mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing polyisocyanates comprising iminooxadiazinedione groups, wherein at least one monomeric di- and/or tri-isocyanate is oligomerised in the presence of a) at least one catalyst, b) at least one additive (A) having a relative permittivity at 18°C to 30°C of at least 4.0, c) optionally further additives other than A measured as stated in the description, wherein there are used from 1 to 50 wt. % of additive (A), based on the mass of the monomeric di- and/or tri-isocyanate. a) at least one catalyst, b) at least one additive (A) having a relative permittivity at 18°C to 30°C of at least 4.0, c) optionally further additives other than A measured as stated in the description,
A computer-implemented method comprising: detecting an event associated with a plurality of system components; based at least in part on a configurable policy and on detecting the event, propagating a tag that is assigned to a data object representing one of the plurality of system components to another data object representing another of the plurality of system components, wherein the tag is associated with a tree object representing an execution chain of instances of at least a subset of the plurality of system components; detecting a subsequent event associated with the another system component, wherein the subsequent event is recognized as security exploit activity; and in response to the subsequent event, assigning a security exploit tag to the tree object representing the execution chain. detecting an event associated with a plurality of system components; based at least in part on a configurable policy and on detecting the event, propagating a tag that is assigned to a data object representing one of the plurality of system components to another data object representing another of the plurality of system components, wherein the tag is associated with a tree object representing an execution chain of instances of at least a subset of the plurality of system components; detecting a subsequent event associated with the another system component, wherein the subsequent event is recognized as security exploit activity; and in response to the subsequent event, assigning a security exploit tag to the tree object representing the execution chain.
A printed circuit for integration in a smart card , said printed circuit comprising: - A printed circuit substrate of dielectric material having a first side and a second side; - An antenna having a wiring pattern extending between a first terminal and a second terminal and being located on said first side of said printed circuit substrate , said antenna having a resonance frequency; - One or more contact pads located on said second side of said printed circuit substrate and forming an external contact pattern; and - At least a first surface mount (SMD) capacitor connected to said first terminal and said second terminal of said antenna so as to adjust said resonance frequency of said antenna , in order to match a predefined resonance frequency, for instance a resonance frequency comprised within the range defined in ISO 14443 standards, characterized in that: said first surface mount capacitor and said first terminal and said second terminal of said antenna are formed on the same side of said printed circuit substrate , and said first terminal of said antenna is connected to a first etched pad of said first capacitor by means of wire bonding. - A printed circuit substrate of dielectric material having a first side and a second side; - An antenna having a wiring pattern extending between a first terminal and a second terminal and being located on said first side of said printed circuit substrate , said antenna having a resonance frequency; - One or more contact pads located on said second side of said printed circuit substrate and forming an external contact pattern; and - At least a first surface mount (SMD) capacitor connected to said first terminal and said second terminal of said antenna so as to adjust said resonance frequency of said antenna , in order to match a predefined resonance frequency, for instance a resonance frequency comprised within the range defined in ISO 14443 standards, characterized in that: said first surface mount capacitor and said first terminal and said second terminal of said antenna are formed on the same side of said printed circuit substrate , and said first terminal of said antenna is connected to a first etched pad of said first capacitor by means of wire bonding. said first surface mount capacitor and said first terminal and said second terminal of said antenna are formed on the same side of said printed circuit substrate , and said first terminal of said antenna is connected to a first etched pad of said first capacitor by means of wire bonding.
A grinding liquid trough arrangement for a grinding machine having a grindstone which is arranged to be rotated in a direction of rotation, wherein said grinding liquid trough arrangement comprises: a trough for grinding liquid formed by a trough wall , wherein the trough is configured to be arranged at a grinding machine having a grindstone such that the trough encloses a portion of a grindstone , characterized in that the trough wall comprises at least one metal element which is attractable to magnets, and that, the grinding liquid trough arrangement comprises at least one magnetic element which is configured to be detachable attached to an external side of the trough wall by means of magnetic attraction between the magnetic element and the metal element , wherein the grinding liquid trough arrangement comprises a scraper for collecting particles from the trough for grinding liquid, said scraper having a scraping portion and a handle portion , wherein the handle portion comprises the magnetic element . a trough for grinding liquid formed by a trough wall , wherein the trough is configured to be arranged at a grinding machine having a grindstone such that the trough encloses a portion of a grindstone , characterized in that the trough wall comprises at least one metal element which is attractable to magnets, and that, the grinding liquid trough arrangement comprises at least one magnetic element which is configured to be detachable attached to an external side of the trough wall by means of magnetic attraction between the magnetic element and the metal element , wherein the grinding liquid trough arrangement comprises a scraper for collecting particles from the trough for grinding liquid, said scraper having a scraping portion and a handle portion , wherein the handle portion comprises the magnetic element .
