mhurhangee/patent-ind-claim-en huggingface dataset:
A lithographic printing plate precursor comprising an image recording layer on a hydrophilic support, characterized in that the image recording layer comprises a polymerization initiator, an infrared absorbent, a polymerizable compound, and an acid color former, the infrared absorbent comprises a compound represented by the following Formula 1, and the difference between the HOMO of the compound represented by Formula 1 and the HOMO of at least one compound of the polymerization initiator is 0.60 eV or less, wherein R 1 and R 2 each independently represent a hydrogen atom or an alkyl group, R 1 and R 2 are optionally mutually linked to form a ring, R 3 to R 6 each independently represent a hydrogen atom or an alkyl group, R 7 and R 8 each independently represent an alkyl group or an aryl group, Y 1 and Y 2 each independently represent an oxygen atom, a sulfur atom, -NR 0 - or a dialkylmethylene group, R 0 represents a hydrogen atom, an alkyl group or an aryl group, Ar 1 and Ar 2 each independently represent a group that forms a benzene ring or a naphthalene ring optionally having -X described below, A 1 represents -NR 9 R 10 , -X 1 -L 1 , or -X described below, R 9 and R 10 each independently represent an alkyl group, an aryl group, an alkoxycarbonyl group, or an arylsulfonyl group, X 1 represents an oxygen atom or a sulfur atom, L 1 represents a hydrocarbon group, a heteroaryl group, or a group where a bond with X 1 is to be cleaved by heat or infrared exposure, Za represents a counter ion that neutralizes charge, and at least one of Ar 1 or Ar 2 has a group represented by the following Formula 2: -X Formula 2 wherein X represents a halogen atom, -C(=O)-X 2 -R 11 , -C(=O)-NR 12 R 13 , -O-C(=O)-R 14 , -CN, -SO 2 NR 15 R 16 , or a perfluoroalkyl group, X 2 represents a single bond or an oxygen atom, R 11 and R 14 each independently represent an alkyl group or an aryl group, and R 12 , R 13 , R 15 and R 16 each independently represent a hydrogen atom, an alkyl group, or an aryl group.
Laboratory instrument (1; 1'; 1"; 1"') for working on laboratory samples , the laboratory instrument including a working chamber for housing the laboratory samples, a treatment apparatus for performing a treatment of the laboratory samples housed in the working chamber, a first control apparatus for processing first data and for controlling the treatment apparatus, wherein the working chamber is configured for housing at least one insertable instrument (20; 30), which is to be inserted into the working chamber in an inserted position and which is configured to perform a work step inside the working chamber involving the exchange of data, and the laboratory instrument comprises a network interface apparatus , which is configured to provide, in the inserted position of the insertable instrument, a data connection between at least two network instruments of a laboratory instrument network , which network instruments are taken from the group of network instruments including at least the first control apparatus and the at least one insertable instrument (20; 30), characterized in that the network interface apparatus includes a network router configured to connect the laboratory instrument network with an external network . a working chamber for housing the laboratory samples, a treatment apparatus for performing a treatment of the laboratory samples housed in the working chamber, a first control apparatus for processing first data and for controlling the treatment apparatus, wherein the working chamber is configured for housing at least one insertable instrument (20; 30), which is to be inserted into the working chamber in an inserted position and which is configured to perform a work step inside the working chamber involving the exchange of data, and the laboratory instrument comprises a network interface apparatus , which is configured to provide, in the inserted position of the insertable instrument, a data connection between at least two network instruments of a laboratory instrument network , which network instruments are taken from the group of network instruments including at least the first control apparatus and the at least one insertable instrument (20; 30), characterized in that the network interface apparatus includes a network router configured to connect the laboratory instrument network with an external network .
Foot switch having at least one pedal, which is pivotally mounted for actuation about at least two axes arranged at an angle relative to one another, wherein a locking device is provided, by means of which a movement of the pedal about one of the two axes can be locked, characterized in that the locking device has a sensor arrangement to detect a locking state.
