mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna subsystem , comprising: a sparse receive antenna including an array of receive elements each configured to receive a respective signal having a wavelength and each spaced apart from each adjacent one of the receive elements by a respective first distance that is more than one half of the wavelength; and an electronically steerable transmit antenna including: an array of transmit elements each configured to radiate a respective signal having the wavelength and each spaced apart from each adjacent one of the transmit elements by a respective second distance that is less than one half of the wavelength, a first transmit-antenna section having a first subarray of the transmit elements , and a second transmit-antenna section having a second subarray of the transmit elements , stacked with the first transmit-antenna section in a first dimension, and offset from the first transmit-antenna section in a second dimension orthogonal to the first dimension. a sparse receive antenna including an array of receive elements each configured to receive a respective signal having a wavelength and each spaced apart from each adjacent one of the receive elements by a respective first distance that is more than one half of the wavelength; and an electronically steerable transmit antenna including: an array of transmit elements each configured to radiate a respective signal having the wavelength and each spaced apart from each adjacent one of the transmit elements by a respective second distance that is less than one half of the wavelength, a first transmit-antenna section having a first subarray of the transmit elements , and a second transmit-antenna section having a second subarray of the transmit elements , stacked with the first transmit-antenna section in a first dimension, and offset from the first transmit-antenna section in a second dimension orthogonal to the first dimension. an array of transmit elements each configured to radiate a respective signal having the wavelength and each spaced apart from each adjacent one of the transmit elements by a respective second distance that is less than one half of the wavelength, a first transmit-antenna section having a first subarray of the transmit elements , and a second transmit-antenna section having a second subarray of the transmit elements , stacked with the first transmit-antenna section in a first dimension, and offset from the first transmit-antenna section in a second dimension orthogonal to the first dimension.
Process for preparing silane-containing polyurethanes comprising the reaction of A) at least one polymeric polyol having an acid number determined according to DIN EN ISO 2114:2002-06 of 0.01 to 30.0 mg KOH/g based on the solids content with B) at least one compound which has at least one carboxyl-reactive group and contains at least one epoxy group, carbodiimide group and/or 2-oxazoline group to obtain a reaction product and the reaction of the reaction product with C) at least one alkoxysilane-functional isocyanate. A) at least one polymeric polyol having an acid number determined according to DIN EN ISO 2114:2002-06 of 0.01 to 30.0 mg KOH/g based on the solids content with B) at least one compound which has at least one carboxyl-reactive group and contains at least one epoxy group, carbodiimide group and/or 2-oxazoline group to obtain a reaction product and the reaction of the reaction product with C) at least one alkoxysilane-functional isocyanate.
A transport device comprising: a transport pipe for transporting a material to be transported including at least one of a sheet piece, a fiber, and a powder; and an air flow generation portion for generating an air flow (α) in the transport pipe , the transport device transporting the material to be transported by the air flow (α), wherein the transport pipe has an introduction port into which the material to be transported is introduced, the air flow (α) has a velocity difference in a direction orthogonal to a direction of the air flow (α) in the transport pipe , and the introduction port is provided on a side where a velocity of the air flow (α) is lower; the transport device further comprises: a guide portion that guides the material to be transported toward the introduction port ; the guide portion comprises an inverted tapered shape with a width increasing in the direction of the introduction port ; and wherein the guide portion has a first inclined surface and a second inclined surface , wherein the inclined surfaces are inner surfaces of the guide portion , wherein in the guide portion , the second inclined surface on a downstream side of the air flow (α) is inclined toward the introduction port in the direction of the air flow (α) in the transport pipe , characterized in that in the guide portion , the first inclined surface on a upstream side of the air flow (α) is inclined toward the introduction port in the direction opposite of the air flow (α) in the transport pipe . wherein the transport pipe has an introduction port into which the material to be transported is introduced, the air flow (α) has a velocity difference in a direction orthogonal to a direction of the air flow (α) in the transport pipe , and the introduction port is provided on a side where a velocity of the air flow (α) is lower; the transport device further comprises: a guide portion that guides the material to be transported toward the introduction port ; the guide portion comprises an inverted tapered shape with a width increasing in the direction of the introduction port ; and wherein the guide portion has a first inclined surface and a second inclined surface , wherein the inclined surfaces are inner surfaces of the guide portion , wherein in the guide portion , the second inclined surface on a downstream side of the air flow (α) is inclined toward the introduction port in the direction of the air flow (α) in the transport pipe , characterized in that in the guide portion , the first inclined surface on a upstream side of the air flow (α) is inclined toward the introduction port in the direction opposite of the air flow (α) in the transport pipe .
