mhurhangee/patent-ind-claim-en huggingface dataset:
Semiconductor module having: - an integrated circuit that comprises at least one RF oscillator for generating a radar signal; - a redistribution layer for externally connecting the integrated circuit ; and - at least two antenna structures (14; 16), integrated in the semiconductor module , for sending and/or receiving radar signals, wherein at least one of the at least two antenna structures (14; 16) is connected to the integrated circuit , and wherein at least one first of the antenna structures is arranged at a different height from at least one second of the antenna structures , wherein the at least two antenna structures (14; 16) are stacked antenna structures, wherein the at least one first antenna structure is embedded in a package material of the semiconductor module outside a height area of the redistribution layer , wherein the at least one first antenna structure is embedded in said package material of the semiconductor module inside a height area of a semiconductor chip forming the integrated circuit in a manner laterally offset from said semiconductor chip. - an integrated circuit that comprises at least one RF oscillator for generating a radar signal; - a redistribution layer for externally connecting the integrated circuit ; and - at least two antenna structures (14; 16), integrated in the semiconductor module , for sending and/or receiving radar signals, wherein at least one of the at least two antenna structures (14; 16) is connected to the integrated circuit , and wherein at least one first of the antenna structures is arranged at a different height from at least one second of the antenna structures ,
A message handler (6 1 , 6 2 ; 20) configured, in response to receiving a data package (13 1 , 13 2 ) which is formatted according to a given communications protocol and which comprises package-directing data and payload data , to generate a package having a predetermined data format which comprises a header and payload data , wherein the header comprises an address generated in dependence upon the package-directing data and wherein the payload comprises the data package, and wherein the message handler is configured to copy data from a first field in the package-directing data into a corresponding field in the header.
Method for producing a laminate preferably for a floor covering, wherein the laminate has a decorative layer and a wear layer of polyurethane, comprising the following steps: - applying a first liquid polyurethane material to a release layer to form the wear layer, - inserting a decorative sheet into the first polyurethane material , - applying a second liquid polyurethane material to the decorative sheet , which is impregnated with the first polyurethane material and the second polyurethane material , - supplying heat energy to cure the first polyurethane material and the second polyurethane material , - separating the release layer from the wear layer, wherein the heat energy is supplied to the first polyurethane material and the second polyurethane material from below through the release layer. - applying a first liquid polyurethane material to a release layer to form the wear layer, - inserting a decorative sheet into the first polyurethane material , - applying a second liquid polyurethane material to the decorative sheet , which is impregnated with the first polyurethane material and the second polyurethane material , - supplying heat energy to cure the first polyurethane material and the second polyurethane material , - separating the release layer from the wear layer, wherein the heat energy is supplied to the first polyurethane material and the second polyurethane material from below through the release layer.
Sewing machine comprising stitch-forming tools, such as at least two needles guiding a respective thread, for the generation of seams by the stitch-forming tools guiding a respective thread, wherein the sewing machine is provided with a conveying system for material to be sewn, by means of which the material to be sewn is feedable relative to the stitch-forming tools, and also with a puller device , which is arranged downstream - in relation to the intended feed direction - of the conveying system for material to be sewn, of the sewing machine , the puller device is in this case provided with two or more rotatingly driven rollers , wherein the two rollers are provided for applying predetermined feed directions of the material to be sewn, in particular in order to apply curved feed directions to the material to be sewn instead of a rectilinear feed direction, characterized in that the puller device has a separate motor drive for each of the at least two rollers , wherein the two motor drives are actuable separately and independently of one another, in order to simultaneously provide the at least two rollers with a respective drive movement which is independent of the other roller.
