mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus (100; 100a; 100b) for attaching an orthogonal mode transducer, OMT, (200; 200a) to an antenna , wherein said apparatus comprises a frame for receiving said OMT , and an antenna interface device for establishing a radio frequency, RF, signal connection (rfs) between said OMT (200; 200a) and said antenna , wherein said frame comprises a supporting surface for releasably attaching said antenna interface device to said frame , wherein said frame comprises a fastening device for releasably attaching said frame to said antenna , wherein said fastening device comprises at least two fastening sections (114_1, 114_2), characterized in that at least one of said two fastening sections (114_1, 114_2) comprises an elastically deformable zone (z_1, z_2). wherein said frame comprises a fastening device for releasably attaching said frame to said antenna , wherein said fastening device comprises at least two fastening sections (114_1, 114_2), characterized in that at least one of said two fastening sections (114_1, 114_2) comprises an elastically deformable zone (z_1, z_2).
Device for thermal insulation of a container , comprising an inner layer and an outer layer which is flexible at least in sections, at least one vacuum insulation element being arranged on the outer layer in such a way that the vacuum insulation element can be fastened to the outer layer against a container wall , the vacuum insulation element being fastened to the outer layer by adhesive bonding, characterized in that the inner layer is embodied self-adhesively on both sides in order to be connected to the vacuum insulation element and the container in the installed state in such a way that the inner layer protects the vacuum insulation element and prevents air convection between the vacuum insulation element and the container wall .
A soil processing machine, comprising: - a machine frame having two longitudinal members disposed spaced from each other transversely to a machine longitudinal direction (L), extending substantially in the machine longitudinal direction (L), and two transverse members disposed spaced from each other in the machine longitudinal direction (L), extending substantially transversely to the machine longitudinal direction (L), - a soil processing roller rotatably supported about a roller rotational axis (D) in the machine longitudinal direction (L) between the transverse members on the longitudinal members , - a coupling assembly for coupling the machine frame to another machine frame of the soil processing machine or to another machine , - a chassis assembly , wherein the chassis assembly comprises a plurality of chassis units height-adjustably supported on the machine frame , characterised in that the chassis assembly comprises a plurality of independently height-adjustable chassis units . - a machine frame having two longitudinal members disposed spaced from each other transversely to a machine longitudinal direction (L), extending substantially in the machine longitudinal direction (L), and two transverse members disposed spaced from each other in the machine longitudinal direction (L), extending substantially transversely to the machine longitudinal direction (L), - a soil processing roller rotatably supported about a roller rotational axis (D) in the machine longitudinal direction (L) between the transverse members on the longitudinal members , - a coupling assembly for coupling the machine frame to another machine frame of the soil processing machine or to another machine , - a chassis assembly , wherein the chassis assembly comprises a plurality of chassis units height-adjustably supported on the machine frame ,
A machining device , specifically for machining workpieces made of wood, wood-based materials, plastic or the like, including a workpiece table , by means of which workpieces can be held and including at least one tool for machining the workpiece held in the workpiece table , and a workpiece feed including transport elements , by means of which workpieces can be fed to the workpiece table , the workpiece feed having a workpiece feed table upstream of the transport elements in the flow of materials, on which workpieces can be fed to the transport elements , characterized in that a capping device enabling customization of the feedable workpiece is disposed at the workpiece feed table .
Process consisting in cooling at least one component , such as a sensor, arranged within a compartment of an exhaust after treatment system of a vehicle , the exhaust after treatment system comprising a cooling system that is activated during active regeneration of one or more particulate filters arranged within the exhaust after treatment system compartment and that includes a pipe for extracting hot air present at the vicinity of the component to be cooled, so that said component is protected as a priority against high temperatures during active regeneration periods, the process including a step of adjusting the flowrate of hot air extracted at the vicinity of each component to be cooled, characterized in that the process comprises a step consisting in extracting hot air present at the vicinity of each component to be cooled.