An axial fan wheel , in particular for the radiator of a motor vehicle engine, comprising: a crown ring having a multiplicity of rotor blades ; and a hub having an inner ring which is connected or connectable to a drive shaft, and having, for the purpose of torque transmission, connection surfaces along an external circumference of the hub which are connected to the inner ring and to the crown ring , wherein the hub has through-passages between the inner ring and the external circumference , wherein the connection surfaces along the external circumference are realized by an outer ring arranged radially inside the crown ring along the external circumference,wherein the inner ring is arranged outside a plane of rotation defined by the connection surfaces, characterized in that at least one element , arranged in a rotationally fixed manner on the axial fan wheel inside the crown ring , is designed to maintain a pressure difference in the axial direction when the axial fan wheel rotates; that the at least one element closes off the through-passages between the inner ring and the external circumference , and/or the interior of the crown ring ; and that the at least one element is designed as a thin-walled cover . a crown ring having a multiplicity of rotor blades ; and a hub having an inner ring which is connected or connectable to a drive shaft, and having, for the purpose of torque transmission, connection surfaces along an external circumference of the hub which are connected to the inner ring and to the crown ring , wherein the hub has through-passages between the inner ring and the external circumference , wherein the connection surfaces along the external circumference are realized by an outer ring arranged radially inside the crown ring along the external circumference,wherein the inner ring is arranged outside a plane of rotation defined by the connection surfaces, characterized in that at least one element , arranged in a rotationally fixed manner on the axial fan wheel inside the crown ring , is designed to maintain a pressure difference in the axial direction when the axial fan wheel rotates; that the at least one element closes off the through-passages between the inner ring and the external circumference , and/or the interior of the crown ring ; and that the at least one element is designed as a thin-walled cover .
An integrated circuit, IC, package , comprising: a processing system and a programmable IC disposed on a substrate , the processing system coupled to the programmable IC through interconnect of the substrate ; and a package interface ; the processing system including components coupled to a ring interconnect , the ring interconnect comprising a first sub-ring and a second sub-ring coupled by a ring-to-ring connector , the components including a processor and an interface controller ; and the programmable IC including: an interface endpoint coupled to the interface controller through the interconnect ; at least one peripheral and other circuitry , the at least one peripheral coupled to the interface endpoint and configured for communication with the second sub-ring of the ring interconnect of the processing system through the interface endpoint and the interface controller , the at least one peripheral including: an interface coupled to the package interface , and hardened circuits being functional without first loading a configuration bitstream into the programmable IC ; and the other circuitry including: programmed circuitry configured in programmable logic of the programmable IC . a processing system and a programmable IC disposed on a substrate , the processing system coupled to the programmable IC through interconnect of the substrate ; and a package interface ; the processing system including components coupled to a ring interconnect , the ring interconnect comprising a first sub-ring and a second sub-ring coupled by a ring-to-ring connector , the components including a processor and an interface controller ; and the programmable IC including: an interface endpoint coupled to the interface controller through the interconnect ; at least one peripheral and other circuitry , the at least one peripheral coupled to the interface endpoint and configured for communication with the second sub-ring of the ring interconnect of the processing system through the interface endpoint and the interface controller , the at least one peripheral including: an interface coupled to the package interface , and hardened circuits being functional without first loading a configuration bitstream into the programmable IC ; and an interface coupled to the package interface , and hardened circuits being functional without first loading a configuration bitstream into the programmable IC ; and the other circuitry including: programmed circuitry configured in programmable logic of the programmable IC .
A shear web for stiffening a wind turbine rotor blade, the shear web comprising: a first flange configured to connect to a first half-shell of the wind turbine rotor blade; a second flange configured to connect to a second half-shell of the wind turbine rotor blade; a core extending over a height of the shear web, said core having a first end face configured to face the first half-shell , a second end face configured to face the second half-shell , a front side face configured to face a profile leading edge of the wind turbine rotor blade, and a rear side face configured to face a profile trailing edge of the wind turbine rotor blade; a first layer of reinforcing fibers having a first portion , which is arranged on said rear side face of said core , and a second portion arranged on said first end face of said core and extending from said first end face further toward said profile leading edge , such that said second portion forms a portion of said first flange that faces said profile leading edge ; and, a second layer of reinforcing fibers having a first portion , which is arranged on said front side face of said core , and a second portion arranged on said second end face of said core and extending from said second end face of said core further toward said profile trailing edge , such that said second portion forms a portion of said second flange that faces said profile trailing edge . a first flange configured to connect to a first half-shell of the wind turbine rotor blade; a second flange configured to connect to a second half-shell of the wind turbine rotor blade; a core extending over a height of the shear web, said core having a first end face configured to face the first half-shell , a second end face configured to face the second half-shell , a front side face configured to face a profile leading edge of the wind turbine rotor blade, and a rear side face configured to face a profile trailing edge of the wind turbine rotor blade; a first layer of reinforcing fibers having a first portion , which is arranged on said rear side face of said core , and a second portion arranged on said first end face of said core and extending from said first end face further toward said profile leading edge , such that said second portion forms a portion of said first flange that faces said profile leading edge ; and,
A sash profile having a glass packet comprising a plurality of glass plates, wherin the sash profile has a reinforcing element which is composed of polymer and is installed essentially under the entire contact area of the glass packet on the sash profile, where a substance-to-substance join between the reinforcing element and the glass packet is provided by means of at least two adhesive elements and wherein the adhesive elements have an E modulus in accordance with ISO 37 (at 23°C and 50% relative atmospheric humidity) of at least 100 N/mm 2 .