A coupler for coupling a first and a second section of a transmission line embedded in a first and a second component respectively, the coupler comprising: - a first half-coupler comprising a first non-magnetic, electrically conductive housing adapted to be mounted at an end of the first component; a first electrically conductive structure ; and a first structure of dielectric material ; - a second half-coupler comprising a second non-magnetic, electrically conductive housing adapted to be mounted at an end of the second component; a second electrically conductive structure ; and a second structure of dielectric material ; wherein the first section of the transmission line, respectively the second section, is electrically connected to the first conductive structure, respectively the second conductive structure; wherein when the first and second components are connected end-to-end, the first and second housings come into contact to form together an electromagnetic cavity, inside which the first and second conductive structures are separated from each other by the first and second dielectric structures (81a, 83a ; 87a, 89a), so as to allow the first and second conductive structures to be in electromagnetic communication with each other; characterized in that : each section of the transmission line comprises at least one coaxial cable, each coaxial cable comprising at least one inner conductor and an outer conductor, and in that the outer conductor of each coaxial cable is connected to the first and second housings; each of the first and second conductive structures comprises at least one full ring made of an electrically conductive material; each full ring comprises at least one connection point , each connection point being connected to one of said inner conductors; and a short circuit point diametrically opposed to the connection point and being connected to the respective housing. - a first half-coupler comprising a first non-magnetic, electrically conductive housing adapted to be mounted at an end of the first component; a first electrically conductive structure ; and a first structure of dielectric material ; - a second half-coupler comprising a second non-magnetic, electrically conductive housing adapted to be mounted at an end of the second component; a second electrically conductive structure ; and a second structure of dielectric material ; each section of the transmission line comprises at least one coaxial cable, each coaxial cable comprising at least one inner conductor and an outer conductor, and in that the outer conductor of each coaxial cable is connected to the first and second housings; each of the first and second conductive structures comprises at least one full ring made of an electrically conductive material; each full ring comprises at least one connection point , each connection point being connected to one of said inner conductors; and a short circuit point diametrically opposed to the connection point and being connected to the respective housing.
A blood analysis method comprising: acquiring (S2) optical information which changes over time from a mixed liquid of a blood sample and a reagent for coagulation time measurement after mixing the blood sample and the reagent; and acquiring (S3) information related to a coagulation time based on the acquired optical information characterized by acquiring(S4)information related to a number of platelets in the blood sample based on the acquired optical information, wherein the information related to the number of platelets in the blood sample is acquired based on the optical information in a predetermined time range including a timing after a coagulation end point. acquiring (S2) optical information which changes over time from a mixed liquid of a blood sample and a reagent for coagulation time measurement after mixing the blood sample and the reagent; and acquiring (S3) information related to a coagulation time based on the acquired optical information characterized by acquiring(S4)information related to a number of platelets in the blood sample based on the acquired optical information, wherein the information related to the number of platelets in the blood sample is acquired based on the optical information in a predetermined time range including a timing after a coagulation end point.
A method for receiving, by a user equipment, UE, downlink signals in a wireless communication system, the method comprising: starting, by the UE , a downlink, DL, discontinuous reception, DRX, retransmission timer for a DL hybrid automatic repeat and request, HARQ, process of the UE , wherein the DL DRX retransmission timer specifies a maximum number of consecutive physical downlink control channel, PDCCH, subframes until a DL retransmission is received; and monitoring, by the UE , a PDCCH, in a state in which the DL DRX retransmission timer for the DL HARQ process is running, and the method characterized by further comprising: stopping, by the UE , the DL DRX retransmission timer for the DL HARQ process, when the UE receives a PDCCH that schedules a uplink, UL, transmission. starting, by the UE , a downlink, DL, discontinuous reception, DRX, retransmission timer for a DL hybrid automatic repeat and request, HARQ, process of the UE , wherein the DL DRX retransmission timer specifies a maximum number of consecutive physical downlink control channel, PDCCH, subframes until a DL retransmission is received; and monitoring, by the UE , a PDCCH, in a state in which the DL DRX retransmission timer for the DL HARQ process is running, and the method characterized by further comprising: stopping, by the UE , the DL DRX retransmission timer for the DL HARQ process, when the UE receives a PDCCH that schedules a uplink, UL, transmission.
