mhurhangee/ep-ind-claims huggingface dataset:
A method to control a vehicle system, the method comprising: detecting a deviating vehicle having at least one of a deviating behaviour and a deviating vehicle property by means of a perception system of a first vehicle, wherein the perception system comprises at least one sensor device configured to monitor a surrounding environment of the first vehicle, determining a timestamped location relating to the deviating vehicle; assigning a deviating vehicle classification to the deviating vehicle based on the deviating behaviour and/or deviating vehicle property, determining at least one second vehicle to receive information relating to the deviating vehicle, wherein the determination of the at least one second vehicle is based on the determined timestamped location, transmitting to each determined second vehicle a set of information relating to the deviating vehicle, said set of information comprising at least one of the deviating vehicle classification and a predetermined instruction to be performed by the determined second vehicle, wherein the predetermined instruction is dependent on the deviating vehicle classification, receiving at each determined second vehicle the set of information, and controlling a vehicle system at each determined second vehicle so as to perform a predetermined action based on the deviating vehicle classification or based on the predetermined instruction. detecting a deviating vehicle having at least one of a deviating behaviour and a deviating vehicle property by means of a perception system of a first vehicle, wherein the perception system comprises at least one sensor device configured to monitor a surrounding environment of the first vehicle, determining a timestamped location relating to the deviating vehicle; assigning a deviating vehicle classification to the deviating vehicle based on the deviating behaviour and/or deviating vehicle property, determining at least one second vehicle to receive information relating to the deviating vehicle, wherein the determination of the at least one second vehicle is based on the determined timestamped location, transmitting to each determined second vehicle a set of information relating to the deviating vehicle, said set of information comprising at least one of the deviating vehicle classification and a predetermined instruction to be performed by the determined second vehicle, wherein the predetermined instruction is dependent on the deviating vehicle classification, receiving at each determined second vehicle the set of information, and controlling a vehicle system at each determined second vehicle so as to perform a predetermined action based on the deviating vehicle classification or based on the predetermined instruction.
Mounting rail bus system, A) with a mounting rail and a station bus, which is arranged in mounting rail and which has at least two connectable bus members for connection with in each case a module that is to be associated as bus partner, characterized in that B) each bus member has contact pins for the transmission of electrical power supply output and at least one printed circuit board with strip conductors for the transmission of electrical data and/or control signals that have a lesser power output than the supply power output, and C) each contact pin and each strip conductor of the printed circuit board is connected in each case with a double bushing contact element D) the double bushing contact element has a foot and a connecting surface that is arranged opposite the foot and E) each foot is attached to the contact pin with its foot underside or that it is attached with its foot underside on a strip conductor of printed circuit board. A) with a mounting rail and a station bus, which is arranged in mounting rail and which has at least two connectable bus members for connection with in each case a module that is to be associated as bus partner, characterized in that B) each bus member has contact pins for the transmission of electrical power supply output and at least one printed circuit board with strip conductors for the transmission of electrical data and/or control signals that have a lesser power output than the supply power output, and C) each contact pin and each strip conductor of the printed circuit board is connected in each case with a double bushing contact element D) the double bushing contact element has a foot and a connecting surface that is arranged opposite the foot and E) each foot is attached to the contact pin with its foot underside or that it is attached with its foot underside on a strip conductor of printed circuit board.
Method of manufacturing a foamed molded part without use of a release agent, the method having the following steps: - inserting a mold insert (120, 160) into the foam form or electroform of a device for manufacturing a molded part, - that is, a mold insert for a foam form or electroform, having an upper die and a lower die allocated to the same, with a cavity, - the molded part form imparting a shape to a foam introduced into the cavity, - the mold insert being arranged on the molded part form in a planar manner such that in the arranged state, a cavity reduced in volume is formed and the mold insert contributes to shape imparting of the material, - the surface of the mold insert, which is allocated to the cavity reduced in volume, being formed by polyethylene, and - introducing an additional mold insert (120, 160) into the molded part form, one mold insert each being allocated to the upper die and the lower die of the foam form or electroform; injecting a moldable material, in particular a foam, into the cavity reduced in volume, such that the cavity reduced in volume imparts the shape of the molded part to the material such that a molded part is produced, - taking out the molded part, - removing the molded part, where - a used mold insert is cleaned and reused, characterized in that - a material thickness of the respective mold insert is between 0.8 mm and 8 mm, and - a mold insert has a temperature conducting element made of metal. - inserting a mold insert (120, 160) into the foam form or electroform of a device for manufacturing a molded part, - that is, a mold insert for a foam form or electroform, having an upper die and a lower die allocated to the same, with a cavity, - the molded part form imparting a shape to a foam introduced into the cavity, - the mold insert being arranged on the molded part form in a planar manner such that in the arranged state, a cavity reduced in volume is formed and the mold insert contributes to shape imparting of the material, - the surface of the mold insert, which is allocated to the cavity reduced in volume, being formed by polyethylene, and - introducing an additional mold insert (120, 160) into the molded part form, one mold insert each being allocated to the upper die and the lower die of the foam form or electroform; injecting a moldable material, in particular a foam, into the cavity reduced in volume, such that the cavity reduced in volume imparts the shape of the molded part to the material such that a molded part is produced, - taking out the molded part, - removing the molded part, - a used mold insert is cleaned and reused, - a material thickness of the respective mold insert is between 0.8 mm and 8 mm, and - a mold insert has a temperature conducting element made of metal.
