mhurhangee/ep-ind-claims huggingface dataset:
Corrugated or pleated flat material with a plurality of pleats or corrugations that run parallel to one another and successively define a pleat or corrugation peak and a pleat or corrugation valley, the peak and valley being connected to one another by way of a pleat flank, a fluid being able to flow through the flat material and the flat material having at least one deformable functional layer which rests on a supporting layer, comprising a deformable supporting fabric, in the direction of throughflow of the fluid, the functional layer allowing foreign substances to be removed from or delivered to the fluid, characterized in that the supporting fabric comprises a twill weave.
A device (101, 102) for launching operating modes, the device comprising: an application interface (113, 123) configured to receive user input establishing a trigger profile for a first operating mode of the device; a detection module (111, 121) configured to: monitor interactions between at least one external device (103, 104, 105) and the device, wherein the device is configured to be connectable to the at least one external device via a hot plug connection; and detect a status change between the at least one external device and the device, wherein the status change is a change in the at least one external device's hot-plug connection or disconnection status with the device; and a service module (112, 122) configured to: determine whether the status change meets the trigger profile for the first operating mode; and launch the first operating mode on the device in response to determining that the status change meets the trigger profile for the first operating mode. an application interface (113, 123) configured to receive user input establishing a trigger profile for a first operating mode of the device; a detection module (111, 121) configured to: monitor interactions between at least one external device (103, 104, 105) and the device, wherein the device is configured to be connectable to the at least one external device via a hot plug connection; and detect a status change between the at least one external device and the device, wherein the status change is a change in the at least one external device's hot-plug connection or disconnection status with the device; and monitor interactions between at least one external device (103, 104, 105) and the device, wherein the device is configured to be connectable to the at least one external device via a hot plug connection; and detect a status change between the at least one external device and the device, wherein the status change is a change in the at least one external device's hot-plug connection or disconnection status with the device; and a service module (112, 122) configured to: determine whether the status change meets the trigger profile for the first operating mode; and launch the first operating mode on the device in response to determining that the status change meets the trigger profile for the first operating mode. determine whether the status change meets the trigger profile for the first operating mode; and launch the first operating mode on the device in response to determining that the status change meets the trigger profile for the first operating mode.
A phase quantum bit (11, 70) comprising: a Josephson junction (12, 72); a distributed element (14, 74) coupled to the Josephson junction (12, 72), the distributed element (14, 74) providing a capacitive component and an inductive component of the phase quantum bit (11, 70); and a control circuit (18, 82) coupled to the distributed element for biasing the phase quantum bit (11, 72) and a readout circuit (20, 84) coupled to the distributed element (14, 74) for reading the phase quantum bit (11, 72) wherein the control circuit (18, 82) and/or the readout circuit (20, 84) are coupled to the distributed element (14, 74) at a location where the magnitude of the radio frequency current is approximately zero. a Josephson junction (12, 72); a distributed element (14, 74) coupled to the Josephson junction (12, 72), the distributed element (14, 74) providing a capacitive component and an inductive component of the phase quantum bit (11, 70); and a control circuit (18, 82) coupled to the distributed element for biasing the phase quantum bit (11, 72) and a readout circuit (20, 84) coupled to the distributed element (14, 74) for reading the phase quantum bit (11, 72) wherein the control circuit (18, 82) and/or the readout circuit (20, 84) are coupled to the distributed element (14, 74) at a location where the magnitude of the radio frequency current is approximately zero.
A method for diagnosing clutch stuck comprising steps of: allowing a control unit to turn off a clutch actuator after a clutch is engaged by driving of the clutch actuator; allowing the control unit to count a time elapsing from a turn-off time point of the clutch actuator so as to measure a time taken to reach a disengaged state of the clutch for interrupting engine power, wherein the time taken to reach the disengaged state of the clutch is a self-opening time due to reaction force of an elastic member that is pressed by the driving of the clutch actuator to engage or disengage the clutch; and allowing the control unit to determine that the stuck occurs in the clutch when the clutch does not reach the disengaged state within a preset reference time, characterized in that: a relationship information between a position of the clutch and the self-opening time in a normal state in which the stuck does not occur in the clutch is previously set, and in the determination step, the control unit extracts the self-opening time with respect to the position of the clutch at the turn-off time point of the clutch actuator from the relationship information and determines that the stuck occurs in the clutch when the clutch does not reach the disengaged state within the extracted self-opening time. allowing a control unit to turn off a clutch actuator after a clutch is engaged by driving of the clutch actuator; allowing the control unit to count a time elapsing from a turn-off time point of the clutch actuator so as to measure a time taken to reach a disengaged state of the clutch for interrupting engine power, wherein the time taken to reach the disengaged state of the clutch is a self-opening time due to reaction force of an elastic member that is pressed by the driving of the clutch actuator to engage or disengage the clutch; and allowing the control unit to determine that the stuck occurs in the clutch when the clutch does not reach the disengaged state within a preset reference time, characterized in that: a relationship information between a position of the clutch and the self-opening time in a normal state in which the stuck does not occur in the clutch is previously set, and in the determination step, the control unit extracts the self-opening time with respect to the position of the clutch at the turn-off time point of the clutch actuator from the relationship information and determines that the stuck occurs in the clutch when the clutch does not reach the disengaged state within the extracted self-opening time. a relationship information between a position of the clutch and the self-opening time in a normal state in which the stuck does not occur in the clutch is previously set, and in the determination step, the control unit extracts the self-opening time with respect to the position of the clutch at the turn-off time point of the clutch actuator from the relationship information and determines that the stuck occurs in the clutch when the clutch does not reach the disengaged state within the extracted self-opening time.
