mhurhangee/patent-ind-claim-en huggingface dataset:
Fibre composite material component with fibre bundles and with a matrix (M) of thermoplastic and/or thermosetting material, wherein the fibre bundles are arranged so as to form a profile (P), wherein each fibre bundle together with the matrix (M) forms a brace in the profile (P), which is part of the profile (P), wherein bracing means are arranged between the fibre bundles , wherein at least two fibre bundles are arranged skewed with respect to one another, and wherein at least the two skewed and intersecting fibre bundles are embedded in the matrix (M) in the region of their intersection (K) such that the braces formed by the two skewed fibre bundles each have a broadening in this region, characterized in that at least one opening is provided in the region of the broadening and the opening is connected to a cavity (H) which is formed in the broadening .
A wireless communication method, comprising: determining whether a length of an RLC SDU or RLC SDU segment is greater than a threshold (S610); determining a type of length indicator which is allocated by a network (S630) when the length of the RLC SDU or RLC SDU segment is greater than the threshold; and determining whether to force to map the RLC SDU or RLC SDU segment to the end of an RLC PDU according to the type of the length indicator (S640), characterized by forcing to map the RLC SDU or RLC SDU segment to the end of the RLC PDU if the type of the length indicator is a first type (S650); and not forcing to map the RLC SDU or RLC SDU segment to the end of the RLC PDU if the type of the length indicator is a second type (S660); wherein the first type is an 11-bit length indicator and the second type is a 15-bit length indicator. determining whether a length of an RLC SDU or RLC SDU segment is greater than a threshold (S610); determining a type of length indicator which is allocated by a network (S630) when the length of the RLC SDU or RLC SDU segment is greater than the threshold; and determining whether to force to map the RLC SDU or RLC SDU segment to the end of an RLC PDU according to the type of the length indicator (S640), characterized by forcing to map the RLC SDU or RLC SDU segment to the end of the RLC PDU if the type of the length indicator is a first type (S650); and not forcing to map the RLC SDU or RLC SDU segment to the end of the RLC PDU if the type of the length indicator is a second type (S660); wherein the first type is an 11-bit length indicator and the second type is a 15-bit length indicator.
A method comprising: obtaining an infrared "IR" spectrum of a Peripheral Blood Mononuclear Cells "PBMC" sample, extracted from a peripheral blood sample collected from a subject, by analyzing the PBMC sample by infrared spectroscopy; based on the infrared spectrum, determining whether the subject has a solid tumor; and generating an output indicative of the presence of a solid tumor based on the step of determining whether the subject has a solid tumor. obtaining an infrared "IR" spectrum of a Peripheral Blood Mononuclear Cells "PBMC" sample, extracted from a peripheral blood sample collected from a subject, by analyzing the PBMC sample by infrared spectroscopy; based on the infrared spectrum, determining whether the subject has a solid tumor; and generating an output indicative of the presence of a solid tumor based on the step of determining whether the subject has a solid tumor.
An apparatus for hearing protection , comprising: first and second ear cups , each ear cup defining a cavity configured to fit a user's ear; a headband having a first end affixed to a first ear cup and a second end affixed to a second ear cup , the headband having a central line along its length from the first end to the second end and the headband also having a front side, a back side, a top side, a bottom side, and a thickness extending between the top side and bottom side, the headband defining one or more openings along the central line that span the thickness of the headband from the top side to the bottom side; characterised by a removable compressible pad having a top surface and a bottom surface wherein the compressible pad is configured to be secured to the headband when the apparatus is worn, and the compressible pad spans at least a portion of at least one or more of the one or more openings , wherein the bottom surface is configured to contact the head of a user when the apparatus is worn, and wherein the compressible pad further comprises an attachment structure configured to fasten the compressible pad to the one or more openings of the headband , and wherein the compressible pad comprises one or more openings that are configured to align with one or more openings in the headband when the apparatus is worn. first and second ear cups , each ear cup defining a cavity configured to fit a user's ear; a headband having a first end affixed to a first ear cup and a second end affixed to a second ear cup , the headband having a central line along its length from the first end to the second end and the headband also having a front side, a back side, a top side, a bottom side, and a thickness extending between the top side and bottom side, the headband defining one or more openings along the central line that span the thickness of the headband from the top side to the bottom side; characterised by a removable compressible pad having a top surface and a bottom surface wherein the compressible pad is configured to be secured to the headband when the apparatus is worn, and the compressible pad spans at least a portion of at least one or more of the one or more openings , wherein the bottom surface is configured to contact the head of a user when the apparatus is worn, and wherein the compressible pad further comprises an attachment structure configured to fasten the compressible pad to the one or more openings of the headband , and wherein the compressible pad comprises one or more openings that are configured to align with one or more openings in the headband when the apparatus is worn.
