mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit to drive a plurality of fluid actuation devices , the integrated circuit comprising: an interface to contact a single printer-side contact to transmit signals to and from the single printer-side contact; an analog circuit to output an analog signal to the interface ; a pulldown device coupled to the interface ; and a timer to override the analog signal on the interface from the analog circuit by activating the pulldown device in response to the timer elapsing. an interface to contact a single printer-side contact to transmit signals to and from the single printer-side contact; an analog circuit to output an analog signal to the interface ; a pulldown device coupled to the interface ; and a timer to override the analog signal on the interface from the analog circuit by activating the pulldown device in response to the timer elapsing.
Two-wheeled vehicle pneumatic tire , preferably bicycle tire, particularly preferably racing bike tire, having a tread , having a tire carcass, having tire sidewalls and having two bead regions which each have a tire bead with a core , wherein the two bead regions each have, as an anti-chafing guard, a bead protective strip arranged axially outside the carcass, • wherein the tire carcass is formed from a first carcass inlay and a second carcass inlay , each comprising strength members, wherein the first carcass inlay and the second carcass inlay each have strength members which run parallel to one another and which are embedded in elastomer material, wherein the strength members of the first carcass inlay and of the second carcass inlay have opposing angles of inclination, • wherein the second carcass inlay is arranged, radially to the inside of the first carcass inlay , in a crown of the two-wheeled vehicle pneumatic tire , extends from the crown of the two-wheeled vehicle pneumatic tire over the tire sidewalls into the two bead regions , loops there around the particular core from axially inside to axially outside, and terminates at a second carcass inlay end under the bead protective strip of the particular bead region , and • wherein the first carcass inlay extends from the crown of the two-wheeled vehicle pneumatic tire over the tire sidewalls into the two bead regions , and loops there around the particular core from axially inside to axially outside, characterized in that • proceeding from the particular bead region , the first carcass inlay is guided with a first carcass inlay turn-up over the particular tire sidewall as far as under the tread to a first carcass inlay end , and terminates there at the first carcass inlay end . • wherein the tire carcass is formed from a first carcass inlay and a second carcass inlay , each comprising strength members, wherein the first carcass inlay and the second carcass inlay each have strength members which run parallel to one another and which are embedded in elastomer material, wherein the strength members of the first carcass inlay and of the second carcass inlay have opposing angles of inclination, • wherein the second carcass inlay is arranged, radially to the inside of the first carcass inlay , in a crown of the two-wheeled vehicle pneumatic tire , extends from the crown of the two-wheeled vehicle pneumatic tire over the tire sidewalls into the two bead regions , loops there around the particular core from axially inside to axially outside, and terminates at a second carcass inlay end under the bead protective strip of the particular bead region , and • wherein the first carcass inlay extends from the crown of the two-wheeled vehicle pneumatic tire over the tire sidewalls into the two bead regions , and loops there around the particular core from axially inside to axially outside, characterized in that • proceeding from the particular bead region , the first carcass inlay is guided with a first carcass inlay turn-up over the particular tire sidewall as far as under the tread to a first carcass inlay end , and terminates there at the first carcass inlay end .
Method for heating a plate or a preformed steel sheet component for the purpose of hot reshaping and/or quench hardening, wherein heating is carried out at least in part areas to a temperature above AC3, wherein heating the plate is carried out as rapid heating and the plate is heated in a first zone with an average heating rate of > 25 K/s to approx. 600°C and above this temperature with an average heating rate of > 10 K/s to a maximum AC3 temperature for this, and is then transferred to a second zone, in which the plate pre-heated in the first zone is heated at least in part areas to temperatures above AC3, in particular > 850°C, wherein the heating rate in the second zone is > 10 K/s, wherein a third zone is provided after zone 2, which is designed as a homogenisation and holding zone, wherein the heating rate there is < 10 K/s or the heating capacity is sized in such a way that a controlled temperature decrease of the plate is ensured, although without falling below the transformation points of the austenitised areas, or a holding of the temperature and the temperature profile, wherein the plate is designed of coated sheet metal and the sheet metal is a zinc alloy coated sheet metal, wherein the sheet metal consists of boron manganese steel.
A method for operating a brake system for a work machine , comprising at least one operating brake acting directly or indirectly on at least one ground engagement element of the work machine and at least one operating brake actuator which is movable between a fully engaged position and a fully released position and an accelerator actuator for activating propulsion of the work machine , characterized in that depending on the actual operational state of the accelerator actuator, the operating brake can automatically be engaged or released without an action of the operator, except engaging or releasing the accelerator actuator by the operator.