Edge profile forming part of a suspended ceiling substructure comprising a plurality of support profiles arranged suspended from a raw ceiling of a building structure and a plurality of base profiles , each of which being attached to at least one of the plurality of support profiles , the edge profile being formed by a single sheet profile and having a U-shaped cross-section comprising a base portion capable of being fixed to a wall structure, a first leg portion and a second leg portion , the first leg portion having an outer section and an inner section , wherein the outer section is arranged offset towards the inner section and relative to the second leg portion , wherein the second leg portion comprises an abutment edge extending inwardly towards the first leg portion , wherein the edge portion allows for arranging an end portion of a support profile between of the outer section of the first leg portion and the second leg portion , and wherein the abutment edge is arranged to be in contact with a front end of the supporting profile when it is arranged inside the edge profile in the mounted state.
A superhigh strength gas shielded welding wire containing V, characterized in that the mass percentage contents of the chemical elements of the superhigh strength gas shielded welding wire are: 0.08-0.12% of C, 0.65-0.80% of Si, 1.80-1.95% of Mn, 0 < Cu ≤ 0.25%, 0.20-0.40% of Cr, 0.2-0.6% of Mo, 1.30-1.80% of Ni, 0.08-0.20% of Ti, 0.01-0.05% of V, 0.0070-0.0130% of N, and the balance of Fe and other inevitable impurities.
A card for processing fibers, with a drum with a drum circumference, a drum surface , and a working width (A), wherein carding elements for parallelizing the fibers and separating elements for separating trash and short fibers are arranged opposite the drum , which can be rotated about an axis of rotation in a direction of rotation , wherein the separating elements are provided with an extraction duct , wherein the drum circumference is divided into a pre-carding zone , a main carding zone , a post-carding zone , and a sub-carding zone , and wherein the carding elements and the separating elements span over the entire working width (A), characterized in that , in the post-carding zone , the pre-carding zone , or the sub-carding zone , at least one separating element with a base body , an extraction duct , and a blade element is provided, with the blade element having a plurality of discharge openings and knife blades that are associated with the discharge openings , and with at least one air-guiding element being arranged between the extraction duct and the blade element .
A baffle plate for a differential device disposed inside a differential case and dividing a lower portion inside the differential case into a first chamber (C1) and a second chamber (C2), comprising: a baffle plate main member adapted to be disposed on one lateral side of a ring gear in the differential device ; an elastically deformable seal member attached to an outer peripheral edge portion of the baffle plate main member and adapted to contact a bottom wall portion of the differential case , the baffle plate being characterized by a fitting hole formed in one of the outer peripheral edge portion of the baffle plate main member or the seal member , and a locking claw portion engaging the fitting hole formed in the other, and the locking claw portion fits into the fitting hole so that the baffle plate main member and the seal member are integrated, wherein the baffle plate main member is made of synthetic resin and that a length in the circumferential direction of the aforementioned fitting hole is formed slightly longer than a length in the circumferential direction of the locking claw portion , so that in a state wherein the locking claw portion fits relative to the fitting hole , there is formed a slight gap (S) in the circumferential direction of the locking claw portion , and the gap (S) becomes the return passage for returning lubricating oil from the second chamber (C2) to the first chamber (C1). a baffle plate main member adapted to be disposed on one lateral side of a ring gear in the differential device ; an elastically deformable seal member attached to an outer peripheral edge portion of the baffle plate main member and adapted to contact a bottom wall portion of the differential case , the baffle plate being characterized by a fitting hole formed in one of the outer peripheral edge portion of the baffle plate main member or the seal member , and a locking claw portion engaging the fitting hole formed in the other, and the locking claw portion fits into the fitting hole so that the baffle plate main member and the seal member are integrated, wherein the baffle plate main member is made of synthetic resin and that a length in the circumferential direction of the aforementioned fitting hole is formed slightly longer than a length in the circumferential direction of the locking claw portion , so that in a state wherein the locking claw portion fits relative to the fitting hole , there is formed a slight gap (S) in the circumferential direction of the locking claw portion , and the gap (S) becomes the return passage for returning lubricating oil from the second chamber (C2) to the first chamber (C1).