A polyimide polymer containing the reaction product of components (a), (b), and optionally (c), wherein components (a), (b), and (c) are: (a) at least one diamine of Structure (I): (b) at least one tetracarboxylic acid dianhydride, and optionally; (c) at least one compound containing a first functional group reactive with an amine or an anhydride and at least one second functional group selected from the group consisting of a substituted or unsubstituted alkenyl group and a substituted or unsubstituted alkynyl group, wherein each of R 6 , R 7 , R 8 , R 9 , and R 10 , independently, is H, a substituted or unsubstituted C 1 -C 6 linear or branched alkyl group, or a substituted or unsubstituted C 5 -Cs cycloalkyl group; each R 11 , independently, is H, a substituted or unsubstituted C 1 -C 6 linear or branched alkyl group, or a substituted or unsubstituted C 5 -C 8 cycloalkyl group; each R 12 , independently, is H, a substituted or unsubstituted C 1 -C 6 linear or branched alkyl group, or a substituted or unsubstituted C 5 -C 8 cycloalkyl group; x is an integer from 0 to 3; y is an integer from 0 to 2; and each z, independently, is an integer from 1 to 4. (a) at least one diamine of Structure (I): (b) at least one tetracarboxylic acid dianhydride, and optionally; (c) at least one compound containing a first functional group reactive with an amine or an anhydride and at least one second functional group selected from the group consisting of a substituted or unsubstituted alkenyl group and a substituted or unsubstituted alkynyl group,
An electrochromic device comprising a first substrate made of untempered glass (S1), the linear thermal expansion coefficient of which is between 35 and 60 × 10 -7 /°C, said substrate (S1) being coated with a stack comprising at least one transparent electrically conductive layer , one layer of an electrochromic material (EC2), one layer of an ionically conductive electrolyte (EL) and one counterelectrode (EC1), in which the glass substrate (S1) has a chemical composition comprising the following constituents, within the weight limits defined below: SiO 2 50 to 82% B 2 O 3 0 to 20% Al 2 O 3 0 to 22% MgO 0 to 10% CaO 0 to 15% SrO 0 to 5% BaO 0 to 15% CaO+MgO+BaO+SrO 0 to 15% Na 2 O 0 to 6% K 2 O 0 to 8% Na 2 O+K 2 O 0 to 8%, And in which the electrochromic material (EC2) is based on tungsten oxide or iridium oxide.
A fire resistant glazing for preventing fire and smoke from penetrating from one room into another in case of fire, comprising at least two glass surfaces (D, E) composed of fire protection panes and arranged next to each other, of which one comprises a glass door , whereas the other glass surface forms a lateral fixed element with respect to the glass door and the surface adjacent to the glass door on the opposite side forms a stop element , wherein the glass door is directly at least partly held in a pivoting manner at the lateral fixed element without any profile, wherein the fire protection panes comprise two fire-proof glass panes spaced apart in parallel from each other by means of an edging compound and the space enclosed by the edging compound between the fire-proof glass panes is filled with a fire protection gel , wherein the edging compound of the glass door as well as the edging compound of the fire protection panes is offset inwards in the area of the abutting edges, which are directly adjacent to the glass door , while forming a grove , and in the area of the lateral and/or upper abutting edges of the glass door the first one of the glass panes of the glass door recoils with respect to the second one of the glass panes for forming a rabbet, wherein an essentially U-shaped intumescent material is inserted into the groove , which material covers the inner surfaces of the groove, characterized in that the intumescent material comprises a shorter leg that is essentially flush with the first glass pane and a longer leg that is essentially flush with the second glass pane .
