mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method comprising: receiving results of a query on a graph wherein the graph comprises linked data; and receiving a change to the graph, determining that the change to the graph is localizable or relatively bounded, wherein the change to the graph is localizable when the change to the graph can be determined by inspecting only graph nodes within a specified number of hops of any graph node indicated by the received change to the graph; wherein the change to the graph is relatively bounded when a cost of an incremental change is expressed as a polynomial function in terms of the change to the graph, a query size, and a change in an affected area of the query caused by the change to the graph; and based on the determination of the localizable or relatively bounded change to the graph, updating the results of the query based on the change to the graph by: discovering nodes that are affected by the change to the graph, updating data associated with the affected nodes, and applying the updated data to the results of the query. receiving results of a query on a graph wherein the graph comprises linked data; and receiving a change to the graph, determining that the change to the graph is localizable or relatively bounded, wherein the change to the graph is localizable when the change to the graph can be determined by inspecting only graph nodes within a specified number of hops of any graph node indicated by the received change to the graph; wherein the change to the graph is relatively bounded when a cost of an incremental change is expressed as a polynomial function in terms of the change to the graph, a query size, and a change in an affected area of the query caused by the change to the graph; and based on the determination of the localizable or relatively bounded change to the graph, updating the results of the query based on the change to the graph by: discovering nodes that are affected by the change to the graph, updating data associated with the affected nodes, and applying the updated data to the results of the query. discovering nodes that are affected by the change to the graph, updating data associated with the affected nodes, and applying the updated data to the results of the query.
Method for producing a fibre-reinforced plastics comparison body for modelling a layer porosity for non-destructive testing of FRP components, in particular aircraft components, comprising the steps of: i. producing a first part for the FRP comparison body by a. arranging a first FRP layer with a cut-out; b. arranging at least one second FRP layer on the first FRP layer; and c. pre-hardening the arrangement of the first FRP layer and second FRP layer in order to obtain the first part for the FRP comparison body, wherein the cut-out is filled with a placeholder before the arrangement of the first FRP layer and second FRP layer is pre-hardened, wherein the placeholder is removed from the cut-out before an arrangement of the first part and a second part is hardened; ii. producing the second part for the FRP comparison body by a. arranging at least one further FRP layer; and b. pre-hardening the arrangement of at least one further FRP layer in order to obtain the second part for the FRP comparison body; iii. connecting the first part to the second part, wherein the cut-out on the first part faces the second part; and iv. hardening the arrangement of the first part and second part, wherein a layer porosity is formed on the cut-out in the first FRP layer. i. producing a first part for the FRP comparison body by a. arranging a first FRP layer with a cut-out; b. arranging at least one second FRP layer on the first FRP layer; and c. pre-hardening the arrangement of the first FRP layer and second FRP layer in order to obtain the first part for the FRP comparison body, wherein the cut-out is filled with a placeholder before the arrangement of the first FRP layer and second FRP layer is pre-hardened, wherein the placeholder is removed from the cut-out before an arrangement of the first part and a second part is hardened; a. arranging a first FRP layer with a cut-out; b. arranging at least one second FRP layer on the first FRP layer; and c. pre-hardening the arrangement of the first FRP layer and second FRP layer in order to obtain the first part for the FRP comparison body, wherein the cut-out is filled with a placeholder before the arrangement of the first FRP layer and second FRP layer is pre-hardened, wherein the placeholder is removed from the cut-out before an arrangement of the first part and a second part is hardened; ii. producing the second part for the FRP comparison body by a. arranging at least one further FRP layer; and b. pre-hardening the arrangement of at least one further FRP layer in order to obtain the second part for the FRP comparison body; a. arranging at least one further FRP layer; and b. pre-hardening the arrangement of at least one further FRP layer in order to obtain the second part for the FRP comparison body; iii. connecting the first part to the second part, wherein the cut-out on the first part faces the second part; and iv. hardening the arrangement of the first part and second part, wherein a layer porosity is formed on the cut-out in the first FRP layer.
A perovskite solar cell having a stack of layers, wherein the layers are arranged in the following order: a front electrode layer, a photo-active layer comprising a perovskite material, and a back electrode layer comprising a porous carbon material having a plurality of open-through pores, wherein the solar cell further comprises a charge transport material configured to transport the charges between the photo-active layer and the back electrode layer, characterized in that the charge transport material fills at least some of the plurality of open-through pores of the porous carbon material of the back electrode layer and forms a bulk heterojunction with the perovskite material of the photo-active layer and an interface with the porous carbon material of the back electrode layer within the open-through pores.