Method for the machining of at least one exhaust-gas-conducting surface region of an internal combustion engine or crankcase part in order to provide a corrosion-resistant surface layer, by means of a surface-condition-changing machining tool, wherein the at least one exhaust-gas-conducting surface region, which is produced from a corrodible material is brought into contact, during the course of the machining by means of the surface-condition-changing machining tool, with a tribochemically activatable substance formed by at least one metal silicate, which substance is activated during the course of the machining as a function of a defined contact pressure of the machining tool and/or as a function of a defined machining temperature generated during the machining, and which forms with the respective surface region, by tribochemical reaction, the corrosion-resistant surface as a triboreaction layer.
A method of defining a mating surface in a first side of an arthroplasty jig, the mating surface configured to matingly receive and contact a corresponding patient surface including at least one of a bone surface and a cartilage surface, the first side being oriented towards the patient surface when the mating surface matingly receives and contacts the patient surface, the method comprising: a) identifying a contour line associated with the patient surface as represented in a medical image; b) evaluating via an algorithm the adequacy of the contour line for defining a portion of the mating surface associated with the contour line; c) modifying the contour line if the contour line is deemed inadequate; and d) employing the modified contour line to define the portion of the mating surface associated with the contour line. a) identifying a contour line associated with the patient surface as represented in a medical image; b) evaluating via an algorithm the adequacy of the contour line for defining a portion of the mating surface associated with the contour line; c) modifying the contour line if the contour line is deemed inadequate; and d) employing the modified contour line to define the portion of the mating surface associated with the contour line.
A swash plate pump for direct transfer of viscous media from an input to an output port (3, 4) with a split two-part housing (1, 2), wherein the split two-part housing comprises a pump housing split from a pump head, wherein a drive shaft is turning an eccentrically split ball (5, 10), on which a swash plate having an outer rim shaped correspondingly to a spherical inner shape of the pump chamber is arranged, thus resulting in a wagging movement of the swash plate inside a pump chamber, wherein the wagging movement of the swash plate is limited by a sword which holds the swash plate in a recess of the swash plate, so that the drive shaft moves the swash plate about a swash point so as to describe a double conical surface, the swash point being at the same time the center point of the surface of the outer rim of the swash plate and the spherical inner surface of the pump chamber and of the split ball (5, 10), characterized in that the parting plane of the split housing (1, 2) is bevelled by an angle in a range of 5° to 45° relative to an axis perpendicular to the drive shaft, said parting plane running through the center of the ball (5, 10) and wherein the input and output ports (3, 4) are mounted at the pump housing.