A processor to perform encryption comprising: a plurality of cores; a level 1 instruction cache to cache instructions; a level 1 data cache; a bus interface unit; a plurality of 128-bit registers; a decode unit to decode the instructions from the level 1 instruction cache including a first Advanced Encryption Standard, AES, single encryption round instruction corresponding to an AES encryption having at least one round, the first AES single encryption round instruction included in an AES instruction set that also includes a first AES single decryption round instruction, the first AES single encryption round instruction and the first AES single decryption round instruction having unique opcodes, wherein the first AES single encryption round instruction is to use a 128-bit source/destination register of the plurality of 128-bit registers and another 128-bit register of the plurality of 128-bit registers; and an execution unit coupled to the decode unit, the decode unit being responsive to the first AES single encryption round instruction to cause the execution unit to perform operations for an AES single encryption round including a byte substitution (404, 502), a shift rows (406, 504), and an exclusive OR (410, 506) and to store (412, 508) a result in the 128-bit source/destination register. a plurality of cores; a level 1 instruction cache to cache instructions; a level 1 data cache; a bus interface unit; a plurality of 128-bit registers; a decode unit to decode the instructions from the level 1 instruction cache including a first Advanced Encryption Standard, AES, single encryption round instruction corresponding to an AES encryption having at least one round, the first AES single encryption round instruction included in an AES instruction set that also includes a first AES single decryption round instruction, the first AES single encryption round instruction and the first AES single decryption round instruction having unique opcodes, wherein the first AES single encryption round instruction is to use a 128-bit source/destination register of the plurality of 128-bit registers and another 128-bit register of the plurality of 128-bit registers; and an execution unit coupled to the decode unit, the decode unit being responsive to the first AES single encryption round instruction to cause the execution unit to perform operations for an AES single encryption round including a byte substitution (404, 502), a shift rows (406, 504), and an exclusive OR (410, 506) and to store (412, 508) a result in the 128-bit source/destination register.
A sintered oil-impregnated metal bearing that is formed of a cylindrical porous body formed through sintering of a compact obtained through compression molding of raw-material powder, the sintered oil-impregnated metal bearing comprising a dynamic pressure generating portion formed on an inner peripheral surface of the sintered oil-impregnated metal bearing, wherein a lubricating oil is impregnated into inner pores of the cylindrical porous body, wherein the dynamic pressure generating portion comprises dynamic pressure generating groove array regions (A1, A2) formed continuously to each other in an axial direction of the sintered oil-impregnated metal bearing, the dynamic pressure generating groove array regions (A1, A2) each comprising a plurality of dynamic pressure generating grooves (8a1) arrayed so as to be inclined with respect to a circumferential direction of the sintered oil-impregnated metal bearing, wherein an axial dimension of the sintered oil-impregnated metal bearing is set to 6 mm or less, wherein a density ratio of the sintered oil-impregnated metal bearing is set to 80% or more and 95% or less, and wherein both fluctuation of a density ratio between a surface layer side and a core side in the sintered oil-impregnated metal bearing and fluctuation of the density ratio between one side in an axial direction and the other side in the axial direction therein are set to 3% or less. wherein a lubricating oil is impregnated into inner pores of the cylindrical porous body, wherein the dynamic pressure generating portion comprises dynamic pressure generating groove array regions (A1, A2) formed continuously to each other in an axial direction of the sintered oil-impregnated metal bearing, the dynamic pressure generating groove array regions (A1, A2) each comprising a plurality of dynamic pressure generating grooves (8a1) arrayed so as to be inclined with respect to a circumferential direction of the sintered oil-impregnated metal bearing, wherein an axial dimension of the sintered oil-impregnated metal bearing is set to 6 mm or less, wherein a density ratio of the sintered oil-impregnated metal bearing is set to 80% or more and 95% or less, and wherein both fluctuation of a density ratio between a surface layer side and a core side in the sintered oil-impregnated metal bearing and fluctuation of the density ratio between one side in an axial direction and the other side in the axial direction therein are set to 3% or less.