A mounting assembly (1-n) for mounting a blind cassette operative to dispense a blind along a guide rail (35-n) disposed in a roof structure of a vehicle , the mounting assembly (1-n) comprising: a mount (45-n) for mounting the blind cassette to the vehicle ; and a slide carrier (47-n) having a carrier section (67-n) for alignment with the guide rail (35-n), the slide carrier (47-n) being moveable relative to the mount (45-n) to facilitate alignment of the carrier section (67-n) with the guide rail (35-n); wherein the mount (45-n) is configured to receive at least one cassette mounting fastener (41-n) configured to fasten the mount (45-n) to the roof structure of the vehicle ; wherein the slide carrier (47-n) comprises at least one carrier aperture for receiving the or each cassette mounting fastener (41-n); characterised in that a first one of the carrier aperture is configured to enable movement of the slide carrier (47-n) relative to a first cassette mounting fastener (41-n) along a first axis and to limit movement of the slide carrier (47-n) relative to the first cassette mounting fastener (41-n) along a second axis extending perpendicular to the first axis; and a second one of the carrier aperture being configured to enable movement of the slide carrier (47-n) relative to a second cassette mounting fastener (41-n) along the first axis and the second axis. a mount (45-n) for mounting the blind cassette to the vehicle ; and a slide carrier (47-n) having a carrier section (67-n) for alignment with the guide rail (35-n), the slide carrier (47-n) being moveable relative to the mount (45-n) to facilitate alignment of the carrier section (67-n) with the guide rail (35-n); wherein the mount (45-n) is configured to receive at least one cassette mounting fastener (41-n) configured to fasten the mount (45-n) to the roof structure of the vehicle ; wherein the slide carrier (47-n) comprises at least one carrier aperture for receiving the or each cassette mounting fastener (41-n); characterised in that a first one of the carrier aperture is configured to enable movement of the slide carrier (47-n) relative to a first cassette mounting fastener (41-n) along a first axis and to limit movement of the slide carrier (47-n) relative to the first cassette mounting fastener (41-n) along a second axis extending perpendicular to the first axis; and a second one of the carrier aperture being configured to enable movement of the slide carrier (47-n) relative to a second cassette mounting fastener (41-n) along the first axis and the second axis.
Process for manufacturing a non-aqueous composition comprising the following steps: i) addition of an anionic surfactant selected form the group consisting of, alfa olefin sulfonate, lauryl phosphate, sodium coco sulphate, sodium methyl cocoyl taurate, sodium methyl oleoyl taurate, sodium lauryl sulphate, sodium cocoyl isethionate, disodium lauryl sulfosuccinate, to a polyol at a temperature of 60°C or above such that the surfactant completely dissolves in the polyol followed by; ii) addition of an alkali metal phosphate salt; iii) cooling of the mix to a temperature below the solubility point of the surfactant in polyol, the cooling resulting in a structured mix, in which the weight ratio of alkali metal phosphate salt to surfactant is from 1.1:1 to 10:1. i) addition of an anionic surfactant selected form the group consisting of, alfa olefin sulfonate, lauryl phosphate, sodium coco sulphate, sodium methyl cocoyl taurate, sodium methyl oleoyl taurate, sodium lauryl sulphate, sodium cocoyl isethionate, disodium lauryl sulfosuccinate, to a polyol at a temperature of 60°C or above such that the surfactant completely dissolves in the polyol followed by; ii) addition of an alkali metal phosphate salt; iii) cooling of the mix to a temperature below the solubility point of the surfactant in polyol, the cooling resulting in a structured mix,
An adsorbent composition that is a resin composition containing a polyolefin resin, zeolite and a metal soap, wherein the metal soap contains a calcium salt of a long-chain fatty acid which is a divalent salt of a long-chain fatty acid having 5 to 30 carbon atoms and calcium, and a zinc salt of a long-chain fatty acid which is a divalent salt of a long-chain fatty acid having 5 to 30 carbon atoms and zinc, wherein the molar ratio of the calcium salt of a long-chain fatty acid to the zinc salt of a long-chain fatty acid is 1.4 to 2.8, and wherein the metal soap is contained at 1.4 % by weight to 3.4 % by weight relative to the polyolefin resin, wherein the zeolite is contained at 30 % by weight or more relative to the entire composition, and wherein the calcium salt of a long-chain fatty acid and the zinc salt of a long-chain fatty acid are calcium stearate and zinc stearate, respectively. wherein the molar ratio of the calcium salt of a long-chain fatty acid to the zinc salt of a long-chain fatty acid is 1.4 to 2.8, and wherein the metal soap is contained at 1.4 % by weight to 3.4 % by weight relative to the polyolefin resin, wherein the zeolite is contained at 30 % by weight or more relative to the entire composition, and wherein the calcium salt of a long-chain fatty acid and the zinc salt of a long-chain fatty acid are calcium stearate and zinc stearate, respectively.