A method of navigating a network of options for display to a user on a display device and selection by the user with a pointer and a selector, comprising defining a two-dimensional navigation region on the display; displaying a set of options branching from a node in the network as the navigation region divided into a plurality of sub-regions; displaying a control bar on the display adjacent the displayed set of options, the control bar having a plurality of on-off buttons; recording selection by the user of a selected option if the selector is activated by the user when the pointer is pointing within its corresponding sub-region; and if the selected option is a second node having a second set of options branching therefrom, repeating the steps of displaying and recording for the second set of options, wherein the displaying of the set of options before selection comprises faint displaying of the divisions of one or more sub-sub-regions for each set of options in miniature within the sub-region associated with each option so as to provide an enhanced sensation of navigation within a landscape, wherein further selection of a sub-region causes display of the one or more sub-sub-regions of the selected sub-region, and wherein activating at least one of the plurality of on-off buttons causes at least one sub-sub-region of the selected sub-region to be eliminated from the display, and causes the remaining displayed sub-sub-regions of the selected sub-region to be magnified on the display. defining a two-dimensional navigation region on the display; displaying a set of options branching from a node in the network as the navigation region divided into a plurality of sub-regions; displaying a control bar on the display adjacent the displayed set of options, the control bar having a plurality of on-off buttons; recording selection by the user of a selected option if the selector is activated by the user when the pointer is pointing within its corresponding sub-region; and if the selected option is a second node having a second set of options branching therefrom, repeating the steps of displaying and recording for the second set of options, wherein the displaying of the set of options before selection comprises faint displaying of the divisions of one or more sub-sub-regions for each set of options in miniature within the sub-region associated with each option so as to provide an enhanced sensation of navigation within a landscape, wherein further selection of a sub-region causes display of the one or more sub-sub-regions of the selected sub-region, and wherein activating at least one of the plurality of on-off buttons causes at least one sub-sub-region of the selected sub-region to be eliminated from the display, and causes the remaining displayed sub-sub-regions of the selected sub-region to be magnified on the display.
An apparatus comprising: (a) a catheter shaft assembly having a distal end; and (b) an end effector positioned at the distal end of the catheter shaft assembly, the end effector including: (i) a balloon having a proximal end and a distal end, the balloon defining an interior configured to receive a fluid to inflate the balloon, the balloon being sized and configured to fit within a cardiovascular anatomical structure, (ii) one or more electrodes on the balloon, and (iii) a tip assembly at the distal end of the balloon, the tip assembly including a pressure relief valve, the pressure relief valve being configured to transition between a sealing state and a pressure-relieving state, the pressure relief valve in the sealing state being configured to prevent fluid from leaking out from the interior of the balloon via the pressure relief valve, the pressure relief valve in the pressure-reliving state being configured to provide a path for fluid to leak from the interior of the balloon via the pressure relief valve. (a) a catheter shaft assembly having a distal end; and (b) an end effector positioned at the distal end of the catheter shaft assembly, the end effector including: (i) a balloon having a proximal end and a distal end, the balloon defining an interior configured to receive a fluid to inflate the balloon, the balloon being sized and configured to fit within a cardiovascular anatomical structure, (ii) one or more electrodes on the balloon, and (iii) a tip assembly at the distal end of the balloon, the tip assembly including a pressure relief valve, the pressure relief valve being configured to transition between a sealing state and a pressure-relieving state, (i) a balloon having a proximal end and a distal end, the balloon defining an interior configured to receive a fluid to inflate the balloon, the balloon being sized and configured to fit within a cardiovascular anatomical structure, (ii) one or more electrodes on the balloon, and (iii) a tip assembly at the distal end of the balloon, the tip assembly including a pressure relief valve, the pressure relief valve being configured to transition between a sealing state and a pressure-relieving state, the pressure relief valve in the sealing state being configured to prevent fluid from leaking out from the interior of the balloon via the pressure relief valve, the pressure relief valve in the pressure-reliving state being configured to provide a path for fluid to leak from the interior of the balloon via the pressure relief valve.
An error recovery method, comprising: receiving an interrupt, wherein the interrupt is triggered by an error that occurs in a first central processing unit, CPU, when the first CPU and a second CPU are in a lockstep mode; exiting, by the first CPU, the lockstep mode in response to the interrupt; determining a type of the error; and when the error is a recoverable error, performing error recovery on the first CPU according to a state of the correctly running second CPU at a time of triggering the interrupt; receiving, by the second CPU, the interrupt and exiting the lockstep mode; characterized in that the determining a type of the error comprises: determining the type of the error according to an advanced configuration and power management interface, ACPI, table corresponding to the first CPU, wherein the ACPI table is used to record an error found when a status register of a reliability, availability, and serviceability, RAS, node of a CPU is polled, and parsing the ACPI table to determine which node has an error of which type. receiving an interrupt, wherein the interrupt is triggered by an error that occurs in a first central processing unit, CPU, when the first CPU and a second CPU are in a lockstep mode; exiting, by the first CPU, the lockstep mode in response to the interrupt; determining a type of the error; and when the error is a recoverable error, performing error recovery on the first CPU according to a state of the correctly running second CPU at a time of triggering the interrupt; receiving, by the second CPU, the interrupt and exiting the lockstep mode; characterized in that the determining a type of the error comprises: determining the type of the error according to an advanced configuration and power management interface, ACPI, table corresponding to the first CPU, wherein the ACPI table is used to record an error found when a status register of a reliability, availability, and serviceability, RAS, node of a CPU is polled, and parsing the ACPI table to determine which node has an error of which type.
