mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating an electrically controlled pressurized-fluid brake system of a vehicle on a vehicle track, the vehicle having wheel brakes, the method comprising the steps of: receiving, an external brake request signal at a brake control unit comprising a signal interface; using the brake control unit to: one of determine and receive a radius of curvature of the vehicle track of the vehicle; determine at least one limit value based on the determined radius of curvature; compare at least one variable representing a brake pressure to be supplied to the wheel brakes of the vehicle with the at least one limit value; and limit the at least one variable based on the comparison; and supplying brake pressure to the wheel brakes based on the limited at least one variable. receiving, an external brake request signal at a brake control unit comprising a signal interface; using the brake control unit to: one of determine and receive a radius of curvature of the vehicle track of the vehicle; determine at least one limit value based on the determined radius of curvature; compare at least one variable representing a brake pressure to be supplied to the wheel brakes of the vehicle with the at least one limit value; and limit the at least one variable based on the comparison; and one of determine and receive a radius of curvature of the vehicle track of the vehicle; determine at least one limit value based on the determined radius of curvature; compare at least one variable representing a brake pressure to be supplied to the wheel brakes of the vehicle with the at least one limit value; and limit the at least one variable based on the comparison; and supplying brake pressure to the wheel brakes based on the limited at least one variable.
A tire molding element for vulcanization molding a tire tread , wherein the tire molding element comprises: a molding surface for molding a plurality of ground contact elements of the tread , comprising a ground contact surface which contacts a road surface, and a transverse side surface and a circumferential side surface connected to said ground contact surface ; and thin plates comprising a main body , provided in such a way as to cut a covering layer arranged in advance on an unvulcanized green tire , at least one thin plate comprises a protrusion which protrudes from the main body in the thickness direction of the thin plate and guides the cut covering layer in the depth direction of the green tire in such a way as to cover at least a portion of the transverse side surface of the ground contact element , characterized in that the thin plate comprises at least two cutting means separated in the thickness direction of the thin plate , at an end portion on the opposite side to the molding surface .
An electronic board including: - a board body , including at least one assembly including at least one flexible medium and one electronic circuit printed on the flexible medium , called FPC , the FPC including at least one contact plate on the surface of the medium , and at least one connection bump fixed on the contact plate of the FPC , the assembly further including at least one chip, connected to the electronic circuit of the FPC , at a distance from the contact plate , and the assembly being embedded into a resin ; - a cavity formed in the board body , the cavity having a bottom in which a contact surface of the connection bump appears; - a module , inserted into the cavity , including an inner face including at least one electrical contact pad; the electronic board being characterized in that a layer of electrically conductive adhesive covers the inner face including the at least one electrical contact pad of the module for electrically connecting the electrical contact pad of the module to the contact surface of the connection bump located at the bottom of the cavity and in that the electronic board further includes a sub-cavity , formed in the bottom of the cavity , at a distance from a periphery of the cavity , and filled at least partly with the electrically conductive adhesive , the contact surface of the connection bump being at least partly outside the sub-cavity - a board body , including at least one assembly including at least one flexible medium and one electronic circuit printed on the flexible medium , called FPC , the FPC including at least one contact plate on the surface of the medium , and at least one connection bump fixed on the contact plate of the FPC , the assembly further including at least one chip, connected to the electronic circuit of the FPC , at a distance from the contact plate , and the assembly being embedded into a resin ; - a cavity formed in the board body , the cavity having a bottom in which a contact surface of the connection bump appears; - a module , inserted into the cavity , including an inner face including at least one electrical contact pad; the electronic board being characterized in that a layer of electrically conductive adhesive covers the inner face including the at least one electrical contact pad of the module for electrically connecting the electrical contact pad of the module to the contact surface of the connection bump located at the bottom of the cavity and in that the electronic board further includes a sub-cavity , formed in the bottom of the cavity , at a distance from a periphery of the cavity , and filled at least partly with the electrically conductive adhesive , the contact surface of the connection bump being at least partly outside the sub-cavity
A bispecific, tetravalent tandem diabody comprising at least one antigen binding site for CD16A and at least one antigen binding site for CD30, EGFR, EGFRvIII or BCMA; and either interleukin 2 (IL-2) or interleukin 15 (IL-15) for use in a method of treatment of cancer, wherein the diabody is administered intermittently in a dosage cycle comprising the steps of: (a) administering a first dose of the diabody; and (b) administering a second dose of the diabody after at least 3 times the elimination half-life of the diabody in peripheral blood subsequent to step (a), and(c) administering a dose of the IL-2 or IL-15 during the interval from step (a) to step (b), wherein the IL-2 or IL-15 is administered after at least 1 time the half-life of the diabody subsequent to step (a). either interleukin 2 (IL-2) or interleukin 15 (IL-15) for use in a method of treatment of cancer, wherein the diabody is administered intermittently in a dosage cycle comprising the steps of: (a) administering a first dose of the diabody; and (b) administering a second dose of the diabody after at least 3 times the elimination half-life of the diabody in peripheral blood subsequent to step (a), and(c) administering a dose of the IL-2 or IL-15 during the interval from step (a) to step (b), (a) administering a first dose of the diabody; and (b) administering a second dose of the diabody after at least 3 times the elimination half-life of the diabody in peripheral blood subsequent to step (a), and(c) administering a dose of the IL-2 or IL-15 during the interval from step (a) to step (b), wherein the IL-2 or IL-15 is administered after at least 1 time the half-life of the diabody subsequent to step (a).
