or any water-based substance in liquid state or resulting from the extraction of any type of solid whose juice has a aqueous content; b) forming a drop or drops of the mixture of step (a) and introducing said drop or drops into an aqueous solution containing a non-calcium alginate, said aqueous solution of non-calcium alginate comprising an oily interface in the form of a buffering layer, wherein the buffering oily layer is totally dispersed in the alginate solution in order to form the capsules; c) incubating the capsules formed in step (b) in suspension for a time of between 2 seconds and 2 hours; d) washing, draining and packaging the capsules. a) mixing a source of ions of an alkaline earth metal selected from calcium and magnesium with an aqueous substance to be encapsulated, wherein the aqueous substance to be encapsulated is a liquid food product selected from fruit juices and pastes, milk products, infusions, vinegars, spirit drinks, wines, alcoholic beverages, fermented juices (for example, of soya), or any water-based substance in liquid state or resulting from the extraction of any type of solid whose juice has a aqueous content; b) forming a drop or drops of the mixture of step (a) and introducing said drop or drops into an aqueous solution containing a non-calcium alginate, said aqueous solution of non-calcium alginate comprising an oily interface in the form of a buffering layer, wherein the buffering oily layer is totally dispersed in the alginate solution in order to form the capsules; c) incubating the capsules formed in step (b) in suspension for a time of between 2 seconds and 2 hours; d) washing, draining and packaging the capsules.
A process for producing a solid biomass fuel, wherein the process comprises the following steps: (i) pulverising one or more sources of biomass to provide a biomass powder with an average particle diameter (D50) of from 1000 μm to 6000 μm; (ii) molding the biomass powder with a compression mold to provide a molded biomass product with a density of from 1.1 kg/L to 1.25 kg/L; wherein the molding is adapted such that the density of the molded biomass product is controlled by using a compression ratio of the compression mold of from 3.8 to 6.5 , wherein the compression ratio is the ratio of the length of the product out hole to its diameter; (iii) heating the molded biomass product to a temperature of from 160°C to 420°C for a time period of from 0.25 to 5 hours so as to provide a solid biomass fuel; wherein the one or more sources of biomass comprise (i) calliandra calothyrsus, or (ii) a mixture of straw, rice husk and coconut shell. (i) pulverising one or more sources of biomass to provide a biomass powder with an average particle diameter (D50) of from 1000 μm to 6000 μm; (ii) molding the biomass powder with a compression mold to provide a molded biomass product with a density of from 1.1 kg/L to 1.25 kg/L; wherein the molding is adapted such that the density of the molded biomass product is controlled by using a compression ratio of the compression mold of from 3.8 to 6.5 , wherein the compression ratio is the ratio of the length of the product out hole to its diameter; (iii) heating the molded biomass product to a temperature of from 160°C to 420°C for a time period of from 0.25 to 5 hours so as to provide a solid biomass fuel;
A method for prediction or classification of one or more target features in plants, the method comprising: determining the genotype of plants in a plant population for at least one plant-based molecular genetic marker; providing a data set comprising a set of features, wherein at least one of the features in the data set comprises the at least one molecular genetic marker; determining at least one association rule from the data set utilizing a computer and one or more association rule mining algorithms; utilizing the association rule to create one or more new features; adding the new feature to the data set; utilizing one or more machine learning algorithms for developing a plurality of models for prediction or classification of a desired target feature using at least one new feature; utilizing cross-validation to compare the algorithms and sets of parameter values and selecting an algorithm for accurate prediction or classification of desired target features for the data set; utilizing the selected algorithm for prediction of a value of a target feature in one or more members of the plant population; and selecting at least one of the member of the plant population having a desired predicted value of the target feature. determining the genotype of plants in a plant population for at least one plant-based molecular genetic marker; providing a data set comprising a set of features, wherein at least one of the features in the data set comprises the at least one molecular genetic marker; determining at least one association rule from the data set utilizing a computer and one or more association rule mining algorithms; utilizing the association rule to create one or more new features; adding the new feature to the data set; utilizing one or more machine learning algorithms for developing a plurality of models for prediction or classification of a desired target feature using at least one new feature; utilizing cross-validation to compare the algorithms and sets of parameter values and selecting an algorithm for accurate prediction or classification of desired target features for the data set; utilizing the selected algorithm for prediction of a value of a target feature in one or more members of the plant population; and selecting at least one of the member of the plant population having a desired predicted value of the target feature.