A method of detecting the presence or absence of a genomic rearrangement, the method comprising: dividing a sample of tagged DNA molecules prepared from a sample from a subject into at least first and second aliquots; isolating a plurality of tagged DNA molecules from the first aliquot, wherein the plurality of molecules have a common adapter sequence; linearly amplifying at least a portion of the tagged DNA molecules isolated from the first aliquot with a set of primers that target a first plurality of loci of interest and comprise a rearrangement detection barcode, a sequencing adapter, and a non-nucleotide binding partner, thereby producing a first population of processed DNA; capturing the first population of processed DNA on a solid support using binding to the non-nucleotide binding partner; amplifying and/or eluting the first population of processed DNA; enriching the second aliquot for a second plurality of loci of interest, thereby producing a second population of processed DNA; sequencing at least a portion of the amplified and/or eluted first population of processed DNA and at least a portion of the second population of processed DNA; and detecting the presence or absence of a plurality of genomic rearrangements in the first population of processed DNA. dividing a sample of tagged DNA molecules prepared from a sample from a subject into at least first and second aliquots; isolating a plurality of tagged DNA molecules from the first aliquot, wherein the plurality of molecules have a common adapter sequence; linearly amplifying at least a portion of the tagged DNA molecules isolated from the first aliquot with a set of primers that target a first plurality of loci of interest and comprise a rearrangement detection barcode, a sequencing adapter, and a non-nucleotide binding partner, thereby producing a first population of processed DNA; capturing the first population of processed DNA on a solid support using binding to the non-nucleotide binding partner; amplifying and/or eluting the first population of processed DNA; enriching the second aliquot for a second plurality of loci of interest, thereby producing a second population of processed DNA; sequencing at least a portion of the amplified and/or eluted first population of processed DNA and at least a portion of the second population of processed DNA; and detecting the presence or absence of a plurality of genomic rearrangements in the first population of processed DNA.
Air filter cartridge of an air intake system of an engine for a vehicle, having a body that extends longitudinally along a main axis (X-X) having a substantially tubular shape, preferably cylindrical, prismatic, conical or frusto-conical, said cartridge comprises: - a head element located at one end of the filter cartridge suitable to permit the fluidic connection of the cartridge with the air intake system; - a filter element , comprising a filter wall , suitable to filter the air sucked through it and having extension along the main axis (X-X) starting from the head element ; - an internal structure that extends in length from said head element to the inside of the filter element , identifying a plurality of ducts fluidically independent from each other through which the filtered air flows separately; wherein each duct extends between an inlet mouth , placed in proximity of the filter wall , and an outlet mouth placed in proximity of the head element ; wherein the internal structure induce the intake of air through each duct through the filter wall identifying for each duct a respective portion of the filter element faced to the inlet mouth ; the air filter cartridge is characterized by the fact that the internal structure has an axisymmetric shape with respect to the main axis (X-X); wherein the inlet mouths , respectively of each duct , are positioned side by side axially along the main axis (X-X) each inlet mouth extends concentrically with respect to the main axis (X-X); and each duct comprises a linear section extending parallel to the extension axis (X-X) concentric to an adjacent duct forming, for at least one of said ducts , an annular tubular section. - a head element located at one end of the filter cartridge suitable to permit the fluidic connection of the cartridge with the air intake system; - a filter element , comprising a filter wall , suitable to filter the air sucked through it and having extension along the main axis (X-X) starting from the head element ; - an internal structure that extends in length from said head element to the inside of the filter element , identifying a plurality of ducts fluidically independent from each other through which the filtered air flows separately;
A hybrid module for a drive train of a motor vehicle, comprising an electric machine , a clutch device and a separating clutch , wherein the separating clutch is coupled, on the one hand, to a dual mass flywheel and, on the other hand, to an intermediate shaft and has a frictionally engaging package comprising a pressure plate , a counter plate and at least one intermediate plate and clutch discs engaging between these plates, wherein the pressure plate , the intermediate plate and the clutch discs are axially movable, the counter plate being fixedly connected to an outer disc support , characterized in that the intermediate plate and the pressure plate on the outer disc support are guided non-rotatably, but axially movably via a toothing engagement, wherein the outer disc support is coupled to the dual mass flywheel via a toothing engagement, wherein one or more spring elements are provided that pretension the toothing engagement between the outer disc support and the dual mass flywheel in the circumferential direction, wherein at least one tensioning element is provided that engages between an external toothing of the outer plate support and an internal toothing of the dual mass flywheel , which mesh together, wherein the or each spring element is arranged between the tensioning element and the outer plate support , wherein the or each tensioning element has an inwardly extending radial flange on which one or a plurality of support sections are provided on which the spring element(s) bear at one end, wherein the outer plate support also has one or a plurality of support sections on which the spring element(s) bear at the other end.
A pacemaker for His-bundle or bundle-branch pacing of a patient's heart, the pacemaker being configured for: sensing heart activity using a set of electrodes associated with the pacemaker; using a processor in the pacemaker to determine whether one of a QRS parameter and an activation interval acquired from the sensed heart activity is greater than a first threshold; in response to determining whether the QRS parameter or activation interval is greater than the first threshold, using the processor to determine whether bundle pacing should be delivered earlier or later; and in response to determining whether bundle pacing should be delivered earlier or later, using the processor to adjust a time interval for bundle pacing. sensing heart activity using a set of electrodes associated with the pacemaker; using a processor in the pacemaker to determine whether one of a QRS parameter and an activation interval acquired from the sensed heart activity is greater than a first threshold; in response to determining whether the QRS parameter or activation interval is greater than the first threshold, using the processor to determine whether bundle pacing should be delivered earlier or later; and in response to determining whether bundle pacing should be delivered earlier or later, using the processor to adjust a time interval for bundle pacing.