Method for sealing a surface comprising: a) an optional step of applying a composition A onto said surface, then b) a step of projecting a composition B and fibres selected from basalt, cast iron, carbon, aramid, polyethylene, metal and alloy fibres, natural fibres, hybrid fibres, glass fibres, plastic fibres, and mixtures thereof, preferably alkali-resistant glass fibres, said fibres being projected either simultaneously with composition B, or mixed with composition B prior to the application of said composition B, then c) an optional step of applying a composition C, the compositions A, B and C comprising a geopolymer binder (or alkali-activated material) which may be identical or different. a) an optional step of applying a composition A onto said surface, then b) a step of projecting a composition B and fibres selected from basalt, cast iron, carbon, aramid, polyethylene, metal and alloy fibres, natural fibres, hybrid fibres, glass fibres, plastic fibres, and mixtures thereof, preferably alkali-resistant glass fibres, said fibres being projected either simultaneously with composition B, or mixed with composition B prior to the application of said composition B, then c) an optional step of applying a composition C,
A metal smartcard comprising: a front card body (FCB, 502, 602) composed of a first metal layer (ML) with a first slit (S1, 504, 604) extending from an outer edge thereof to a module opening (MO, 503, 603) for accepting a transponder chip module (TCM, 501, 601), the first metal layer functioning as a first coupling frame; and a rear card body (RCB, 506, 606) composed of a second metal layer (ML) with a second slit (S2, 507, 607) extending from an outer edge thereof, the second metal layer functioning as a second coupling frame; wherein the two metal layers mechanically support one another, in particular around the two slits and the module opening; the second slit being an extended slit running inwards from an edge of the rear card body that is internal to the metal smart card and describing a loop around an area overlapping a module antenna of the transponder chip module, the second slit further being formed so as to leave an area of solid metal behind the transponder chip module; further comprising a recess in the first metal layer to accommodate the second metal layer. a front card body (FCB, 502, 602) composed of a first metal layer (ML) with a first slit (S1, 504, 604) extending from an outer edge thereof to a module opening (MO, 503, 603) for accepting a transponder chip module (TCM, 501, 601), the first metal layer functioning as a first coupling frame; and a rear card body (RCB, 506, 606) composed of a second metal layer (ML) with a second slit (S2, 507, 607) extending from an outer edge thereof, the second metal layer functioning as a second coupling frame; wherein the two metal layers mechanically support one another, in particular around the two slits and the module opening; the second slit being an extended slit running inwards from an edge of the rear card body that is internal to the metal smart card and describing a loop around an area overlapping a module antenna of the transponder chip module, the second slit further being formed so as to leave an area of solid metal behind the transponder chip module; further comprising a recess in the first metal layer to accommodate the second metal layer.
Illumination filter system for a microscope , in particular a multispectral fluorescence microscope, comprising a first and a second illumination filter for medical imaging , in particular multispectral fluorescence imaging, wherein both the first and the second illumination filter comprise a spatial filter pattern masking a defined filtering fraction of a first illumination path on the filter and masking a defined filtering fraction of a second illumination path on the filter, wherein the filtering fraction of the first and the second illumination paths are different, characterized in that the spatial filter pattern of the first illumination filter is a spatial band-stop filter pattern and the spatial filter pattern of the second illumination filter is a spatial band-pass filter pattern , wherein each of the first and second illumination filter is configured to be moved from a first operation position , in which the first illumination path is in optical communication with a light source , to a second operation position , in which the second illumination path (48-50) is in optical communication with the light source .