A test lead for an electrical meter, the test lead comprising: a flexible elongate member comprising a current sensing coil at least partially disposed about a flexible core along the length of the member; a first connector disposed at one end of the member for coupling a respective end of the current sensing coil to a test port of an electrical meter; and a second connector disposed at an opposing end of the member, the second connector being adapted for coupling a respective end of the current sensing coil to an electrically conductive member for electrical connection to a test point of an electrical circuit, to provide an electrical path, via the current sensing coil, from the electrically conductive member to the first connector. a flexible elongate member comprising a current sensing coil at least partially disposed about a flexible core along the length of the member; a first connector disposed at one end of the member for coupling a respective end of the current sensing coil to a test port of an electrical meter; and a second connector disposed at an opposing end of the member, the second connector being adapted for coupling a respective end of the current sensing coil to an electrically conductive member for electrical connection to a test point of an electrical circuit, to provide an electrical path, via the current sensing coil, from the electrically conductive member to the first connector.
A cross-linkable nitrile rubber composition containing a highly saturated nitrile rubber (a) having an α,β-ethylenically unsaturated nitrile monomer unit and a carboxyl-group containing monomer unit and having an iodine value of 120 or less, a polyamine-based cross-linking agent (d), and a cyclic amidine and/or cyclic amidinium salt (c) having a polycyclic structure of the following formula: wherein, R 1 and R 2 independently indicate a hydrogen atom, an alkoxy group, an alkyl group which may have a substituent, alkenyl group which may have a substituent, or aryl group which may have a substituent, R 1 and R 2 bond to form a cyclic structure, and, further, R 3 indicates an alkylene group or alkenylene group which may have a substituent.
A laundry press apparatus, comprising: a) a frame having upper and lower plates (12, 13) and a plurality of spacer tubes that hold the plates apart (12, 13), each tube having a tube bore; b) the frame supporting a vessel, said vessel having an interior that is configured to receive a batch of wetted fabric articles; c) the frame supporting a press, the press including a ram and a disk supported at the lower end portion of the ram; d) wherein the disk is positioned to engage an upper surface portion of the batch of articles that is contained within the vessel interior; e) the ram and the disk being movable between upper and lower positions, the lower position being a pressing position that engages the disk with the fabric articles; f) the frame including a plurality of rods that extend to the upper and lower plates (12, 13), said rods each occupying a said tube bore, each rod having upper and lower rod end portions (24, 25); characterised in that: g) the upper and lower end portions (24, 25) of each rod have a diameter that is larger than a diameter of a central portion of the rod that is positioned in between the upper and lower plates (12, 13); and g) fasteners (22, 23, 31) are provided that apply tension to each rod and compression to each tube. a) a frame having upper and lower plates (12, 13) and a plurality of spacer tubes that hold the plates apart (12, 13), each tube having a tube bore; b) the frame supporting a vessel, said vessel having an interior that is configured to receive a batch of wetted fabric articles; c) the frame supporting a press, the press including a ram and a disk supported at the lower end portion of the ram; d) wherein the disk is positioned to engage an upper surface portion of the batch of articles that is contained within the vessel interior; e) the ram and the disk being movable between upper and lower positions, the lower position being a pressing position that engages the disk with the fabric articles; f) the frame including a plurality of rods that extend to the upper and lower plates (12, 13), said rods each occupying a said tube bore, each rod having upper and lower rod end portions (24, 25); g) the upper and lower end portions (24, 25) of each rod have a diameter that is larger than a diameter of a central portion of the rod that is positioned in between the upper and lower plates (12, 13); and g) fasteners (22, 23, 31) are provided that apply tension to each rod and compression to each tube.
A lubricating oil composition comprising (a) a major amount of an oil of lubricating viscosity; and (b) an oil soluble epoxide compound having the following structure: wherein X is hydrogen or a substituted or unsubstituted C 1 to C 20 hydrocarbyl group, wherein the substituted hydrocarbyl group is substituted with one or more substituents selected from hydroxyl, alkoxy, ester or amino groups and further wherein the C 1 to C 20 hydrocarbyl group is a straight- or branched-chain alkyl, cycloalkyl, alkcycloalkyl, aryl, alkaryl, or arylalkyl, and Y is -CH 2 OR, -C(=O)OR 1 or -C(=O)NHR 2, wherein R, R 1 and R 2 are independently hydrogen or a C 1 to C 20 alkyl or alkenyl groups; wherein when Y is -C(=O)OR 1, X is hydrogen, and when Y is -CH 2 OR and R is a C 1 to C 20 alkyl or alkenyl group, then X is a substituted or unsubstituted C 1 to C 20 hydrocarbyl group, and further wherein the oil of lubricating viscosity does not contain a carboxylic acid ester; wherein the oil soluble epoxide compound is present in the lubricating oil composition in an amount of from 0.01 to 8 weight %.
