mhurhangee/patent-ind-claim-en huggingface dataset:
An acidic feminine intimate cleansing composition having a pH in the range of from 3 to 5, which necessarily comprises at least: as a primary antimicrobial active constituent one or more of: lactic acid and/or a substituted lactic acid and/or a derivative thereof; and a ternary anionic constituent system which necessarily comprises one or more of each of: (a) a secondary alkane sulfonate compound(s), (b) an N-acyl sarcosinate compound(s), and (c) an aromatic hydrotrope compound(s), preferably a cumene sulfonate compound, which ternary anionic constituent system boosts the antimicrobial efficacy of the primary antimicrobial active constituent present. and a ternary anionic constituent system which necessarily comprises one or more of each of: (a) a secondary alkane sulfonate compound(s), (b) an N-acyl sarcosinate compound(s), and (c) an aromatic hydrotrope compound(s), preferably a cumene sulfonate compound, which ternary anionic constituent system boosts the antimicrobial efficacy of the primary antimicrobial active constituent present.
An automatic travel system for a work vehicle, comprising: an automatic travel control unit that causes the work vehicle to automatically travel, the work vehicle including an obstacle detection unit that detects obstacles, wherein the obstacle detection unit includes an imaging unit that image-captures a set range in a predetermined direction from the work vehicle, and an active sensor including a LiDAR sensor and/or a sonar that measures a set range in the same predetermined direction as the imaging unit from the work vehicle, and when the obstacle detection unit detects the obstacle from information of the imaging unit and acquires a separation distance from the obstacle from information of the active sensor , the automatic travel control unit executes first collision avoidance control to avoid a collision between the work vehicle and the obstacle on the basis of the separation distance from the obstacle acquired from the information of the active sensor , and characterised in that when the obstacle detection unit detects an obstacle from the information of the imaging unit but cannot acquire the separation distance from the obstacle from the information of the active sensor , the automatic travel control unit executes second collision avoidance control which has a higher collision avoidance rate than the first collision avoidance control. an automatic travel control unit that causes the work vehicle to automatically travel, the work vehicle including an obstacle detection unit that detects obstacles, wherein the obstacle detection unit includes an imaging unit that image-captures a set range in a predetermined direction from the work vehicle, and an active sensor including a LiDAR sensor and/or a sonar that measures a set range in the same predetermined direction as the imaging unit from the work vehicle, and when the obstacle detection unit detects the obstacle from information of the imaging unit and acquires a separation distance from the obstacle from information of the active sensor , the automatic travel control unit executes first collision avoidance control to avoid a collision between the work vehicle and the obstacle on the basis of the separation distance from the obstacle acquired from the information of the active sensor , and characterised in that when the obstacle detection unit detects an obstacle from the information of the imaging unit but cannot acquire the separation distance from the obstacle from the information of the active sensor , the automatic travel control unit executes second collision avoidance control which has a higher collision avoidance rate than the first collision avoidance control.
An inkjet printing apparatus comprising: a print head configured to perform print operation, the print head having an ejection opening surface on which a plurality of ejection openings for ejecting ink are being arrayed along a first direction (y); and a moving unit configured to move the print head between a printing position in which the print operation is performed and a standby position in which the print operation is not performed, characterized in that the printing position is a position inclined with respect to a horizontal plane (x-y) that includes the first direction (y); the moving unit moves the print head between the printing position and the standby position by simultaneously performing rotational movement and vertical linear movement of the print head, wherein the rotational movement is a rotation of the print head around a rotation axis parallel to the first direction, and the vertical linear movement is a movement of the print head along a second direction (z) perpendicular to the horizontal plane. a print head configured to perform print operation, the print head having an ejection opening surface on which a plurality of ejection openings for ejecting ink are being arrayed along a first direction (y); and a moving unit configured to move the print head between a printing position in which the print operation is performed and a standby position in which the print operation is not performed, characterized in that the printing position is a position inclined with respect to a horizontal plane (x-y) that includes the first direction (y); the moving unit moves the print head between the printing position and the standby position by simultaneously performing rotational movement and vertical linear movement of the print head, wherein the rotational movement is a rotation of the print head around a rotation axis parallel to the first direction, and the vertical linear movement is a movement of the print head along a second direction (z) perpendicular to the horizontal plane.