Use of a carbon catalyst which is obtained by a method comprising carbonizing a raw material including an organic substance containing a nitrogen atom, and one or more kinds of transition metals belonging to the fourth period of Group 3 to Group 12 of the periodic table, wherein the total amount of the transition metals to the amount of the raw material is 1 to 20% by mass, for hydrogen production by thermal decomposition of a hydrocarbon compound and/or an oxygen-containing organic compound.
A method for transmitting a sounding reference signal, SRS, comprising: • receiving, by a terminal device, an instruction message sent by a network device, wherein the instruction message is used to instruct the terminal device to send an SRS on a second symbol in first symbols, the first symbols are symbols in uplink pilot slots UpPTSs of two special subframes in a radio frame, and the second symbol is a symbol in an UpPTS of at least one of the two special subframes (step 210); • receiving, by the terminal device, more than two SRS configurations sent by the network device, wherein the more than two SRS configurations comprise more than two SRS configuration indexes I SRS , and the more than two I SRS are corresponding to the first symbols (step 220); • determining, by the terminal device, the first symbols based on the more than two SRS configurations; • sending, by the terminal device, the SRS to the network device on the second symbol (step 230). • receiving, by a terminal device, an instruction message sent by a network device, wherein the instruction message is used to instruct the terminal device to send an SRS on a second symbol in first symbols, the first symbols are symbols in uplink pilot slots UpPTSs of two special subframes in a radio frame, and the second symbol is a symbol in an UpPTS of at least one of the two special subframes (step 210); • receiving, by the terminal device, more than two SRS configurations sent by the network device, wherein the more than two SRS configurations comprise more than two SRS configuration indexes I SRS , and the more than two I SRS are corresponding to the first symbols (step 220); • determining, by the terminal device, the first symbols based on the more than two SRS configurations; • sending, by the terminal device, the SRS to the network device on the second symbol (step 230).
A method for detaching mechanically-connected components of a drive train in a wind turbine , comprising; positioning a maintenance tool below a hoist, the maintenance tool comprising a nested configuration of a transport frame portion , an isolation assembly portion , and a lift assembly portion ; hoisting only the lift assembly portion of the maintenance tool into a nacelle of a wind turbine ; connecting the lift assembly portion to a power source in the nacelle ; extending at least two induction cables from an induction generator disposed on the lift assembly portion , and wrapping the at least two induction cables proximate at least a portion of a component of the mechanically-connected components ; operating the induction generator to pass alternating current through the at least two induction cables and inductively heat the wrapped component such that thermal expansion creates a clearance between the mechanically-connected components ; and, separating the mechanically-connected components .
A system comprising: an implantable medical device configured to transmit a port data object, the port data object including data associated with a plurality of ports used by the implantable medical device to connect to a plurality of leads; and an external device configured to communicate with the implantable medical device , the external device including: a processor; and a memory, coupled to the processor, comprising instructions, which when executed by the processor cause the processor to: receive from the implantable medical device the port data object; determine, based on the port data object, a lead configuration associated with the implantable medical device, characterised in that determining said lead configuration includes determining whether a port is unused; and said instructions further causing the processor to configure, based on the lead configuration associated with the implantable medical device, access to a programmable parameter of the implantable medical device. an implantable medical device configured to transmit a port data object, the port data object including data associated with a plurality of ports used by the implantable medical device to connect to a plurality of leads; and an external device configured to communicate with the implantable medical device , the external device including: a processor; and a memory, coupled to the processor, comprising instructions, which when executed by the processor cause the processor to: receive from the implantable medical device the port data object; determine, based on the port data object, a lead configuration associated with the implantable medical device, characterised in that determining said lead configuration includes determining whether a port is unused; and said instructions further causing the processor to configure, based on the lead configuration associated with the implantable medical device, access to a programmable parameter of the implantable medical device. a processor; and a memory, coupled to the processor, comprising instructions, which when executed by the processor cause the processor to: receive from the implantable medical device the port data object; determine, based on the port data object, a lead configuration associated with the implantable medical device, characterised in that determining said lead configuration includes determining whether a port is unused; and said instructions further causing the processor to configure, based on the lead configuration associated with the implantable medical device, access to a programmable parameter of the implantable medical device. receive from the implantable medical device the port data object; determine, based on the port data object, a lead configuration associated with the implantable medical device, characterised in that determining said lead configuration includes determining whether a port is unused; and said instructions further causing the processor to configure, based on the lead configuration associated with the implantable medical device, access to a programmable parameter of the implantable medical device.