A blood measuring apparatus comprising: a first chamber which includes a first wall provided with an aperture and in which diluted blood is contained; a second chamber which includes the first wall, a second wall opposed to the first wall and a peripheral wall and in which diluting solution is contained, the first and second chambers configured to communicate with each other through the aperture; first and second electrodes which are disposed in the first and second chambers, respectively; a measuring unit which is configured to perform a blood measurement by causing a current to flow between the first and second electrodes; a diluting solution supplying unit which is configured to supply diluting solution along a part of the peripheral wall which is adjacent to a peripheral edge of the first wall; and a sucking unit which is configured to suck the diluting solution from the second wall, characterized in that the diluting solution supplying unit is configured to supply the diluting solution through a flow path in a fitting portion disposed in the peripheral wall of the second chamber, where the flow path extends toward the inner peripheral wall of the second chamber adjacent to the peripheral edge of the first wall, to generate a swirling flow. a first chamber which includes a first wall provided with an aperture and in which diluted blood is contained; a second chamber which includes the first wall, a second wall opposed to the first wall and a peripheral wall and in which diluting solution is contained, the first and second chambers configured to communicate with each other through the aperture; first and second electrodes which are disposed in the first and second chambers, respectively; a measuring unit which is configured to perform a blood measurement by causing a current to flow between the first and second electrodes; a diluting solution supplying unit which is configured to supply diluting solution along a part of the peripheral wall which is adjacent to a peripheral edge of the first wall; and a sucking unit which is configured to suck the diluting solution from the second wall, the diluting solution supplying unit is configured to supply the diluting solution through a flow path in a fitting portion disposed in the peripheral wall of the second chamber, where the flow path extends toward the inner peripheral wall of the second chamber adjacent to the peripheral edge of the first wall, to generate a swirling flow.
A complex comprising (i) an anti-IGF-1R IgG antibody attached to one or more anchor domain moieties from an AKAP protein, and (ii) two or more copies of an effector attached to a dimerization and docking domain moiety from a human protein kinase A regulatory subunit RIα, RIβ, RIIα or RIIβ, wherein the effector is a second antibody fragment, a second antibody or a cytokine, wherein two copies of the DDD moiety form a dimer that binds to the AD moiety to form the complex, for use in a method of treating a cancer that expresses IGF-1R, wherein the method comprises: a) administering the complex to an individual with the cancer; and b) administering an mTOR inhibitor to the individual, wherein the mTOR inhibitor is selected from the group consisting of temsirolimus, rapamycin, ridaforolimus and everolimus; wherein the combination of anti-IGF-1R antibody or antigen-binding fragment and mTOR inhibitor is more effective than either alone. (i) an anti-IGF-1R IgG antibody attached to one or more anchor domain moieties from an AKAP protein, and (ii) two or more copies of an effector attached to a dimerization and docking domain moiety from a human protein kinase A regulatory subunit RIα, RIβ, RIIα or RIIβ, wherein the effector is a second antibody fragment, a second antibody or a cytokine, wherein two copies of the DDD moiety form a dimer that binds to the AD moiety to form the complex, for use in a method of treating a cancer that expresses IGF-1R, wherein the method comprises: a) administering the complex to an individual with the cancer; and b) administering an mTOR inhibitor to the individual, wherein the mTOR inhibitor is selected from the group consisting of temsirolimus, rapamycin, ridaforolimus and everolimus; wherein the combination of anti-IGF-1R antibody or antigen-binding fragment and mTOR inhibitor is more effective than either alone. a) administering the complex to an individual with the cancer; and b) administering an mTOR inhibitor to the individual, wherein the mTOR inhibitor is selected from the group consisting of temsirolimus, rapamycin, ridaforolimus and everolimus;
A small photoelectric sensor, comprising: a holder in which an opening, an edge that defines the opening, and four fixing parts (12, 12a, 12b, 12c, 12d) that are independently provided at four corners of a front surface of the holder are formed on the front surface, wherein the four fixing parts (12, 12a, 12b, 12c, 12d) are provided as ribs protruding from the front surface of the holder; a cover lens that is provided at a position interposed between the four fixing parts (12, 12a, 12b, 12c, 12d), and is connected to the edge in a region overlapping the edge, wherein a height of each of the ribs is the same as a thickness of the cover lens; and an optical component that is held by the holder and projects or receives light through the opening, wherein the holder is made of a resin, and the holder and the cover lens are connected by laser welding without using an adhesive. a holder in which an opening, an edge that defines the opening, and four fixing parts (12, 12a, 12b, 12c, 12d) that are independently provided at four corners of a front surface of the holder are formed on the front surface, wherein the four fixing parts (12, 12a, 12b, 12c, 12d) are provided as ribs protruding from the front surface of the holder; a cover lens that is provided at a position interposed between the four fixing parts (12, 12a, 12b, 12c, 12d), and is connected to the edge in a region overlapping the edge, wherein a height of each of the ribs is the same as a thickness of the cover lens; and an optical component that is held by the holder and projects or receives light through the opening, wherein the holder is made of a resin, and the holder and the cover lens are connected by laser welding without using an adhesive.