Reciprocating-piston compressor having a piston which is driven by means of a slider-crank mechanism and having a piston which is movable in reciprocating fashion in a cylinder and which is sealed off with respect to the cylinder wall, wherein the slider-crank mechanism has a crank wheel which is arranged on a crankshaft and which has an eccentric crankpin , and also a connecting rod which is arranged between the piston and the crankpin , wherein the piston or piston crown is arranged so as to be static and perpendicular with respect to the connecting-rod axis , wherein the piston and/or the cylinder are/is designed such that the sickle-shaped gaps that arise between piston edge and cylinder wall during the respective stroke movement owing to the relative inclination between piston axis and cylinder axis can be sealed off, wherein the piston as an overall assembly with a piston seal has an oval-elliptical shape which deviates from the circular shape, characterized in that the piston is a circular shape and the piston seal is ring-shaped and has a varying thickness, in which the thickness maximum is arranged and designed such that the sickle-shaped gaps can be compensated, with the result that an elastic seal between piston and cylinder wall is effected during the entire stroke movement and at the dead centres.
Method for controlling/regulating a robot manipulator, which has a sensor for detecting a mechanical interaction with an environment, in which - a force-time curve of an external force F ( t ) acting on the robot manipulator is detected by the sensor, - a time span Δt 1 is determined, which indicates the time span from exceeding a predetermined threshold G1 at the time t 0 to reaching a subsequent first maximum Max1(| F ( t )|) of the force-time curve F ( t ) at the time t 1 , - a time span Δt 2 is determined, which indicates a time span from t 1 to reaching a subsequent first minimum Min1(| F ( t )|) of the force-time curve F (t) at the time t 2 , and - a safety mode of the robot manipulator is activated if: Δt 1 + Δt 2 = Δt G < G2 and/or Max1(| F ( t )|) > G3, wherein G2 and G3 are predetermined thresholds, wherein - the safety mode controls/regulates a movement speed | V (t) | and/or a movement direction V (t) /| V (t) |, - the movement speed | V (t) | and/or the movement direction V (t) /| V (t) | of the robot manipulator is/are controlled/regulated with a speed or torque control prior to activation of the safety mode as a function of predetermined medical parameters, and after activation of the safety mode is/are controlled by a force control, in which the movement of the robot manipulator is controlled/regulated as a function of the detected force F(t), wherein the medical parameters parameterize a degree of injury, a degree of pain perception, a degree or damage and/or another degree of risk. - a force-time curve of an external force F ( t ) acting on the robot manipulator is detected by the sensor, - a time span Δt 1 is determined, which indicates the time span from exceeding a predetermined threshold G1 at the time t 0 to reaching a subsequent first maximum Max1(| F ( t )|) of the force-time curve F ( t ) at the time t 1 , - a time span Δt 2 is determined, which indicates a time span from t 1 to reaching a subsequent first minimum Min1(| F ( t )|) of the force-time curve F (t) at the time t 2 , and - a safety mode of the robot manipulator is activated if: Δt 1 + Δt 2 = Δt G < G2 and/or Max1(| F ( t )|) > G3, wherein G2 and G3 are predetermined thresholds, - the safety mode controls/regulates a movement speed | V (t) | and/or a movement direction V (t) /| V (t) |, - the movement speed | V (t) | and/or the movement direction V (t) /| V (t) | of the robot manipulator is/are controlled/regulated with a speed or torque control prior to activation of the safety mode as a function of predetermined medical parameters, and after activation of the safety mode is/are controlled by a force control, in which the movement of the robot manipulator is controlled/regulated as a function of the detected force F(t), wherein the medical parameters parameterize a degree of injury, a degree of pain perception, a degree or damage and/or another degree of risk.
A gradient filtration media, said filtration media comprising: (a) a filtration media substrate comprising a first influent surface and a first effluent surface; (b) a first nanofiber layer comprising at least 25 weight percent of a first nanofiber, wherein said first nanofiber layer comprises a second influent surface and a second effluent surface, wherein said first nanofiber layer at least partially coats said first influent surface of said filtration media substrate, wherein said first nanofiber comprises an average diameter of 50 to 500 nm; and (c) a second nanofiber layer comprising at least 25 weight percent of a second nanofiber, wherein said second nanofiber layer at least partially coats said second influent surface of said first nanofiber wherein said second nanofiber comprises an average diameter of 500 to 900 nm and wherein said second nanofiber comprises an average diameter that is greater than the average diameter of said first nanofiber so that the combined presence of the first nanofiber layer and the second nanofiber layer produce a gradient density pore structure in the gradient filtration media. (a) a filtration media substrate comprising a first influent surface and a first effluent surface; (b) a first nanofiber layer comprising at least 25 weight percent of a first nanofiber, wherein said first nanofiber layer comprises a second influent surface and a second effluent surface, wherein said first nanofiber layer at least partially coats said first influent surface of said filtration media substrate, wherein said first nanofiber comprises an average diameter of 50 to 500 nm; and (c) a second nanofiber layer comprising at least 25 weight percent of a second nanofiber, wherein said second nanofiber layer at least partially coats said second influent surface of said first nanofiber wherein said second nanofiber comprises an average diameter of 500 to 900 nm and wherein said second nanofiber comprises an average diameter that is greater than the average diameter of said first nanofiber so that the combined presence of the first nanofiber layer and the second nanofiber layer produce a gradient density pore structure in the gradient filtration media.