An aircraft bulkhead connector and installation tool , wherein: the bulkhead connector comprises a female end portion and an engagement face, wherein the engagement face is arranged to be located in contact with a bulkhead , the engagement face further comprising one or more fasteners, and the installation tool comprises a male end portion ; and characterised in that the male end portion of the installation tool is arranged to be removably engageable with the female end portion of the bulkhead connector , such that the installation tool is arranged to protrude beyond the female end portion and engagement face of the bulkhead connector in a direction away from the bulkhead connector such that, in use, the installation tool passes through the bulkhead . the bulkhead connector comprises a female end portion and an engagement face, wherein the engagement face is arranged to be located in contact with a bulkhead , the engagement face further comprising one or more fasteners, and the installation tool comprises a male end portion ; and characterised in that the male end portion of the installation tool is arranged to be removably engageable with the female end portion of the bulkhead connector , such that the installation tool is arranged to protrude beyond the female end portion and engagement face of the bulkhead connector in a direction away from the bulkhead connector such that, in use, the installation tool passes through the bulkhead .
An optical fiber ribbon comprising: a plurality of optical transmission elements ; an inner layer comprising a cross-linked polymer material and an outer surface , the inner layer surrounding the plurality of optical transmission elements , the outer surface of the inner layer comprising: first areas having first concentrations of uncrosslinked polymer material; and second areas having second concentrations of uncrosslinked polymer material, wherein the first concentrations of uncrosslinked polymer material are greater than the second concentrations of uncrosslinked polymer materials; and an outer polymer layer located around and supporting the plurality of optical transmission elements , the outer polymer layer having an inner surface interfacing with the outer surface of the inner layer. a plurality of optical transmission elements ; an inner layer comprising a cross-linked polymer material and an outer surface , the inner layer surrounding the plurality of optical transmission elements , the outer surface of the inner layer comprising: first areas having first concentrations of uncrosslinked polymer material; and second areas having second concentrations of uncrosslinked polymer material, wherein the first concentrations of uncrosslinked polymer material are greater than the second concentrations of uncrosslinked polymer materials; and first areas having first concentrations of uncrosslinked polymer material; and second areas having second concentrations of uncrosslinked polymer material, wherein the first concentrations of uncrosslinked polymer material are greater than the second concentrations of uncrosslinked polymer materials; and an outer polymer layer located around and supporting the plurality of optical transmission elements , the outer polymer layer having an inner surface interfacing with the outer surface of the inner layer.
A method for controlling a transmission of a motor vehicle having a number of operating modes including at least one non-drive mode and at least one drive mode and a multi-stable selector for operation by a driver of the vehicle to select a respective one of the operating modes of the transmission , the multi-stable selector including a mechanism providing a number of stable positions corresponding to the operating modes and a peak and trough force feedback to the driver so as to enable the driver to perceive the transition from one stable position to another stable position and at least one sensor to sense the position of the selector and supply a signal to an electronic controller indicative of a required operating mode wherein the method comprises calibrating the output from the at least one sensor such that, when the selector is located at any one of the peak force feedback positions, the signal from the at least one sensor always results in the selection by the electronic controller of a drive mode, wherein the method further comprises dividing the output range of the at least one sensor into a number of bands having upper and lower limits corresponding to the various operating modes and arranging the bands such that, when the selector is located at any one of the peak force feedback positions, the magnitude of signal output from the at least one sensor falls within one of the drive mode bands, wherein the upper and lower limits of each band are higher when the selector is moved in one direction than they are when the selector is moved in an opposite direction.
A flexographic printing plate comprising at least one halftone printing area with a plurality of halftone dots; wherein a halftone dot of said plurality of halftone dots is shaped as a relief area ; said relief area comprising a central portion and a surrounding portion ; characterized in that said central portion having a central dot floor with a first pattern of a plurality of pins protruding upwardly from the central dot floor ; said surrounding portion protruding upwardly from the central dot floor and having a top side comprising a second pattern of a plurality of recesses ; wherein the first pattern and second pattern are such that the surrounding portion can be distinguished from the central portion .