A method of preparing a matrix for cultivating biological cells and differentiating into neuronal cells or neuronal tissue, from a base body of biocompatible or biological polymer having a structured surface , comprising - a periodic microstructure of parallel microdimensioned grooves , and - a periodic nanostructure of parallel nanodimensioned grooves parallel to the microstructure and embedded into the grooves of the microstructure , respectively, including the steps of: - forming a structured surface on a tool by machining, wherein the machining is performed with a machining tool having a cutting edge of monocrystalline diamond with a tip radius of 10 pm or less and the periodic microstructure and the periodic nanostructure embedded therein are formed as a negative shape, and - producing the structured surface on the base body of biocompatible or biological polymer by: - casting the polymer of the basic body onto the surface-structured tool or - embossing of the polymer of the base body with the surface-structured tool and - optionally curing or drying the polymer of the base body on the tool and separating the cured, dry base body from the tool , such that the matrix is obtained as the base body having the structured surface . - a periodic microstructure of parallel microdimensioned grooves , and - a periodic nanostructure of parallel nanodimensioned grooves parallel to the microstructure and embedded into the grooves of the microstructure , respectively, including the steps of: - forming a structured surface on a tool by machining, wherein the machining is performed with a machining tool having a cutting edge of monocrystalline diamond with a tip radius of 10 pm or less and the periodic microstructure and the periodic nanostructure embedded therein are formed as a negative shape, and - producing the structured surface on the base body of biocompatible or biological polymer by: - forming a structured surface on a tool by machining, wherein the machining is performed with a machining tool having a cutting edge of monocrystalline diamond with a tip radius of 10 pm or less and the periodic microstructure and the periodic nanostructure embedded therein are formed as a negative shape, and - producing the structured surface on the base body of biocompatible or biological polymer by: - casting the polymer of the basic body onto the surface-structured tool or - embossing of the polymer of the base body with the surface-structured tool and - optionally curing or drying the polymer of the base body on the tool and separating the cured, dry base body from the tool ,
A method of treating a surface of an abrasive particle having chemically-bound surface hydroxyl groups, the method comprising: providing an adhesion promoter comprising at least one ring-opened adduct of: a) a polyepoxide having at least two epoxy groups; b) an aminosilane represented by the formula HNR 1 R 2 wherein R 1 and R 2 independently represent -Z-SiL 3 , wherein each Z independently represents a divalent linking group having from 1 to 12 carbon atoms, and wherein each L independently represents a hydrolyzable group, and c) an isocyanatosilane represented by the formula O=C=N-Z-SiL 3 wherein Z and L are as previously defined; and contacting the adhesion promoter with the surface of the abrasive particle. providing an adhesion promoter comprising at least one ring-opened adduct of: a) a polyepoxide having at least two epoxy groups; b) an aminosilane represented by the formula HNR 1 R 2 wherein R 1 and R 2 independently represent -Z-SiL 3 , wherein each Z independently represents a divalent linking group having from 1 to 12 carbon atoms, and wherein each L independently represents a hydrolyzable group, and c) an isocyanatosilane represented by the formula O=C=N-Z-SiL 3 wherein Z and L are as previously defined; and a) a polyepoxide having at least two epoxy groups; b) an aminosilane represented by the formula HNR 1 R 2 wherein R 1 and R 2 independently represent -Z-SiL 3 , wherein each Z independently represents a divalent linking group having from 1 to 12 carbon atoms, and wherein each L independently represents a hydrolyzable group, and c) an isocyanatosilane represented by the formula O=C=N-Z-SiL 3 wherein Z and L are as previously defined; and contacting the adhesion promoter with the surface of the abrasive particle.
Document shredder with a housing which has, in a housing wall , an insertion slot for inserting sheet material, wherein the insertion slot has a longitudinal extent between two slot ends , and with a cutting unit which is arranged in the housing and which has motor-driven cutting tools for shredding the sheet material, characterized in that the insertion slot is widened transversely with respect to the longitudinal extent in at least one end region that is delimited by one of the slot ends .
A method for transmitting downlink data, comprising: determining , by a packet data network gateway control plane + session management function, PGW-C+SMF, entity, that a User Equipment, UE, moves from a first network to a second network after receiving a request message for updating session management context of the UE; notifying , by the PGW-C+SMF entity, a packet data network gateway user plane + user plane function, PGW-U+UPF, entity to delete a user plane connection of the UE in the first network and create a user plane connection of the UE in the second network, so that the PGW-U+UPF entity transmits downlink data of the UE through the user plane connection created in the second network; wherein the first network is an Evolved Packet System, EPS, network and the second network is a 5G network. determining , by a packet data network gateway control plane + session management function, PGW-C+SMF, entity, that a User Equipment, UE, moves from a first network to a second network after receiving a request message for updating session management context of the UE; notifying , by the PGW-C+SMF entity, a packet data network gateway user plane + user plane function, PGW-U+UPF, entity to delete a user plane connection of the UE in the first network and create a user plane connection of the UE in the second network, so that the PGW-U+UPF entity transmits downlink data of the UE through the user plane connection created in the second network; wherein the first network is an Evolved Packet System, EPS, network and the second network is a 5G network.