An image processing device comprising: a heating unit configured to heat a sheet at a temperature determined in each type of job, in processing of a job related to image processing; a memory which stores a type of job, and the number of sheets processed in the job, for each job of jobs which are not executed yet; and a control unit configured to determine whether or not there is a job of which the number of sheets to be processed in one job is larger than a predetermined number of sheets, based on the number of sheets stored in the memory, wherein the predetermined number of sheets is determined for each type of job and is set to be smaller for a type of job as the processing temperature required for the type of job increases, and to rearrange an executing order of jobs which are not executed yet so that jobs of the same type are continuously performed, when there is a job of which the number of sheets to be processed in one job is larger than the predetermined number of sheets. a heating unit configured to heat a sheet at a temperature determined in each type of job, in processing of a job related to image processing; a memory which stores a type of job, and the number of sheets processed in the job, for each job of jobs which are not executed yet; and a control unit configured to determine whether or not there is a job of which the number of sheets to be processed in one job is larger than a predetermined number of sheets, based on the number of sheets stored in the memory, wherein the predetermined number of sheets is determined for each type of job and is set to be smaller for a type of job as the processing temperature required for the type of job increases, and to rearrange an executing order of jobs which are not executed yet so that jobs of the same type are continuously performed, when there is a job of which the number of sheets to be processed in one job is larger than the predetermined number of sheets.
A catheter apparatus comprising; a hollow shaft with a distal end and a proximal end, and a removable non-occluding self-expandable scaffold having a central longitudinal axis, a distal end and a proximal end, the self-expandable scaffold being disposed at a distal end of the hollow shaft, wherein a portion of the distal end of the hollow shaft is disposed at least in part inside the self-expandable scaffold, wherein the distal end of the hollow shaft is configured to pass through the scaffold and wherein the distal end of the scaffold is slidable along the hollow shaft, and wherein at least a portion of the distal end of the hollow shaft is disposed substantially along the central axis of the self-expandable scaffold structure.
A fluid cosmetic composition which is an antiperspirant and/or deodorant composition to be applied to the human skin, the composition being a non-aluminium based composition free from oils and alcohols as an antiseptic, wherein the composition comprises: - from 3.0 to 5.0 weight percent of an alkali metal bicarbonate; - from 0.1 to 1.0 weight percent of sodium carbonate, and - from 0.1 to 3.0 weight percent of sodium sulphate, wherein the alkali metal bicarbonate, sodium carbonate and the sodium sulphate are dissolved in water, wherein the composition can comprise phenoxyethanol as preservative. - from 3.0 to 5.0 weight percent of an alkali metal bicarbonate; - from 0.1 to 1.0 weight percent of sodium carbonate, and - from 0.1 to 3.0 weight percent of sodium sulphate,
A prefabricated structural system comprising a plurality of steel structure joints and related members, whereby the steel structure joints and related members comprise: a beam-column connecting sleeve , comprising a first box-shaped steel tube and first C-shaped sleeves extending from and perpendicular to outer surfaces of the first box-shaped steel tube ; a column , having a column connecting end inserted into the first box-shaped steel tube ; a main beam , having a main beam connecting end inserted into the first C-shaped sleeve ; and a main beam fixing steel plate , the prefabricated structural system being characterized in that each first C-shaped sleeve is provided with first wedge shaped recesses at ends of upper and lower flanges thereof; and that said main beam fixing steel plate is provided with first wedge shaped protrusions that are tenon-mortise-jointed with first wedge shaped recesses of the first C-shaped sleeve at both sides. a beam-column connecting sleeve , comprising a first box-shaped steel tube and first C-shaped sleeves extending from and perpendicular to outer surfaces of the first box-shaped steel tube ; a column , having a column connecting end inserted into the first box-shaped steel tube ; a main beam , having a main beam connecting end inserted into the first C-shaped sleeve ; and a main beam fixing steel plate , the prefabricated structural system being characterized in that each first C-shaped sleeve is provided with first wedge shaped recesses at ends of upper and lower flanges thereof; and that said main beam fixing steel plate is provided with first wedge shaped protrusions that are tenon-mortise-jointed with first wedge shaped recesses of the first C-shaped sleeve at both sides.