A transistor arrangement, comprising: a superjunction transistor device (TSJ) comprising a source node (S), a gate node (G), a drain node (D) and a bias node (Q); a bias voltage source (VS DEP ) configured to provide a bias voltage (V DEP ); an electronic switch (SW DEP ) configured to couple the bias voltage source (VS DEP ) between the bias node (Q) and a further bias node (R); a drive circuit configured to drive the electronic switch (SW DEP ); and a clamping circuit coupled between the bias node (Q) and the further bias node (R) and configured to clamp a voltage between the bias node (Q) and the further bias node (R) to a clamping voltage level, and wherein the drive circuit is further configured to switch on the electronic switch (SW DEP ) during a transient phase in which the superjunction transistor device (TSJ) changes from a diode state to a blocking state, and switch off the electronic switch (SW DEP ) when, during the transient phase, a drain-source voltage of the superjunction transistor device (TSJ) has reached a predefined threshold. a superjunction transistor device (TSJ) comprising a source node (S), a gate node (G), a drain node (D) and a bias node (Q); a bias voltage source (VS DEP ) configured to provide a bias voltage (V DEP ); an electronic switch (SW DEP ) configured to couple the bias voltage source (VS DEP ) between the bias node (Q) and a further bias node (R); a drive circuit configured to drive the electronic switch (SW DEP ); and a clamping circuit coupled between the bias node (Q) and the further bias node (R) and configured to clamp a voltage between the bias node (Q) and the further bias node (R) to a clamping voltage level, and wherein the drive circuit is further configured to switch on the electronic switch (SW DEP ) during a transient phase in which the superjunction transistor device (TSJ) changes from a diode state to a blocking state, and switch off the electronic switch (SW DEP ) when, during the transient phase, a drain-source voltage of the superjunction transistor device (TSJ) has reached a predefined threshold.
A voltage measurement device , comprising: a plurality of voltage detection circuits (1 to 5) which measure cell voltages of a plurality of cells connected in series, wherein each of the plurality of voltage detection circuits (1 to 5) includes: a communication control circuit (52 72) which is configured to control transfer for sending a communication command received from a preceding voltage detection circuit (1 to 5) located at a preceding stage to a next voltage detection circuit (1 to 5) located at a next stage, according to the communication end information, and, characterized in that , each of the plurality of voltage detection circuits (1 to 5) further includes: at least one communication end information holding circuit (31 51 71) configured to hold communication end information specifying, as at least one communication end position, at least one of the plurality of voltage detection circuits (1 to 5), said at least one communication end position being a final application destination of the communication command. a plurality of voltage detection circuits (1 to 5) which measure cell voltages of a plurality of cells connected in series, wherein each of the plurality of voltage detection circuits (1 to 5) includes: a communication control circuit (52 72) which is configured to control transfer for sending a communication command received from a preceding voltage detection circuit (1 to 5) located at a preceding stage to a next voltage detection circuit (1 to 5) located at a next stage, according to the communication end information, and, characterized in that , each of the plurality of voltage detection circuits (1 to 5) further includes: at least one communication end information holding circuit (31 51 71) configured to hold communication end information specifying, as at least one communication end position, at least one of the plurality of voltage detection circuits (1 to 5), said at least one communication end position being a final application destination of the communication command. a communication control circuit (52 72) which is configured to control transfer for sending a communication command received from a preceding voltage detection circuit (1 to 5) located at a preceding stage to a next voltage detection circuit (1 to 5) located at a next stage, according to the communication end information, and, characterized in that , each of the plurality of voltage detection circuits (1 to 5) further includes: at least one communication end information holding circuit (31 51 71) configured to hold communication end information specifying, as at least one communication end position, at least one of the plurality of voltage detection circuits (1 to 5), said at least one communication end position being a final application destination of the communication command. at least one communication end information holding circuit (31 51 71) configured to hold communication end information specifying, as at least one communication end position, at least one of the plurality of voltage detection circuits (1 to 5), said at least one communication end position being a final application destination of the communication command.