A seat pad having a placing surface , the seat pad being formed in a flat rectangular parallelepiped shape, wherein side surfaces of the seat pad include a first side surface extending in a direction perpendicular to the first lateral direction (B1) and a second side surface extending in a direction perpendicular to a second lateral direction (B2), wherein a lateral slit section extending from an outer side toward an inner side of the seat pad is formed in a first lateral direction (B1) along the placing surface , and at least a portion of the lateral slit section gradually becomes smaller in a thickness direction (H) perpendicular to the placing surface from the outer side toward the inner side of the seat pad in the first lateral direction (B1), characterised in that : lateral slit sections as defined above are formed at portions of the seat pad disposed on both sides in the first lateral direction (B1), and not formed at a central portion of the first lateral direction, the lateral slit sections are open at the first side surface and extend inward from the first side surface in the first lateral direction (B1), and the sizes of the lateral slit sections in the first lateral direction (B1) are equal to each other throughout the length in the second lateral direction (B2), the lateral slit sections being smaller than the seat pad in the second lateral direction (B2) and are not open at the second side surface . lateral slit sections as defined above are formed at portions of the seat pad disposed on both sides in the first lateral direction (B1), and not formed at a central portion of the first lateral direction, the lateral slit sections are open at the first side surface and extend inward from the first side surface in the first lateral direction (B1), and the sizes of the lateral slit sections in the first lateral direction (B1) are equal to each other throughout the length in the second lateral direction (B2), the lateral slit sections being smaller than the seat pad in the second lateral direction (B2) and are not open at the second side surface .
A method of laser induced breakdown spectroscopy of a sample comprising: directing a laser beam to a target surface on the sample , the target surface located on a proximal surface of the sample , wherein the method further comprises: manipulating the laser beam by tuning the laser beam to substantially maximize fluence at the target surface ; and generating ablation and plasma emission from the sample at the target surface , wherein manipulating the laser beam by tuning the laser beam to substantially maximize fluence at the target surface is performed with an optical instrument including an electronically tunable lens and the optical instrument further comprises a photodiode generating a photodiode output and wherein manipulating the laser beam by tuning the laser beam to substantially maximize fluence at the target surface is achieved by adjusting the electronically tunable lens such that a normalized intensity of the photodiode output is coincident with an observed normalized intensity of ionic lines detected from the sample during ablation and plasma emission of the sample . manipulating the laser beam by tuning the laser beam to substantially maximize fluence at the target surface ; and generating ablation and plasma emission from the sample at the target surface , wherein manipulating the laser beam by tuning the laser beam to substantially maximize fluence at the target surface is performed with an optical instrument including an electronically tunable lens and the optical instrument further comprises a photodiode generating a photodiode output and wherein manipulating the laser beam by tuning the laser beam to substantially maximize fluence at the target surface is achieved by adjusting the electronically tunable lens such that a normalized intensity of the photodiode output is coincident with an observed normalized intensity of ionic lines detected from the sample during ablation and plasma emission of the sample .
A method performed by a user equipment, UE, in a wireless communication system supporting dynamic time division duplexing, TDD, the method comprising: receiving, from a base station , configuration information for uplink, UL, transmission, wherein the configuration information for the UL transmission informs a symbol location of a starting symbol for the UL transmission, among a plurality of symbols in a slot; receiving, from the base station , resource configuration information for a physical uplink control channel, PUCCH, for a scheduling request, SR, wherein the resource configuration information informs a periodicity for transmitting the PUCCH; and transmitting, to the base station , the PUCCH for the SR in a resource that is determined based on the symbol location of the starting symbol for the UL transmission, in case that the periodicity is smaller than the slot duration. receiving, from a base station , configuration information for uplink, UL, transmission, wherein the configuration information for the UL transmission informs a symbol location of a starting symbol for the UL transmission, among a plurality of symbols in a slot; receiving, from the base station , resource configuration information for a physical uplink control channel, PUCCH, for a scheduling request, SR, wherein the resource configuration information informs a periodicity for transmitting the PUCCH; and transmitting, to the base station , the PUCCH for the SR in a resource that is determined based on the symbol location of the starting symbol for the UL transmission, in case that the periodicity is smaller than the slot duration.
An ink composition comprising a glycidyl ether compound in a range of 7 to 38 wt% in the total composition, wherein haze is adjustable by UV irradiation; wherein the composition further comprises an epoxy compound having cyclic structures in the molecular structure; wherein the composition further comprises a compound having an oxetane group; wherein the epoxy compound having cyclic structures in the molecular structure is included in an amount of 40 to 150 parts by weight relative to 100 parts by weight of the glycidyl ether compound; wherein the compound having an oxetane group is included in an amount of 150 to 300 parts by weight relative to 100 parts by weight of the glycidyl ether compound. wherein the composition further comprises an epoxy compound having cyclic structures in the molecular structure; wherein the composition further comprises a compound having an oxetane group; wherein the epoxy compound having cyclic structures in the molecular structure is included in an amount of 40 to 150 parts by weight relative to 100 parts by weight of the glycidyl ether compound; wherein the compound having an oxetane group is included in an amount of 150 to 300 parts by weight relative to 100 parts by weight of the glycidyl ether compound.