A tire comprising a foam rubber layer in a tread that comes into contact with a road surface, wherein a foaming ratio of the foam rubber layer is in a range from 3% to 50%, a rubber composition forming the foam rubber layer includes ethylene-vinylalcohol copolymer fiber coated with a resin having affinity for a rubber component, and the rubber composition forming the foam rubber layer includes 5 to 30 parts by mass at least one type of inorganic compound powder with respect to 100 parts by mass the rubber component, the inorganic compound powder having an average particle diameter greater than or equal to 10 μm and expressed by the following general formula: M·xSiO 2· yH 2 O ···· where M is a metal oxide or a metal hydroxide of a metal selected from the group consisting of Al, Mg, Ti, and Ca, and x and y are each independently an integer from 0 to 10.
Method for operating an electric machine for a vehicle, wherein a target torque of the electric machine is regulated during a driving event on the basis of a detected, time-dependent rotational speed of the electric machine, wherein the detected rotational speed is differentiated with respect to time by a first high-pass filter, the rotational speed differentiated with respect to time is subsequently restricted to gradients with a positive slope, and these gradients are once again differentiated with respect to time by a second high-pass filter, characterized in that the detected rotational speed is moreover differentiated with respect to time by a third high-pass filter, and in that the rotational speed differentiated with respect to time by the third high-pass filter is integrated with respect to time by a first low-pass filter, wherein the first low-pass filter is operated with a shorter time constant than the third high-pass filter, wherein a damping torque results on the basis of the output values of the second high-pass filter and of the first low-pass filter and is added to the target torque. the detected rotational speed is differentiated with respect to time by a first high-pass filter, the rotational speed differentiated with respect to time is subsequently restricted to gradients with a positive slope, and these gradients are once again differentiated with respect to time by a second high-pass filter, characterized in that the detected rotational speed is moreover differentiated with respect to time by a third high-pass filter, and in that the rotational speed differentiated with respect to time by the third high-pass filter is integrated with respect to time by a first low-pass filter, wherein the first low-pass filter is operated with a shorter time constant than the third high-pass filter, wherein a damping torque results on the basis of the output values of the second high-pass filter and of the first low-pass filter and is added to the target torque.
A power transmission apparatus for increase of transmission efficiency over a wide range from a near field to a far field; the power transmission apparatus comprising: a first resonance device including a first waveguide, a first dielectric resonator disposed coaxial with the first waveguide, and a first excitation structure for exciting the first dielectric resonator; the first waveguide having an open end as one end and a short-circuited end as the other end, the first dielectric resonator having two first end surfaces disposed on opposite sides to each other, being insulated from the first waveguide in the vicinity of the open end of the first waveguide, and being disposed within the first waveguide, such that a thickness being a distance between the two first end surfaces is constant, regardless of a radial position of the first dielectric resonator, characterized by the power transmission apparatus comprising a second resonance device including a second waveguide, a second dielectric resonator disposed coaxial with the second waveguide, and a second excitation structure for exciting the second dielectric resonator, the second waveguide having an open end as one end and short-circuited end as the other end, the second dielectric resonator having two second end surfaces disposed on opposite sides to each other, being insulated from the second waveguide in the vicinity of the open end of the second waveguide, and being disposed within the second waveguide, such that a thickness being a distance between the two second end surfaces is constant, regardless of a radial position of the second dielectric resonator, and the first resonance device and the second resonance device being disposed such that the open end of the first waveguide and the open end of the second waveguide are opposite to each other, and power input to the first excitation structure is-being output from the second excitation structure; wherein one of two first end surfaces is disposed at the position flush with the open end of the first waveguide or outside the open end of the first waveguide in the axial direction of the first dielectric resonator, the one of two first end surfaces being opposite to the second resonance device, and one of two second end surfaces is disposed at the position flush with the open end of the second waveguide or outside the open end of the second waveguide in the axial direction of the second dielectric resonator, the one of two second end surfaces being opposite to the first resonance device.