Method for joining or repairing a pipe system comprising at least two bonded pipes (1.1,1.2) having polyethylene outer casing, the method comprising the steps of - forming a joint region by fitting a sleeve coupling of weldable polyethylene on the outside surface of a pipe end (1.1) of a bonded pipe such that the sleeve coupling overlaps the pipe end and inserting an electrically conductive band between the outside surface of the pipe end and the inside surface of the sleeve coupling, wherein the electrically conductive band is configured of expanded metal mesh having metal strands (9.1) and mesh openings (9.2) , and arranging the expanded metal mesh such that the metal strands (9.1) extend substantially diagonally across the width of the conductive band , - electrofusion welding of the joint region in order to form a weld joint by supplying power to the electrically conductive band , - application of a pressure force on the joint region during the electrofusion welding by a welding tool for pressurizing the joint region , and extrusion welding a longitudinal joint (7.4) formed on the sleeve coupling , and comprising a step of processing the expanded metal mesh to increase the heat conductive surface prior to inserting the electrically conductive band in the joint region, wherein the step of processing comprises sandblasting the expanded metal mesh thereby forming indentations (9.4) in the surface of the metal strands (9.1) of the expanded metal mesh . - forming a joint region by fitting a sleeve coupling of weldable polyethylene on the outside surface of a pipe end (1.1) of a bonded pipe such that the sleeve coupling overlaps the pipe end and inserting an electrically conductive band between the outside surface of the pipe end and the inside surface of the sleeve coupling, wherein the electrically conductive band is configured of expanded metal mesh having metal strands (9.1) and mesh openings (9.2) , and arranging the expanded metal mesh such that the metal strands (9.1) extend substantially diagonally across the width of the conductive band , - electrofusion welding of the joint region in order to form a weld joint by supplying power to the electrically conductive band , - application of a pressure force on the joint region during the electrofusion welding by a welding tool for pressurizing the joint region , and extrusion welding a longitudinal joint (7.4) formed on the sleeve coupling , and comprising a step of processing the expanded metal mesh to increase the heat conductive surface prior to inserting the electrically conductive band in the joint region, wherein the step of processing comprises sandblasting the expanded metal mesh thereby forming indentations (9.4) in the surface of the metal strands (9.1) of the expanded metal mesh .
An instrument manipulator for a teleoperated surgical system, comprising: a frame comprising an outer shell and an inner frame , the inner frame being movably coupled to the outer shell; a plurality of actuator outputs (442b to 442e, 542b to 542e, 1342b to 1342e) protruding in a distal direction from a distal face of the frame; an instrument support feature coupled to the outer shell, the instrument support feature engageable with an instrument to support the instrument; and a latching mechanism , the latching mechanism being configured to move the inner frame, the outer shell, or both relative to one another, so as to bring the plurality of actuator outputs into operable engagement with a plurality of actuator inputs of the instrument in an engaged state with the instrument support feature. a frame comprising an outer shell and an inner frame , the inner frame being movably coupled to the outer shell; a plurality of actuator outputs (442b to 442e, 542b to 542e, 1342b to 1342e) protruding in a distal direction from a distal face of the frame; an instrument support feature coupled to the outer shell, the instrument support feature engageable with an instrument to support the instrument; and a latching mechanism , the latching mechanism being configured to move the inner frame, the outer shell, or both relative to one another, so as to bring the plurality of actuator outputs into operable engagement with a plurality of actuator inputs of the instrument in an engaged state with the instrument support feature.
A method for forming a high resistivity handle substrate for a composite substrate, the method comprising : - providing a base substrate made of monocrystalline silicon; - exposing the base substrate to a carbon single precursor at a pressure below atmospheric pressure to form a polycrystalline silicon carbide layer of at least 10 nm on the surface of the base substrate; and then - growing a polycrystalline charge trapping layer on the polycrystalline silicon carbide layer. - providing a base substrate made of monocrystalline silicon; - exposing the base substrate to a carbon single precursor at a pressure below atmospheric pressure to form a polycrystalline silicon carbide layer of at least 10 nm on the surface of the base substrate; and then - growing a polycrystalline charge trapping layer on the polycrystalline silicon carbide layer.