Method for producing an electrode for an energy store, comprising the steps of: - applying a suspension made up of a suspension medium, comprising a solvent, and electrically conductive carbon allotropes in the form of graphene flakes on a substrate, - generating an electric field that penetrates the suspension and has a predefined field direction in order to align the carbon allotropes in the direction of the field, and - removing the solvent from the suspension medium in order to harden the suspension, wherein the alignment of the carbon allotropes is preserved, wherein the removal of the solvent from the suspension medium comprises heating the suspension in order to evaporate the solvent out of the suspension medium, wherein the heating is performed by supplying microwave radiation, and wherein the electric field is maintained during at least part of the heating. - applying a suspension made up of a suspension medium, comprising a solvent, and electrically conductive carbon allotropes in the form of graphene flakes on a substrate, - generating an electric field that penetrates the suspension and has a predefined field direction in order to align the carbon allotropes in the direction of the field, and - removing the solvent from the suspension medium in order to harden the suspension, wherein the alignment of the carbon allotropes is preserved,
A condensate drain apparatus (200, 700, 800, 900, 1000) comprising: a valve for controlling discharge of condensate from the condensate drain apparatus (200, 700); a collection chamber (206, 706) configured to receive a multiphase fluid flow upstream of the valve comprising gaseous and condensate phases, the collection chamber (206, 706) defining a collection volume for collecting the condensate to be discharged through the valve; sensor equipment for monitoring a parameter relating to a thermodynamic property of the fluid upstream of the valve; a controller configured to monitor the collection of condensate based on the monitored parameter; and to control the opening and closing of the valve to regulate the collection of condensate upstream of the valve; characterised in that the controller is further configured to determine the quantity of condensate discharged from the collection volume using a flow rate calculation for a choked flow of vaporizing liquid. a valve for controlling discharge of condensate from the condensate drain apparatus (200, 700); a collection chamber (206, 706) configured to receive a multiphase fluid flow upstream of the valve comprising gaseous and condensate phases, the collection chamber (206, 706) defining a collection volume for collecting the condensate to be discharged through the valve; sensor equipment for monitoring a parameter relating to a thermodynamic property of the fluid upstream of the valve; a controller configured to monitor the collection of condensate based on the monitored parameter; and to control the opening and closing of the valve to regulate the collection of condensate upstream of the valve; characterised in that the controller is further configured to determine the quantity of condensate discharged from the collection volume using a flow rate calculation for a choked flow of vaporizing liquid.
A method comprising: receiving, by a second access point, wireless signal information comprising a first service set identifier from at least one of a plurality of first access points (302,308), wherein the plurality of first access points provide access to a wide area network based on the first service set identifier, wherein at least a portion of the plurality of first access points are configured to provide access to respective first local networks based on corresponding second service set identifiers different from the first service set identifier, and wherein the wide area network is managed by a service provider and accessible by users of the service provider based on user credentials; providing a second local network from the second access point (302',308'); determining, based on the wireless signal information, an amount of coverage of the wide area network within range of the second access point (302',308'); and transmitting, by the second access point (302',308') in response to determining the amount of coverage is below a threshold, a signal comprising the first service set identifier to facilitate access to the wide area network via the second access point (302',308'). receiving, by a second access point, wireless signal information comprising a first service set identifier from at least one of a plurality of first access points (302,308), wherein the plurality of first access points provide access to a wide area network based on the first service set identifier, wherein at least a portion of the plurality of first access points are configured to provide access to respective first local networks based on corresponding second service set identifiers different from the first service set identifier, and wherein the wide area network is managed by a service provider and accessible by users of the service provider based on user credentials; providing a second local network from the second access point (302',308'); determining, based on the wireless signal information, an amount of coverage of the wide area network within range of the second access point (302',308'); and transmitting, by the second access point (302',308') in response to determining the amount of coverage is below a threshold, a signal comprising the first service set identifier to facilitate access to the wide area network via the second access point (302',308').