A bushing (10, 10', 10", 210) for a segmented wind turbine blade, the bushing (10, 10', 10", 210) comprising: a tubular segment having an inside surface extending from a first axial end to a second axial end thereof; a self-lubricating liner having a mounting surface and a bearing surface , the mounting surface is adhered to the inside surface of the tubular segment , wherein the bushing is configured to withstand dithering of plus or minus 2 degrees of rotation at loads exceeding 34.5 MPa and rotational sliding between the liner and a mounting shaft extending therethrough, the mounting shaft being configured for the segmented wind turbine blade, the withstanding dithering being by having the mounting surface of the self-lubricating liner adhered to the inside surface of the tubular segment and the self-lubricating liner permitting less than 0.381 mm (0.015 inch) of wear after over 7 million cycles at the plus or minus 2 degrees of rotation. a tubular segment having an inside surface extending from a first axial end to a second axial end thereof; a self-lubricating liner having a mounting surface and a bearing surface , the mounting surface is adhered to the inside surface of the tubular segment , wherein the bushing is configured to withstand dithering of plus or minus 2 degrees of rotation at loads exceeding 34.5 MPa and rotational sliding between the liner and a mounting shaft extending therethrough, the mounting shaft being configured for the segmented wind turbine blade, the withstanding dithering being by having the mounting surface of the self-lubricating liner adhered to the inside surface of the tubular segment and the self-lubricating liner permitting less than 0.381 mm (0.015 inch) of wear after over 7 million cycles at the plus or minus 2 degrees of rotation.
Device for measuring bulk and/or tapped density comprising : - a driving mechanism , - a vessel provided for containing a powder sample, said vessel being provided to move up and down upon the operation of said driving mechanism , said vessel having a predetermined section, preferably a substantially constant section over height, - a distance measuring device provided for measuring a distance between a first reference point (l1) and a second point (l2), wherein the second point represents the height of the powder sample in the vessel , and provided to output a signal containing c value of the distance to a processing unit, - a temperature adjusting means provided to cool or warm said vessel in order to perform the density or distance measurement at a measurement temperature; characterized in that , - said distance measuring device is a laser distance measuring device provided to emit downwards a laser light ray having a predetermined direction, - the laser distance measuring device is configured to measure the distance by laser triangulation. - a driving mechanism , - a vessel provided for containing a powder sample, said vessel being provided to move up and down upon the operation of said driving mechanism , said vessel having a predetermined section, preferably a substantially constant section over height, - a distance measuring device provided for measuring a distance between a first reference point (l1) and a second point (l2), wherein the second point represents the height of the powder sample in the vessel , and provided to output a signal containing c value of the distance to a processing unit, - a temperature adjusting means provided to cool or warm said vessel in order to perform the density or distance measurement at a measurement temperature; characterized in that , - said distance measuring device is a laser distance measuring device provided to emit downwards a laser light ray having a predetermined direction, - the laser distance measuring device is configured to measure the distance by laser triangulation.
A method performed by a vehicle computer system of controlling downhill speed of a vehicle having an engine retarder system, the method comprising, during operation of the vehicle: receiving , via an engine retarder demand input device of an operator interface of the vehicle, a request to increase engine retarder demand; and in response to the request to increase engine retarder demand: increasing an engine retarder demand setting; and decreasing an auto-retarder set speed for the vehicle, wherein the auto-retarder set speed indicates a vehicle speed at which the engine retarder system automatically activates to reduce the vehicle speed to the auto-retarder set speed. receiving , via an engine retarder demand input device of an operator interface of the vehicle, a request to increase engine retarder demand; and in response to the request to increase engine retarder demand: increasing an engine retarder demand setting; and decreasing an auto-retarder set speed for the vehicle, wherein the auto-retarder set speed indicates a vehicle speed at which the engine retarder system automatically activates to reduce the vehicle speed to the auto-retarder set speed. increasing an engine retarder demand setting; and decreasing an auto-retarder set speed for the vehicle, wherein the auto-retarder set speed indicates a vehicle speed at which the engine retarder system automatically activates to reduce the vehicle speed to the auto-retarder set speed.