A secure lens sheet or layer suitable for use in a micro-optic system, which comprises a plurality of joined fine lens arrays, wherein each array is in contact with an adjacent or contiguous array, or separated by a gap less than or equal to 1 mm, and wherein the arrays have a lens pitch of greater than or equal to 275 lenses per centimeter, wherein each array has a lens pitch different from an adjacent or contiguous array and/or each lens array is oriented in a direction different from an adjacent or contiguous array, wherein the secure lens sheet or layer is an elongate lens sheet that has a length and a width and is made up of an arrangement of triangle-shaped lenticular lens arrays selected from the group of acute isosceles triangle-shaped lenticular lens arrays, and pairs of right isosceles triangle-shaped lenticular lens arrays that extend fully across its width and along its length, with each pair forming a square, with one lens array orientated in a direction perpendicular to the other lens array in the pair.
A method for determining effectiveness of an overlay correction process, the method comprising: obtaining a first set of in-plane distortions for a plurality of wafers, the plurality of wafers including wafers from multiple lots, and the first set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers prior to application of the overlay correction process; obtaining a second set of in-plane distortions for the plurality of wafers, the second set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers after application of the overlay correction process; decomposing the first set of in-plane distortions to a first set of decomposed components utilizing a processor; decomposing the second set of in-plane distortions to a second set of decomposed components utilizing the processor; and determining an effectiveness factor of the overlay correction process for at least one decomposed component based on a comparison between the first set of decomposed components and the second set of decomposed components; wherein each of the first and second sets of decomposed components includes: a common process signature , higher order polynomial model lot-to-lot variations , higher order polynomial model wafer-to-wafer variations , corrections per exposure (CPE) model common signature , and CPE model wafer-to-wafer variations . obtaining a first set of in-plane distortions for a plurality of wafers, the plurality of wafers including wafers from multiple lots, and the first set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers prior to application of the overlay correction process; obtaining a second set of in-plane distortions for the plurality of wafers, the second set of in-plane distortions obtained for the plurality of wafers representing in-plane distortions of the plurality of wafers after application of the overlay correction process; decomposing the first set of in-plane distortions to a first set of decomposed components utilizing a processor; decomposing the second set of in-plane distortions to a second set of decomposed components utilizing the processor; and determining an effectiveness factor of the overlay correction process for at least one decomposed component based on a comparison between the first set of decomposed components and the second set of decomposed components; wherein each of the first and second sets of decomposed components includes: a common process signature , higher order polynomial model lot-to-lot variations , higher order polynomial model wafer-to-wafer variations , corrections per exposure (CPE) model common signature , and CPE model wafer-to-wafer variations .
A smoking article (100; 400) comprising: a first segment (102; 402); a second segment (104; 404); and an aerosol generating substrate (106; 406) coupled to the first and second segments (102, 104; 402, 404); wherein at least one of the first and second segments (102, 104; 402, 404) comprises a vapour release portion within the at least one of the first segment (102; 402) and the second segment (104; 404); and wherein the second segment (104; 404) defines a cavity that is adapted to receive at least a section of the first segment (102; 402), wherein the first segment (102; 402) and the second segment (104; 404) interact to form an airflow pathway that does not incorporate the vapour release portion, whereby the first and second segments (102, 104; 402, 404) are movable relative to each other from a first configuration to a second configuration such that the smoking article (100; 400) is provided with a changeable length, whereby in the first configuration the vapour release portion is substantially isolated from the airflow pathway and in the second configuration the vapour release portion is exposed to the airflow pathway. a first segment (102; 402); a second segment (104; 404); and an aerosol generating substrate (106; 406) coupled to the first and second segments (102, 104; 402, 404); wherein at least one of the first and second segments (102, 104; 402, 404) comprises a vapour release portion within the at least one of the first segment (102; 402) and the second segment (104; 404); and wherein the second segment (104; 404) defines a cavity that is adapted to receive at least a section of the first segment (102; 402), wherein the first segment (102; 402) and the second segment (104; 404) interact to form an airflow pathway that does not incorporate the vapour release portion, whereby the first and second segments (102, 104; 402, 404) are movable relative to each other from a first configuration to a second configuration such that the smoking article (100; 400) is provided with a changeable length, whereby in the first configuration the vapour release portion is substantially isolated from the airflow pathway and in the second configuration the vapour release portion is exposed to the airflow pathway.