A sulfide solid electrolyte, comprising lithium, phosphorus, sulfur and chlorine, wherein a molar ratio of the chlorine to the phosphorus, c (Cl/P), is greater than 1.0 and 1.9 or less, the sulfide solid electrolyte has an argyrodite-type crystal structure, and a lattice constant of the argyrodite-type crystal structure is 9.750 Å or more and 9.820 Å or less. a molar ratio of the chlorine to the phosphorus, c (Cl/P), is greater than 1.0 and 1.9 or less, the sulfide solid electrolyte has an argyrodite-type crystal structure, and a lattice constant of the argyrodite-type crystal structure is 9.750 Å or more and 9.820 Å or less.
A method for using a power saving signaling pattern, comprising: determining , by a terminal, a Discontinuous Reception, DRX, timer in an operating state, the DRX timer being one of: an on duration timer with a long DRX cycle and an on duration timer with a short DRX cycle; determining to use a first pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the long DRX cycle; determining to use a second pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the short DRX cycle; and monitoring, by the terminal, the power saving signaling based on the determined pattern for monitoring the power saving signaling; wherein the first pattern for monitoring the power saving signaling is different from the second pattern for monitoring the power saving signaling; wherein, the pattern for monitoring the power saving signaling comprises a cycle of the power saving signaling; the cycle of the power saving signaling is one of 1/N times and N times of a DRX cycle; the DRX cycle is one of the long DRX cycle and the short DRX cycle; wherein, N is an integer greater than or equal to 1. determining , by a terminal, a Discontinuous Reception, DRX, timer in an operating state, the DRX timer being one of: an on duration timer with a long DRX cycle and an on duration timer with a short DRX cycle; determining to use a first pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the long DRX cycle; determining to use a second pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the short DRX cycle; and monitoring, by the terminal, the power saving signaling based on the determined pattern for monitoring the power saving signaling; wherein the first pattern for monitoring the power saving signaling is different from the second pattern for monitoring the power saving signaling; wherein, the pattern for monitoring the power saving signaling comprises a cycle of the power saving signaling; the cycle of the power saving signaling is one of 1/N times and N times of a DRX cycle; the DRX cycle is one of the long DRX cycle and the short DRX cycle; wherein, N is an integer greater than or equal to 1.
A crane, in particular a revolving tower crane, comprising a crane boom from which a lifting hook can be raised and lowered via a hoist rope and an electric power supply at the lifting hook and/or a trolley optionally present and travelable at the crane boom , wherein the power supply has a generator that is arranged at the lifting hook or at the trolley and that is drivable by a deflection pulley (13; 11), characterized in that the deflection pulley (13; 11) has a friction track with which a drive wheel configured as a friction wheel for driving the generator is in rolling engagement, with the friction track being provided at a widened rope flange of the deflection pulley (13; 11).
A receiver for a data link, the receiver comprising: a data path receiving an input signal from the data link, the data path comprising: an equalizer adapted to receive the input signal and to output a data signal to a sum node, the sum node adapted to add an error signal from a feedback filter of a decision feedback equalization, DFE, circuitry to the data signal to obtain a sum signal, a clock data recovery, CDR, loop adapted to obtain a recovered clock signal from the sum signal, and a first sampler circuit adapted to receive the sum signal, wherein the first sampler circuit is triggered by the recovered clock signal and adapted to generate a recovered data signal from the sum signal; a phase interpolator adapted to receive the recovered clock signal and to generate a phase-interpolated clock signal; and the decision feedback equalization, DFE, circuitry comprising a second sampler circuit adapted to receive the sum signal, wherein the second sampler circuit is triggered by the recovered clock signal in a first operating mode which performs decision feedback equalization adaptation and by the phase-interpolated clock signal in a second operating mode so as to generate eye-diagram data. a data path receiving an input signal from the data link, the data path comprising: an equalizer adapted to receive the input signal and to output a data signal to a sum node, the sum node adapted to add an error signal from a feedback filter of a decision feedback equalization, DFE, circuitry to the data signal to obtain a sum signal, a clock data recovery, CDR, loop adapted to obtain a recovered clock signal from the sum signal, and a first sampler circuit adapted to receive the sum signal, wherein the first sampler circuit is triggered by the recovered clock signal and adapted to generate a recovered data signal from the sum signal; an equalizer adapted to receive the input signal and to output a data signal to a sum node, the sum node adapted to add an error signal from a feedback filter of a decision feedback equalization, DFE, circuitry to the data signal to obtain a sum signal, a clock data recovery, CDR, loop adapted to obtain a recovered clock signal from the sum signal, and a first sampler circuit adapted to receive the sum signal, wherein the first sampler circuit is triggered by the recovered clock signal and adapted to generate a recovered data signal from the sum signal; a phase interpolator adapted to receive the recovered clock signal and to generate a phase-interpolated clock signal; and the decision feedback equalization, DFE, circuitry comprising a second sampler circuit adapted to receive the sum signal, wherein the second sampler circuit is triggered by the recovered clock signal in a first operating mode which performs decision feedback equalization adaptation and by the phase-interpolated clock signal in a second operating mode so as to generate eye-diagram data.