A cold-storage agent comprising: water; ammonium chloride; potassium chloride; and sodium sulfate, wherein content of the ammonium chloride, the potassium chloride, and the sodium sulfate satisfies the following Formula : 1.0 < ammonium chloride / potassium chloride + sodium sulfate < 5.0 water; ammonium chloride; potassium chloride; and sodium sulfate, wherein content of the ammonium chloride, the potassium chloride, and the sodium sulfate satisfies the following Formula : 1.0 < ammonium chloride / potassium chloride + sodium sulfate < 5.0
Apparatus for determining model parameters , the apparatus comprising: an object model transformer configured to receive an object model of a known object and to perform a transformation of the object model based on a set of model parameters from a first frame of reference to a second frame of reference, to determine as result of this transformation a transformed object model comprising at least one region, the at least one region being associated to an object region of the object ; a region comparator configured to receive the transformed object model and an image depicting the object , to determine for a selected region of the transformed object model a region-related similarity measure representative of a similarity between the selected region and an image section of the image associated to the selected region via a transformation-dependent mapping; and a model parameter determiner configured to determine an updated set of model parameters on the basis of the region-related similarity measure and an optimization scheme, wherein the similarity measure comprises a geometric similarity component and an image value similarity component. an object model transformer configured to receive an object model of a known object and to perform a transformation of the object model based on a set of model parameters from a first frame of reference to a second frame of reference, to determine as result of this transformation a transformed object model comprising at least one region, the at least one region being associated to an object region of the object ; a region comparator configured to receive the transformed object model and an image depicting the object , to determine for a selected region of the transformed object model a region-related similarity measure representative of a similarity between the selected region and an image section of the image associated to the selected region via a transformation-dependent mapping; and a model parameter determiner configured to determine an updated set of model parameters on the basis of the region-related similarity measure and an optimization scheme, wherein the similarity measure comprises a geometric similarity component and an image value similarity component.
Method for identifying coded information arranged on an aerosol-generating consumable article to be consumed by using an aerosol generating device, the article defining an insertion direction (Z) and comprising at least one indicium containing coded information about the article arranged on or inside said article , the aerosol-generating device comprising a cavity arranged for insertion of the article along the insertion direction (Z) and comprising an indicium detection system , the method comprising: reading the coded information of said indicium by the indicium detection system only during the lapse of time of the movement of insertion of said aerosol-generating article in the cavity , as the article is moved in or through the cavity of said aerosol-generating device .
An information processing system comprising: circuitry configured to receive a request from a further information processing system for individual computing device identification information to uniquely specify a computing device , the request including individual identification information uniquely specifying a user of the computing device, generate the individual computing device identification information, wherein the individual computing device identification information includes an individual set terminal code identifying the computing device with respect to other computing devices and is for use when using the computing device to access data at the information processing system associated with the individual identification information, and record in a storage device at the information processing system the individual set terminal code in association with the individual identification information.
Electronic equipment comprising a chassis engaged in a box having a face parallel to the engagement direction (D) for engaging the chassis in the box and provided with at least one push button (20.1, 20.2, 20.3) that is mounted to slide perpendicularly to said face and that includes a light guide (23.1, 23.2, 23.3) projecting into said box, at least one electronic card being mounted on the chassis so as to extend parallel to said face of the box and being provided with at least one switch (5.1, 5.2, 5.3) designed to cooperate both with the push button and also with at least one light source (6.1, 6.2, 6.3) that is surrounded by a light-tight frame (7.1, 7.2, 7.3), which frame receives the free end of the light guide, the light-tight frame being of height that decreases on going away from the chassis and the end of the light guide being of height that decreases in the opposite direction so that they come mutually into contact only once the chassis is fully engaged in the box.
Gripping equipment for lifting apparatuses of the type comprising: a rigid support framework which is adapted to be fixed/attached to the lifting apparatus ; and one or more manually controlled gripping members that are firmly fixed to said rigid support framework and are adapted to grasp and hold a specific object to be moved; the gripping equipment being characterised in that said rigid support framework comprises at least one rectilinear tubular element with polygonal cross-section , which is made of metal and has a sectional modular structure comprising two rectilinear metallic section-bars of given length and with a substantially C- or L- shaped cross-section, separate and distinct from one another, which are firmly fitted one into the other along the respective longer longitudinal edges, so as to form a rigid tubular structure with a polygonal cross-section that substantially copies the shape of said rectilinear tubular element .