A method of automatically monitoring a position and vital signs of a subject (S) supported by a patient support apparatus , the method comprising: receiving, by a processing device of a monitoring device , long wave infrared (LWIR) image data from a first imaging component of the monitoring device and near infrared (NIR) image data from a second imaging component of the monitoring device ; determining, by the processing device , one or more boundaries of the patient support apparatus from the NIR image data; constructing, by the processing device , one or more virtual boundaries that correspond to the one or more boundaries of the patient support apparatus ; determining, by the processing device , a location of the subject with respect to the one or more virtual boundaries from at least one of the LWIR image data and the NIR image data; determining, by the processing device , a facial temperature of the subject from the LWIR image data; determining, by the processing device , a heart rate of the subject from the NIR image data; and determining, by the processing device , a respiration rate of the subject from at least one of the LWIR image data and the NIR image data. receiving, by a processing device of a monitoring device , long wave infrared (LWIR) image data from a first imaging component of the monitoring device and near infrared (NIR) image data from a second imaging component of the monitoring device ; determining, by the processing device , one or more boundaries of the patient support apparatus from the NIR image data; constructing, by the processing device , one or more virtual boundaries that correspond to the one or more boundaries of the patient support apparatus ; determining, by the processing device , a location of the subject with respect to the one or more virtual boundaries from at least one of the LWIR image data and the NIR image data; determining, by the processing device , a facial temperature of the subject from the LWIR image data; determining, by the processing device , a heart rate of the subject from the NIR image data; and determining, by the processing device , a respiration rate of the subject from at least one of the LWIR image data and the NIR image data.
Packaging unit for a plurality of individual products assembled to form a group , wherein the individual products have a shape in which at least one side is corrugated, inclined, curved or otherwise uneven and/or the individual products have an anisotropic structure or an anisotropic construction, the packaging unit comprising a plastic bag which accommodates the group of individual products and a stiffening element which is provided in the plastic bag or around the plastic bag, wherein the stiffening element is manufactured from a material having a higher stiffness than the plastic bag, wherein the stiffening element is designed as exactly one banderole which partially surrounds the group of individual products , wherein the banderole is unclosed and has two free ends, wherein the banderole extends as a whole over three adjacent sides of the group of individual products , wherein the banderole runs along a top side serving for a removal of the products during regular use or a bottom side, opposite said top side, of the group of individual products , and also along sides of the group that are arranged on the left and right during a removal during regular use, or the banderole runs along a top side serving for a removal of the products during regular use or a bottom side, opposite said top side, of the group of individual products , and also along a front side provided for a sales presentation and a rear side, opposite said front side, of the group of individual products , wherein at least one portion of the banderole that runs along the top side or the bottom side of the group of individual products has a width which corresponds to a width of an associated top side or bottom side of the group of individual products , characterized in that at least one wing which extends at least partially over an adjacent side of the group of individual products is provided on the portion , and the free ends of the banderole project over the bottom side or top side, opposite the portion , of the group of individual products or are bent over to the bottom side or top side, opposite the portion , of the group of individual products .
A container filler-inspecting apparatus for inspecting a filler (S1) with which a container is filled by a fixed amount, comprising: a weight-measuring unit for measuring the weight of the container filled with the filler (S1); a sample-extracting unit for extracting a fixed amount of sample filler (S2) from a tip opening of the container ; and a sampling unit arranged to perform a sampling operation by wiping off the sample filler (S2) extracted by the sample-extracting unit with a sampling paper sheet . a weight-measuring unit for measuring the weight of the container filled with the filler (S1); a sample-extracting unit for extracting a fixed amount of sample filler (S2) from a tip opening of the container ; and a sampling unit arranged to perform a sampling operation by wiping off the sample filler (S2) extracted by the sample-extracting unit with a sampling paper sheet .
A display apparatus, comprising: a display panel configured to display an image; a supporting member on a rear surface of the display panel ; a sound generator between the display panel and the supporting member ; a vibration member between the sound generator and the supporting member and supported by the supporting member , and the vibration member is on a rear surface of the sound generator ; and at least one vibration adjustment member between the vibration member and the supporting member . a display panel configured to display an image; a supporting member on a rear surface of the display panel ; a sound generator between the display panel and the supporting member ; a vibration member between the sound generator and the supporting member and supported by the supporting member , and the vibration member is on a rear surface of the sound generator ; and at least one vibration adjustment member between the vibration member and the supporting member .
An apparatus, comprising: a video encoder to encode an input video signal to generate an output bitstream; and wherein: the video encoder employs a single binary tree for use in processing at least one P slice and at least one B slice for generating the output bitstream, characterised in that : the video encoder employs the single binary tree representing a binarization to encode coding unit (CU) prediction mode in a first syntax element for both the at least one P slice and the at least one B slice for generating the output bitstream; and the video encoder employs the single binary tree representing said binarization to encode prediction unit (PU) partition mode in a second syntax element for both the at least one P slice and the at least one B slice for generating the output bitstream; wherein the binarization employed is a function of whether or not a current CU of the at least one P slice or the at least one B slice is the smallest CU, SCU, or not. the video encoder employs a single binary tree for use in processing at least one P slice and at least one B slice for generating the output bitstream, characterised in that : the video encoder employs the single binary tree representing a binarization to encode coding unit (CU) prediction mode in a first syntax element for both the at least one P slice and the at least one B slice for generating the output bitstream; and the video encoder employs the single binary tree representing said binarization to encode prediction unit (PU) partition mode in a second syntax element for both the at least one P slice and the at least one B slice for generating the output bitstream; the video encoder employs the single binary tree representing a binarization to encode coding unit (CU) prediction mode in a first syntax element for both the at least one P slice and the at least one B slice for generating the output bitstream; and the video encoder employs the single binary tree representing said binarization to encode prediction unit (PU) partition mode in a second syntax element for both the at least one P slice and the at least one B slice for generating the output bitstream; wherein the binarization employed is a function of whether or not a current CU of the at least one P slice or the at least one B slice is the smallest CU, SCU, or not.