A mass analysis apparatus comprising: a measurement unit that includes a first mass analyzer configured to select first target ions from among precursor ions, a collision cell configured to generate product ions from the first target ions and configured to store and eject the product ions, a second mass analyzer configured to select second target ions from among the product ions, and a detector configured to detect the second target ions; an inputter configured to designate a transition observation time for each of transitions which are combinations of the first target ions and the second target ions; a computation unit configured to compute, for each of the transitions, an actual transition observation time as a time of an integer multiple of a storage-ejection time which is a sum of a storage time and an ejection time of the collision cell such that a storing-ejecting operation of the collision cell is repeated the largest number of times within a frame of the transition observation time; and an operation controller configured to control an operation of the measurement unit based on the storage time and the ejection time of the collision cell , and the actual transition observation time for each of the transitions. a measurement unit that includes a first mass analyzer configured to select first target ions from among precursor ions, a collision cell configured to generate product ions from the first target ions and configured to store and eject the product ions, a second mass analyzer configured to select second target ions from among the product ions, and a detector configured to detect the second target ions; an inputter configured to designate a transition observation time for each of transitions which are combinations of the first target ions and the second target ions; a computation unit configured to compute, for each of the transitions, an actual transition observation time as a time of an integer multiple of a storage-ejection time which is a sum of a storage time and an ejection time of the collision cell such that a storing-ejecting operation of the collision cell is repeated the largest number of times within a frame of the transition observation time; and an operation controller configured to control an operation of the measurement unit based on the storage time and the ejection time of the collision cell , and the actual transition observation time for each of the transitions.
An elastic tubular sleeve having a proximal area to be placed onto the shaft of a penis and a distal area which is suited to enclose and to bear on the outside on a proximal end of a hollow body for a penis extension device, whereby the wall thickness of the sleeve is greater in the distal area than in the proximal area and the distal area of the sleeve is divided into a transition area to the proximal area and into an end area , characterized in that the sleeve extends in the transition area radially outward like a bead and the transition area has in its inside wall a circumferential groove the bottom of which shows radially outword.
A combined cycle system , which comprises a gas turbine , a steam turbine and a heat recovery steam generator , wherein gas turbine exhaust gas flows from an entry end of the heat recovery steam generator to an exit end of the heat recovery steam generator to form a flow path for heating therein steam for the steam turbine, and wherein the heat recovery steam generator comprises a high pressure economizer , a water separation unit and a set of super-heaters , the steam discharged from the water separation unit is routed through a high pressure outlet line to the set of super-heaters and discharged from the set of super-heaters through a main outlet line of the heat recovery steam generator to be introduced into the steam turbine, wherein an attemperating line is connected between the high pressure outlet line and the main outlet line of the heat recovery steam generator to introduce a portion of saturated steam that is discharged from the water separation unit into the steam discharged from the set of super-heaters, and that a control valve is disposed in the attemperating line; characterized in that the attemperating line is connected to the main outlet line of the heat recovery steam generator directly after the water separation unit .
A coating material for the production of a UV-curing primer coating comprising at least 60 to 90 % by weight of monofunctional cycloaliphatic acrylate monomers or monofunctional aryloxy alkyl acrylate monomers, 1 to 10 % by weight of amino-functional silanes, 1 to 10 % by weight of photoinitiators, up to 10 % by weight of acrylate oligomers and/or methacrylate oligomers as well as 0.01 to 1 % by weight of surfactants selected from among modified poly(organo)siloxanes, each based on the total weight of the coating material. 60 to 90 % by weight of monofunctional cycloaliphatic acrylate monomers or monofunctional aryloxy alkyl acrylate monomers, 1 to 10 % by weight of amino-functional silanes, 1 to 10 % by weight of photoinitiators, up to 10 % by weight of acrylate oligomers and/or methacrylate oligomers as well as 0.01 to 1 % by weight of surfactants selected from among modified poly(organo)siloxanes, each based on the total weight of the coating material.