An agricultural working system for optimizing agricultural working procedures, having at least one agricultural working unit in particular an agricultural working machine and/or stationary agricultural equipment, wherein the agricultural working system has a plurality of functional units for carrying out or supporting agricultural work, each having a control device for controlling the respective functional unit based on a stored set of rules , characterized in that the agricultural working system has a central pattern recognition system which is configured such that at least one agricultural work situation is stored in the pattern recognition system as a situation pattern , to which pattern recognition system work situation-specific information (I) can be transferred, and based on the work situation-specific information (I) obtained, the pattern recognition system identifies a stored work situation and the associated situation pattern and transmits meta-information (M) characterizing the identified work situation to the functional units , and in that the pattern recognition system and/or the control devices of the plurality of functional units is/are configured to coordinate the cooperation of those functional units which work together in the identified work situation based on the meta-information (M), so that the control devices carry out corresponding adjustments to the parameters of the associated functional unit . the agricultural working system has a central pattern recognition system which is configured such that at least one agricultural work situation is stored in the pattern recognition system as a situation pattern , to which pattern recognition system work situation-specific information (I) can be transferred, and based on the work situation-specific information (I) obtained, the pattern recognition system identifies a stored work situation and the associated situation pattern and transmits meta-information (M) characterizing the identified work situation to the functional units , and in that the pattern recognition system and/or the control devices of the plurality of functional units is/are configured to coordinate the cooperation of those functional units which work together in the identified work situation based on the meta-information (M), so that the control devices carry out corresponding adjustments to the parameters of the associated functional unit .
A separator, comprising a top plate , a bottom plate , and a plurality of grid bars , wherein both the top plate and the bottom plate are circular in shape, and a diameter of the top plate is less than that of the bottom plate ; the separator has a motor connection portion , and a center of the motor connection portion coincides with a rotation center of the separator; the plurality of grid bars are circumferentially spaced between the top plate and the bottom plate ; and the top plate is provided with a plurality of second through holes , and the plurality of second through holes are circumferentially spaced around the motor connection portion . the separator has a motor connection portion , and a center of the motor connection portion coincides with a rotation center of the separator; the plurality of grid bars are circumferentially spaced between the top plate and the bottom plate ; and the top plate is provided with a plurality of second through holes , and the plurality of second through holes are circumferentially spaced around the motor connection portion .
An aircraft cabin in which is installed a plurality of modular aircraft seat units , the modular aircraft seat units being like seat units, each modular aircraft seat unit including a seat and a console adjacent to the seat, the seat being configurable between a bed mode and a seat mode , the seat units being arranged in the aircraft cabin such that: - at least a pair of directly adjacent columns of seat units are formed, each column extending parallel to a common column axis , and - the seat of each seat unit faces a direction inclined to the column axis by a seat offset angle, wherein the console of each seat unit accommodates a foot-well for use by a passenger sat in a different seat from that of the seat unit, wherein each seat unit includes an arm-rest surface for use by a passenger in the seat of the seat unit, characterized in that the arm-rest surface overhangs a region aft of the foot-well defined by the console of the seat unit, such region being suitable for accommodating the legs of a passenger whose feet are in the foot-well. each modular aircraft seat unit including a seat and a console adjacent to the seat, the seat being configurable between a bed mode and a seat mode , the seat units being arranged in the aircraft cabin such that: - at least a pair of directly adjacent columns of seat units are formed, each column extending parallel to a common column axis , and - the seat of each seat unit faces a direction inclined to the column axis by a seat offset angle, wherein the console of each seat unit accommodates a foot-well for use by a passenger sat in a different seat from that of the seat unit, wherein - at least a pair of directly adjacent columns of seat units are formed, each column extending parallel to a common column axis , and - the seat of each seat unit faces a direction inclined to the column axis by a seat offset angle, each seat unit includes an arm-rest surface for use by a passenger in the seat of the seat unit, characterized in that the arm-rest surface overhangs a region aft of the foot-well defined by the console of the seat unit, such region being suitable for accommodating the legs of a passenger whose feet are in the foot-well.
A prosthetic heart valve , comprising: a stent extending from an inflow end to an outflow end ; a sub-annular sealing ring coupled to the stent adjacent the inflow end of the stent , the sub-annular sealing ring comprising a first tube extending circumferentially around the stent ; a supra-annular sealing ring coupled the stent , the supra-annular sealing ring comprising a second tube extending circumferentially around the stent , the supra-annular sealing ring being spaced from the sub-annular sealing ring in a longitudinal direction of the stent ; and a valve assembly disposed within the stent, characterized by the supra-annular sealing ring being adapted to exert a greater force in a radial direction of the stent than is the sub-annular sealing ring , wherein the first tube includes a first single wire coiled into a first repeating shape and the second tube includes a second single wire coiled into a second repeating shape . a stent extending from an inflow end to an outflow end ; a sub-annular sealing ring coupled to the stent adjacent the inflow end of the stent , the sub-annular sealing ring comprising a first tube extending circumferentially around the stent ; a supra-annular sealing ring coupled the stent , the supra-annular sealing ring comprising a second tube extending circumferentially around the stent , the supra-annular sealing ring being spaced from the sub-annular sealing ring in a longitudinal direction of the stent ; and a valve assembly disposed within the stent, characterized by the supra-annular sealing ring being adapted to exert a greater force in a radial direction of the stent than is the sub-annular sealing ring , wherein the first tube includes a first single wire coiled into a first repeating shape and the second tube includes a second single wire coiled into a second repeating shape .