An electronic device, comprising: a metal bezel, a first partition and a second partition , the first partition and the second partition partitioning the metal bezel into a first sub-bezel and a second sub-bezel ; wherein the first sub-bezel is located between the first partition and the second partition ; wherein the electronic device further comprises: a feeding point , a first switch module , a second switch module , a first connecting portion , a second connecting portion and a third connecting portion ; the feeding point is connected to an end of the first sub-bezel through the first connecting portion ; a first end of the first switch module is connected to the second sub-bezel through the second connecting portion , and a second end of the first switch module is grounded; a connection position between the second connecting portion and the second partition is close to the feeding point ; and a first end of the second switch module is connected to the first sub-bezel through the third connecting portion , and a second end of the second switch module is grounded; wherein the feeding point , the first connecting portion , the first sub-bezel , the third connecting portion and the second switch module form an inverted F antenna ; the second sub-bezel , the second connecting portion and the first switch module form a parasitic antenna of the inverted F antenna , the electronic device further comprises a bandwidth optimization module ; a first end of the bandwidth optimization module is connected to the feeding point and a second end of the bandwidth optimization module is grounded, and the bandwidth optimization module comprises at least a variable capacitor ; a first end of the variable capacitor is connected to the feeding point and a second end of the variable capacitor is grounded. the feeding point is connected to an end of the first sub-bezel through the first connecting portion ; a first end of the first switch module is connected to the second sub-bezel through the second connecting portion , and a second end of the first switch module is grounded; a connection position between the second connecting portion and the second partition is close to the feeding point ; and a first end of the second switch module is connected to the first sub-bezel through the third connecting portion , and a second end of the second switch module is grounded; wherein the feeding point , the first connecting portion , the first sub-bezel , the third connecting portion and the second switch module form an inverted F antenna ; the second sub-bezel , the second connecting portion and the first switch module form a parasitic antenna of the inverted F antenna , the electronic device further comprises a bandwidth optimization module ; a first end of the bandwidth optimization module is connected to the feeding point and a second end of the bandwidth optimization module is grounded, and the bandwidth optimization module comprises at least a variable capacitor ; a first end of the variable capacitor is connected to the feeding point and a second end of the variable capacitor is grounded.
A wall of a building, wherein: the wall (1; 51; 102) is a masonry wall built from individual units laid in and bound together by mortar; a plurality of passageways (10, 11; 110, 111) is provided in said wall (1; 51; 102), the passageways each being elongated in a longitudinal direction; at least one reinforcement member (12, 13; 62, 63; 112, 113) is provided in each of said passageways (10, 11; 110, 111), the reinforcement members being elongated in the longitudinal direction of the passageways; and the reinforcement members (12, 13; 62, 63; 112, 113) in the passageways (10, 11; 110, 111) are each embedded in an adhesive substance , the adhesive substance being bonded to each of the reinforcement members and to an inner surface of the passageway in which the reinforcement member is provided; characterized in that said adhesive substance has an elongation at break of at least 40% and preferably at least 50% (DIN 53544) and a hardness at room temperature of at most 100 and preferably at most 90 Shore A. the wall (1; 51; 102) is a masonry wall built from individual units laid in and bound together by mortar; a plurality of passageways (10, 11; 110, 111) is provided in said wall (1; 51; 102), the passageways each being elongated in a longitudinal direction; at least one reinforcement member (12, 13; 62, 63; 112, 113) is provided in each of said passageways (10, 11; 110, 111), the reinforcement members being elongated in the longitudinal direction of the passageways; and the reinforcement members (12, 13; 62, 63; 112, 113) in the passageways (10, 11; 110, 111) are each embedded in an adhesive substance , the adhesive substance being bonded to each of the reinforcement members and to an inner surface of the passageway in which the reinforcement member is provided; characterized in that said adhesive substance has an elongation at break of at least 40% and preferably at least 50% (DIN 53544) and a hardness at room temperature of at most 100 and preferably at most 90 Shore A.