A method for classifying electromagnetic signals, comprising the following steps: - receiving an electromagnetic signal; - generating a measurement signal from the received electromagnetic signal; - complementing the measurement signal with information missing in the measurement signal to provide a modified measurement signal by using at least one machine learning module , such that information about the signal is added to the measurement signal and/or missing parts of the measurement signal are added; and - classifying the received electromagnetic signal based on the modified measurement signal, wherein the at least one machine learning module comprises an artificial neural network system that is used to complement the measurement signal, wherein the neural network system is configured to complement the measurement signal by applying pattern recognition techniques to the measurement signal. - receiving an electromagnetic signal; - generating a measurement signal from the received electromagnetic signal; - complementing the measurement signal with information missing in the measurement signal to provide a modified measurement signal by using at least one machine learning module , such that information about the signal is added to the measurement signal and/or missing parts of the measurement signal are added; and - classifying the received electromagnetic signal based on the modified measurement signal,
An apparatus for redundant measurements of a magnetic field originating from or influenced by an object, the apparatus comprising: at least one first Hall sensing element measuring at least one magnetic field property of the magnetic field, wherein the at least one first Hall sensing element is implemented on a first area of a semiconductor substrate and wherein the at least one measured magnetic field property comprises a strength of the magnetic field along a particular spatial direction; at least one second Hall sensing element measuring the same magnetic field property of the magnetic field, wherein the at least one second Hall sensing element is implemented on a second area of said semiconductor substrate; and wherein the first and second areas are adjacent to one another and isolated from one another by silicon-on-insulator technology. at least one first Hall sensing element measuring at least one magnetic field property of the magnetic field, wherein the at least one first Hall sensing element is implemented on a first area of a semiconductor substrate and wherein the at least one measured magnetic field property comprises a strength of the magnetic field along a particular spatial direction; at least one second Hall sensing element measuring the same magnetic field property of the magnetic field, wherein the at least one second Hall sensing element is implemented on a second area of said semiconductor substrate; and wherein the first and second areas are adjacent to one another and isolated from one another by silicon-on-insulator technology.
An induction-powered device for use in an alternating magnetic field, the induction-powered device comprising: a bobbin having a pair of opposing flanges and a magnetically permeable core therebetween, the bobbin including at least two constituent parts that connect to form the pair of opposing flanges and the core , wherein the at least two constituent parts of the bobbin comprise: a female bobbin having a first flange of the pair of opposing flanges and a female core portion ; and a male bobbin having a second flange of the pair of opposing flanges and a male core portion for mating with the female core portion , wherein the male core portion and the female core portion define the core of the bobbin when mated; an electrically conductive coil surrounding the core ; and an electrical load electrically connected to the coil , wherein the coil is configured to generate a voltage when exposed to the alternating magnetic field, to power the electrical load, and wherein the at least two constituent parts , when separate, permit the coil to be positioned around at least a portion of the core and, when connected, retain the coil around the core , characterised in that the electrical load is nested within the core . a bobbin having a pair of opposing flanges and a magnetically permeable core therebetween, the bobbin including at least two constituent parts that connect to form the pair of opposing flanges and the core , wherein the at least two constituent parts of the bobbin comprise: a female bobbin having a first flange of the pair of opposing flanges and a female core portion ; and a male bobbin having a second flange of the pair of opposing flanges and a male core portion for mating with the female core portion , wherein the male core portion and the female core portion define the core of the bobbin when mated; a female bobbin having a first flange of the pair of opposing flanges and a female core portion ; and a male bobbin having a second flange of the pair of opposing flanges and a male core portion for mating with the female core portion , wherein the male core portion and the female core portion define the core of the bobbin when mated; an electrically conductive coil surrounding the core ; and an electrical load electrically connected to the coil , wherein the coil is configured to generate a voltage when exposed to the alternating magnetic field, to power the electrical load, and wherein the at least two constituent parts , when separate, permit the coil to be positioned around at least a portion of the core and, when connected, retain the coil around the core , characterised in that the electrical load is nested within the core .