A chip comprising: a body ; and a first electrode disposed and exposed on a surface of the body , wherein the first electrode includes a first confining groove and a first confining wall which is peripherally located around the first confining groove , has a first height (H1) and is provided to confine at least one conductive particle of an adhesive in the first confining groove , the first height (H1) of the first confining wall not being higher than a diameter (D1) of the at least one conductive particle , characterized in that the first confining wall includes a plurality of first ribs which are peripherally located around the first confining groove , and a plurality of first gaps are provided between the adjacent first ribs , respectively, such that when the chip is bonded to the substrate to press the adhesive , the at least one conductive particle of the adhesive is confined in the first confining groove by the first ribs and a resin of the adhesive is able to be squeezed outside the first confining groove via the first gaps . a body ; and a first electrode disposed and exposed on a surface of the body , wherein the first electrode includes a first confining groove and a first confining wall which is peripherally located around the first confining groove , has a first height (H1) and is provided to confine at least one conductive particle of an adhesive in the first confining groove , the first height (H1) of the first confining wall not being higher than a diameter (D1) of the at least one conductive particle , characterized in that the first confining wall includes a plurality of first ribs which are peripherally located around the first confining groove , and a plurality of first gaps are provided between the adjacent first ribs , respectively, such that when the chip is bonded to the substrate to press the adhesive , the at least one conductive particle of the adhesive is confined in the first confining groove by the first ribs and a resin of the adhesive is able to be squeezed outside the first confining groove via the first gaps .
A layered body comprising a polarizer material film that is a product of stretching in one or more directions, and a substrate film provided on the polarizer material film , the substrate film being a product of stretching in one or more directions, wherein a stretching ratio X of the polarizer material film is 1.5 or more and 5.5 or less, a stretching ratio Y of the substrate film is smaller than the stretching ratio X of the polarizer material film , characterized in that : a thickness T2 is 20 μm or less, the thickness T2 being a thickness of the polarizer material film as a result of free end uniaxial stretching of the layered body at a stretching ratio 6.0/X, and an angle Θ2 formed by a stretching direction of the polarizer material film and a stretching direction of the substrate film is less than 1°. a stretching ratio X of the polarizer material film is 1.5 or more and 5.5 or less, a stretching ratio Y of the substrate film is smaller than the stretching ratio X of the polarizer material film , a thickness T2 is 20 μm or less, the thickness T2 being a thickness of the polarizer material film as a result of free end uniaxial stretching of the layered body at a stretching ratio 6.0/X, and an angle Θ2 formed by a stretching direction of the polarizer material film and a stretching direction of the substrate film is less than 1°.
A method for determining a connection status of a device to a cable that transmits data within a network environment, the method comprising: obtaining a signal from a power-carrying wire in the cable by a detector that is digitally isolated from data transmitted by the cable within the network environment , wherein the signal is a power signal, wherein the digitally isolated detector is unable to access unfiltered data transmitted by the cable; and evaluating the signal to determine a connection status of the device to the cable , wherein evaluating the signal to determine the connection status of the device comprises: comparing the signal to a pre-determined power characteristic associated to the device; and determining a connection status on the basis of the comparison, wherein the connection status comprises an indication whether the device is connected or not connected to the cable. obtaining a signal from a power-carrying wire in the cable by a detector that is digitally isolated from data transmitted by the cable within the network environment , wherein the signal is a power signal, wherein the digitally isolated detector is unable to access unfiltered data transmitted by the cable; and evaluating the signal to determine a connection status of the device to the cable , wherein evaluating the signal to determine the connection status of the device comprises: comparing the signal to a pre-determined power characteristic associated to the device; and determining a connection status on the basis of the comparison, wherein the connection status comprises an indication whether the device is connected or not connected to the cable. comparing the signal to a pre-determined power characteristic associated to the device; and determining a connection status on the basis of the comparison, wherein the connection status comprises an indication whether the device is connected or not connected to the cable.