An illumination system having a reduced z-dimensional profile, the illumination system comprising: a PCB ; an infrared, IR, illumination device (410; 725; 805) that generates IR light, the PCB being oriented in parallel to the IR illumination device's optical axis; a collimating optic (425; 620; 720; 805); a turning optic (420; 730; 815) that receives the IR light from the IR illumination device and that reflects the IR light as reflected IR light, wherein the reflected IR light is reflected out of a plane parallel to the plane of the PCB toward the collimating optic and is then emitted from the collimating optic as collimated IR light; and a waveguide positioned in a fixed position relative to the collimating optic, wherein the waveguide includes an input port positioned to receive the collimated IR light (430; 830), wherein the z-dimension corresponds to a direction in which the IR light is collimated. a PCB ; an infrared, IR, illumination device (410; 725; 805) that generates IR light, the PCB being oriented in parallel to the IR illumination device's optical axis; a collimating optic (425; 620; 720; 805); a turning optic (420; 730; 815) that receives the IR light from the IR illumination device and that reflects the IR light as reflected IR light, wherein the reflected IR light is reflected out of a plane parallel to the plane of the PCB toward the collimating optic and is then emitted from the collimating optic as collimated IR light; and a waveguide positioned in a fixed position relative to the collimating optic, wherein the waveguide includes an input port positioned to receive the collimated IR light (430; 830), wherein the z-dimension corresponds to a direction in which the IR light is collimated.
A method of performing a multiplexed digital amplification assay by creating R signals representative of light detected in R different wavelength regimes from partitions and calculating an average level of each target in the partitions based on the R signals, the method comprising: amplifying more than R targets in partitions, wherein a fraction of the partitions contain two or more different targets in the same individual partitions, and wherein the partitions are fluid volumes that are isolated from one another; creating R signals representative of light detected in R different wavelength regimes from the partitions, where R ≥ 2; and calculating a concentration of each target in the partitions based on the respective numbers of partitions positive for each signal alone and signal combination wherein the calculation is based on copies of each target having a Poisson distribution among the partitions; wherein calculating includes determining a total number of amplification-positive partitions for each target and determining a total number of partitions, wherein the concentration calculated accounts for a coincidence of different targets in the same individual partitions, wherein the more than R targets include a first target and a second target, and wherein calculating includes determining a first partition frequency for partitions containing the first target, a second partitions frequency for partitions containing the second target, and an estimated frequency of partitions containing both the first target and the second target as a product of the first and second partition frequencies. amplifying more than R targets in partitions, wherein a fraction of the partitions contain two or more different targets in the same individual partitions, and wherein the partitions are fluid volumes that are isolated from one another; creating R signals representative of light detected in R different wavelength regimes from the partitions, where R ≥ 2; and calculating a concentration of each target in the partitions based on the respective numbers of partitions positive for each signal alone and signal combination wherein the calculation is based on copies of each target having a Poisson distribution among the partitions; wherein calculating includes determining a total number of amplification-positive partitions for each target and determining a total number of partitions, wherein the concentration calculated accounts for a coincidence of different targets in the same individual partitions, wherein the more than R targets include a first target and a second target, and wherein calculating includes determining a first partition frequency for partitions containing the first target, a second partitions frequency for partitions containing the second target, and an estimated frequency of partitions containing both the first target and the second target as a product of the first and second partition frequencies.
A senolytic composition comprising: (A) a compound having a formula selected from and wherein R1 and R2 may be the same or different, and are selected from a membrane-targeting signal, hydrogen, carboxyl, an alkane, a cyclic alkane, an alkene, a cyclic alkene, an alkyne, a ketone, an aldehyde, a carboxylic acid, an ether, an ester, an amine, an amide, a monocyclic arene, a polycyclic arene, a heteroarene, a phenol, and a benzoic acid; wherein the membrane-targeting signal is selected from myristic acid, palmitic acid, stearic acid, oleic acid, a short-chain fatty acid, and a medium-chain fatty acid; and at least one of R1 and R2 is a membrane-targeting signal selected from myristic acid, palmitic acid, stearic acid, oleic acid, and a medium-chain fatty acid; or (B) a compound having a formula selected from: (a) (b) or (c) wherein R1 is a membrane-targeting signal selected from myristic acid, palmitic acid, stearic acid, oleic acid, and a medium-chain fatty acid. wherein R1 and R2 may be the same or different, and are selected from a membrane-targeting signal, hydrogen, carboxyl, an alkane, a cyclic alkane, an alkene, a cyclic alkene, an alkyne, a ketone, an aldehyde, a carboxylic acid, an ether, an ester, an amine, an amide, a monocyclic arene, a polycyclic arene, a heteroarene, a phenol, and a benzoic acid; wherein the membrane-targeting signal is selected from myristic acid, palmitic acid, stearic acid, oleic acid, a short-chain fatty acid, and a medium-chain fatty acid; and at least one of R1 and R2 is a membrane-targeting signal selected from myristic acid, palmitic acid, stearic acid, oleic acid, and a medium-chain fatty acid; or (B) a compound having a formula selected from: (a) (b) or (c) (a) (b) or (c) wherein R1 is a membrane-targeting signal selected from myristic acid, palmitic acid, stearic acid, oleic acid, and a medium-chain fatty acid.