Use of polymer-bound fibre mats containing carbon fibres, wherein the polymer-bound fibre mats have a mean length measured in the fibre direction of 3 mm to 50 mm and a mean bundle thickness measured perpendicular to the fibre direction of 0.1 mm to 10 mm, and in which at least 75% of all polymer-bound fibre mats have a length that is at least 90% and not more than 110% of the mean length, in the production of carbon-ceramic brake discs and carbon-ceramic clutch discs, wherein mixtures of the polymer-bound fibre mats and carbonisable binders are prepared, these mixtures are pressed at an elevated temperature of 80°C to 250°C in moulds into moulded articles, the obtained moulded articles are carbonised under the exclusion of oxidising agents at a temperature of approx. 750°C to approx. 1200°C into porous carbon materials reinforced with carbon fibres, and the obtained porous carbon materials are finally converted by reaction with liquid silicon to silicon carbide-ceramic articles reinforced with carbon fibres, characterised in that the mixtures of the polymer-bound fibre mats and carbonisable binders additionally contain a mass fraction of 10% to 40% of silicon powder.
A system for processing an electromagnetic signal, wherein the system comprises a transmission path with limited dynamic range and a pre-selection unit that is positioned upstream the transmission path, wherein the pre-selection unit is configured to pre-select signal portions and to control the level of the output electromagnetic signal, wherein a broadband radio receiver is provided that is positioned downstream the transmission path, characterized in that the pre-selection unit has a level control that is formed as an automatic gain control such that the output level of the electromagnetic signal forwarded to the transmission path is maintained constant irrespective of the level of the electromagnetic signal received, and wherein the broadband radio receiver is connected to the pre-selection unit via a feedback line such that the broadband radio receiver is configured to obtain information about the state of the pre-selection unit and how the pre-selection unit influences the received electromagnetic signal with regard to the pre-selecting parameters and the level control.
An adhesive deposition tool for applying a bead of structural adhesive onto an application surface of a wind turbine blade component, the tool comprising: a top portion defining an upper boundary of an open-ended chamber, the chamber comprising a front end and a rear end, the rear end being the end from which adhesive is deposited onto the surface when the tool is moved along the surface; two side portions defining side boundaries of the chamber; and, a supply channel for supplying adhesive to the chamber, wherein the top portion and/or at least one side portion is configured such that the height and/or the width of the chamber decreases towards the front end of the chamber; characterised in that the top portion further comprises a baffle downwardly pitched towards the rear of the tool so as to decrease the height of the chamber towards the rear end of the chamber. a top portion defining an upper boundary of an open-ended chamber, the chamber comprising a front end and a rear end, the rear end being the end from which adhesive is deposited onto the surface when the tool is moved along the surface; two side portions defining side boundaries of the chamber; and, a supply channel for supplying adhesive to the chamber, wherein the top portion and/or at least one side portion is configured such that the height and/or the width of the chamber decreases towards the front end of the chamber; characterised in that the top portion further comprises a baffle downwardly pitched towards the rear of the tool so as to decrease the height of the chamber towards the rear end of the chamber.
An unmanned aerial vehicle comprising at least four rotors, each rotor having a plane of rotation, wherein the at least four rotors are arranged such that the plane of rotation of each rotor is co-planar with a face of a notional polyhedron, and wherein each face of the notional polyhedron is co-planar with the plane of rotation of at least one rotor, characterised in that the unmanned aerial vehicle comprises a substantially hollow main body in the form of an exoskeleton structure which provides the supporting structure of the UAV, the main body defining an open space at the centre of the body which facilitates the flow of air to or from each of the rotors.
Structural component having a multiplicity of material layers (2; 3; 4; 5; 6), which are stacked and connected together in a thickness direction; wherein at least one of the material layers (3; 4; 5; 6) is a fibre composite layer composed of a fibre composite material, said fibre composite layer being realized by way of fibre bands; wherein an outermost material layer in relation to the thickness direction is formed by a sensor device at least in sections, said sensor device having a plurality of band-like sensor units arranged alongside one another, wherein each sensor unit comprises an electroactive polymer arranged between electrically conductive electrodes (12; 13).