A compound of formula, in which: G represents a group selected from: wherein * indicates the points of attachment of said group with the rest of the molecule; X represents CH 2, or C=O; R 1 represents hydrogen or C 1 -alkyl; R 2 represents C 1 -alkyl; R 3 represents hydrogen; A represents a group selected from: wherein * indicates the point of attachment of said group with the rest of the molecule; E represents a group wherein * indicates the point of attachment of said group with the rest of the molecule; Q represents O; R 6 represents, independently from each other, C 1 -C 3 -alkyl, C 3 -cycloalkyl, phenyl or heteroaryl, wherein said C 1 -C 3 -alkyl is optionally substituted, one or more times, with fluoro, wherein said C 3 -cycloalkyl, phenyl or heteroaryl groups are optionally substituted, one or two times, independently from each other, with fluoro, C 1 -alkyl or C 1 -alkoxy; R 7, R 8 represent, independently from each other, hydrogen, C 1 -C 2 -alkyl, or C 3 -cycloalkyl; R 9 represents hydrogen; R 10 represents hydrogen; R 15 represents a hydrogen or a fluorine atom; R 16 represents hydrogen, R 9 R 10 N-, R 6 -C -NR 9 -, R 6 -O-C -NR 9 -, R 6 -SO 2 -NR 9 - or R 7 R 8 N-C -NR 9 -; or an N-oxide, a salt, a tautomer or a stereoisomer of said compound, or a salt of said N-oxide, tautomer or stereoisomer. G represents a group selected from: wherein * indicates the points of attachment of said group with the rest of the molecule; X represents CH 2, or C=O; R 1 represents hydrogen or C 1 -alkyl; R 2 represents C 1 -alkyl; R 3 represents hydrogen; A represents a group selected from: wherein * indicates the point of attachment of said group with the rest of the molecule; E represents a group wherein * indicates the point of attachment of said group with the rest of the molecule; Q represents O; R 6 represents, independently from each other, C 1 -C 3 -alkyl, C 3 -cycloalkyl, phenyl or heteroaryl, wherein said C 1 -C 3 -alkyl is optionally substituted, one or more times, with fluoro, wherein said C 3 -cycloalkyl, phenyl or heteroaryl groups are optionally substituted, one or two times, independently from each other, with fluoro, C 1 -alkyl or C 1 -alkoxy; R 7, R 8 represent, independently from each other, hydrogen, C 1 -C 2 -alkyl, or C 3 -cycloalkyl; R 9 represents hydrogen; R 10 represents hydrogen; R 15 represents a hydrogen or a fluorine atom; R 16 represents hydrogen, R 9 R 10 N-, R 6 -C -NR 9 -, R 6 -O-C -NR 9 -, R 6 -SO 2 -NR 9 - or R 7 R 8 N-C -NR 9 -;
A blue colourant comprising a leuco dye represented by the following Formula: wherein X and Y represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms or a halogen atom; and X and Y may be identical or different from each other, provided that a case in which both of X and Y are a hydrogen atom is excluded.
A method for dynamically controlling transmitter, TX, signal envelope shape, the method comprising: sensing a TX current and/or voltage of a transmitter; sensing a matching current and/or voltage of an antenna and matching network; determining a Q, quality, factor based on the TX current and/or voltage and the matching current and/or voltage; dynamically controlling the TX signal envelope shape based on the Q factor, wherein dynamically controlling the TX signal envelope shape comprises: performing digital predistortion of the TX signal envelope; performing analog signal shaping of the TX signal envelope. sensing a TX current and/or voltage of a transmitter; sensing a matching current and/or voltage of an antenna and matching network; determining a Q, quality, factor based on the TX current and/or voltage and the matching current and/or voltage; dynamically controlling the TX signal envelope shape based on the Q factor, wherein dynamically controlling the TX signal envelope shape comprises: performing digital predistortion of the TX signal envelope; performing analog signal shaping of the TX signal envelope. performing digital predistortion of the TX signal envelope; performing analog signal shaping of the TX signal envelope.
A frequency hopping communication method performed by a terminal, the method comprising: • receiving a plurality of virtual channel indexes from a base station (step 201); • selecting a virtual channel index from the plurality of virtual channel indexes (step 202); • determining, based on the virtual channel index, physical channels corresponding to the virtual channel index on a plurality of subframes, wherein at least two of the physical channels corresponding to the virtual channel index on the plurality of subframes are different (step 203); and • communicating with the base station using a physical channel corresponding to the virtual channel index on at least one of the plurality of subframes (step 205). • receiving a plurality of virtual channel indexes from a base station (step 201); • selecting a virtual channel index from the plurality of virtual channel indexes (step 202); • determining, based on the virtual channel index, physical channels corresponding to the virtual channel index on a plurality of subframes, wherein at least two of the physical channels corresponding to the virtual channel index on the plurality of subframes are different (step 203); and • communicating with the base station using a physical channel corresponding to the virtual channel index on at least one of the plurality of subframes (step 205).
Process to apply a label on a heated thermoplastic foil with a thermoformed part of a forming tool while or immediately after the thermoforming process, while the thermoformed part is in the forming tool. The forming tool exists of an upper part with forming components and a bottom part with a movable pressure plate per form cavity. Before closing the forming tool a label will be apply on the pressure plate, hold on and while or immediately after thermoforming the forming part pressed against the averted surface of the forming part of the forming components. This is characterized in that, the pressure plate which is tempered over a tempering medium.