A camera device , comprising: a substrate ; a sensor means supported on a first side of the substrate , the sensor means being configured to gather image information; a lens near the sensor means ; a housing supporting the lens and the substrate ; an electroactive polymer used to recalibrate the camera device, a space occupied by the electroactive polymer changing responsive to electrical energy, the electroactive polymer configured to selectively cause relative movement between the sensor means and the lens , the electroactive polymer comprising a plurality of electroactive polymer pads situated on the first side of the substrate in respective locations between the substrate and a reaction surface of the housing , the electroactive polymer further configured to react against the reaction surface as the space occupied by the electroactive polymer changes, and a position of the substrate relative to the housing changing as the electroactive polymer reacts against the reaction surface , characterized by at least one resilient member associated with the substrate for allowing relative movement between the substrate and the reaction surface as the electroactive polymer reacts against the reaction surface . a substrate ; a sensor means supported on a first side of the substrate , the sensor means being configured to gather image information; a lens near the sensor means ; a housing supporting the lens and the substrate ; an electroactive polymer used to recalibrate the camera device, a space occupied by the electroactive polymer changing responsive to electrical energy, the electroactive polymer configured to selectively cause relative movement between the sensor means and the lens , the electroactive polymer comprising a plurality of electroactive polymer pads situated on the first side of the substrate in respective locations between the substrate and a reaction surface of the housing , the electroactive polymer further configured to react against the reaction surface as the space occupied by the electroactive polymer changes, and a position of the substrate relative to the housing changing as the electroactive polymer reacts against the reaction surface , characterized by at least one resilient member associated with the substrate for allowing relative movement between the substrate and the reaction surface as the electroactive polymer reacts against the reaction surface .
A forming method of an inertial sensor, comprising: providing a first substrate with a first conducting material layer and a second substrate with a second conducting material layer , wherein the second conducting material layer has a comb tooth region, a trench is formed in a surface of the comb tooth region, and a thin film layer is further formed at a bottom of the trench ; mutually bonding the second conducting material layer and the first conducting material layer ; and etching at least the comb tooth region of the second conducting material layer , and stopping etching at the thin film layer to form a movable comb tooth structure , wherein bottoms of comb teeth in the movable comb tooth structure are all fixed to the thin film layer ; and removing the thin film layer . providing a first substrate with a first conducting material layer and a second substrate with a second conducting material layer , wherein the second conducting material layer has a comb tooth region, a trench is formed in a surface of the comb tooth region, and a thin film layer is further formed at a bottom of the trench ; mutually bonding the second conducting material layer and the first conducting material layer ; and etching at least the comb tooth region of the second conducting material layer , and stopping etching at the thin film layer to form a movable comb tooth structure , wherein bottoms of comb teeth in the movable comb tooth structure are all fixed to the thin film layer ; and removing the thin film layer .
A method for network node encryption, characterized by comprising: receiving a node encryption request, and acquiring node data information of a network node according to the node encryption request, the node data information including a preset link; transmitting an application to a trusted third party for an encryption certificate using the node data information; receiving a certificate verification request from the trusted third party, the certificate verification request including a verification file to be used to verify authority of the preset link, and the certificate verification request being generated by the trusted third party in response to the application for the encryption certificate; correlating the preset link of the network node to the verification file corresponding to the certificate verification request in response to the certificate verification request, so as to transmit a correlation result to the trusted third party; and receiving the encryption certificate, and deploying the encryption certificate on the network node, wherein the encryption certificate is generated by the trusted third party based on the correlation result. receiving a node encryption request, and acquiring node data information of a network node according to the node encryption request, the node data information including a preset link; transmitting an application to a trusted third party for an encryption certificate using the node data information; receiving a certificate verification request from the trusted third party, the certificate verification request including a verification file to be used to verify authority of the preset link, and the certificate verification request being generated by the trusted third party in response to the application for the encryption certificate; correlating the preset link of the network node to the verification file corresponding to the certificate verification request in response to the certificate verification request, so as to transmit a correlation result to the trusted third party; and receiving the encryption certificate, and deploying the encryption certificate on the network node, wherein the encryption certificate is generated by the trusted third party based on the correlation result.