mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling dynamics of vehicle movement in a motor vehicle, by means of which method interventions relating to dynamics of vehicle movement are automatically performed at least depending on data of a navigation system, wherein quality information relating to the data of the navigation system is formed, and wherein the interventions dependent on the data of the navigation system are performed under consideration of this quality information, wherein, with quality information indicating a high quality of the data obtainable from the navigation system, highly dynamic interventions can be performed rather than with quality information indicating a low quality, in which case cautious interventions are preferred.
Method for coating a surface of a component with a thin layer of ligneous material, of the type comprising: - selecting a sheet of coating constituted at least partially by a thin layer of ligneous material which is intended to be visible in the finished component, - coating the surface of the sheet with a thin layer of a composition which contains a synthetic resin such that the composition impregnates the sheet of coating, and - fixing the coated sheet to the surface of the component, characterised in that, in the step of fixing the coated sheet, the layer of composition deposited on the surface of the sheet has a resilience at least 5% greater, and preferably at least 10% greater, than that of the thin layer of ligneous material in all directions, and the composition layer is transparent so that the layer of ligneous material is visible through the composition layer, after the step of coating the surface of the sheet with a thin layer of a composition which contains a synthetic resin, a step of partially baking the composition for pre-polymerizing the composition and after the step of fixing, a step of further polymerizing the composition. - selecting a sheet of coating constituted at least partially by a thin layer of ligneous material which is intended to be visible in the finished component, - coating the surface of the sheet with a thin layer of a composition which contains a synthetic resin such that the composition impregnates the sheet of coating, and - fixing the coated sheet to the surface of the component,
Polygon compensation coupling system (30; 40; 60), the system comprising: a first rotatable element (31; 41; 61) configured to be connected to at least one drive which is configured to rotate the first rotatable element (31; 41, 61); a second rotatable element (32; 42; 62a, 62b) configured to be connected to at least one sprocket for driving a chain drive; at least one linkage coupling the first rotatable element (31; 41; 61) with the second rotatable element (32; 42; 62a, 62b), the linkage comprising: at least one first coupling element (34a; 44a; 64a) pivotably coupled to the first rotatable element (31; 41; 61); at least one second coupling element (34b; 44b; 64b) pivotably coupled to the second rotatable element (32; 42; 62b); wherein the first (34a; 44a; 64a) and second coupling elements (34b; 44b; 64b) are pivotably coupled to each other at a hinge point, the hinge point being configured to move along a compensation curve varying the coupling between the first rotatable element (34a; 44a; 64a) and the second rotatable element (32; 42; 62b) so that the second rotatable element (32; 42; 62a, 62b) rotates with non-constant angular velocity when the first rotatable element (31; 41, 61) is rotated with constant angular velocity; characterized in that the compensation curve is stationary. a first rotatable element (31; 41; 61) configured to be connected to at least one drive which is configured to rotate the first rotatable element (31; 41, 61); a second rotatable element (32; 42; 62a, 62b) configured to be connected to at least one sprocket for driving a chain drive; at least one linkage coupling the first rotatable element (31; 41; 61) with the second rotatable element (32; 42; 62a, 62b), the linkage comprising: at least one first coupling element (34a; 44a; 64a) pivotably coupled to the first rotatable element (31; 41; 61); at least one second coupling element (34b; 44b; 64b) pivotably coupled to the second rotatable element (32; 42; 62b); at least one first coupling element (34a; 44a; 64a) pivotably coupled to the first rotatable element (31; 41; 61); at least one second coupling element (34b; 44b; 64b) pivotably coupled to the second rotatable element (32; 42; 62b); wherein the first (34a; 44a; 64a) and second coupling elements (34b; 44b; 64b) are pivotably coupled to each other at a hinge point, the hinge point being configured to move along a compensation curve varying the coupling between the first rotatable element (34a; 44a; 64a) and the second rotatable element (32; 42; 62b) so that the second rotatable element (32; 42; 62a, 62b) rotates with non-constant angular velocity when the first rotatable element (31; 41, 61) is rotated with constant angular velocity; characterized in that the compensation curve is stationary.
Actuating drive for a quick action valve, comprising a valve stem which can be coupled to the quick action valve, a spring collar, a closing spring and a tensioning spindle, - it being possible for the valve stem to be displaced in the axial direction, and, - on the side which faces away from the quick action valve, the said valve stem being fastened to the spring collar which can be prestressed counter to a spring force of the closing spring, - the prestressing taking place by means of the tensioning spindle which can be moved in the axial direction and, at its end which is directed towards the spring collar, has an electromagnetic holding solenoid, to which the spring collar adheres in the case of energization of the holding solenoid and, as a result, can be prestressed by means of the tensioning spindle counter to the spring force of the closing spring, and, - in the case of a currentless state of the electromagnetic holding solenoid, the spring collar being released and the closing spring relaxing, - the actuating drive comprising a restrictor, via which the closing time of the actuating drive can be set, characterized in that the restrictor is configured by way of an opening within the spring collar. - it being possible for the valve stem to be displaced in the axial direction, and, - on the side which faces away from the quick action valve, the said valve stem being fastened to the spring collar which can be prestressed counter to a spring force of the closing spring, - the prestressing taking place by means of the tensioning spindle which can be moved in the axial direction and, at its end which is directed towards the spring collar, has an electromagnetic holding solenoid, to which the spring collar adheres in the case of energization of the holding solenoid and, as a result, can be prestressed by means of the tensioning spindle counter to the spring force of the closing spring, and, - in the case of a currentless state of the electromagnetic holding solenoid, the spring collar being released and the closing spring relaxing, - the actuating drive comprising a restrictor, via which the closing time of the actuating drive can be set,
Power module comprising at least three layers that are stacked one above the other, including: - at least one cooling body having an upper face, - at least one intermediate layer that is applied to the upper face of the cooling body and extends in a planar manner and provides an adhesive bond and comprises a first face that is facing the upper face of the cooling body and a second face that is remote from the first face, - at least one metal layer that is arranged on the second face of the intermediate layer and is sub-divided into conductor track sections and comprises a contact face that faces the second face of the intermediate layer, wherein the power module furthermore comprises at least one electric and/or electronic power component that is applied to at least one conductor track section of the metal layer and is in electrical contact with the at least one conductor track section of the metal layer, wherein the metal layer that is sub-divided into conductor track sections is produced from at least one metal sheet, which is sub-divided into conductor track sections, independently from the production of the intermediate layer and independently from the production of the cooling body, characterized in that the first face of the intermediate layer is laminated to the upper face of the cooling body and in that the second face of the intermediate layer is laminated to the contact face of the metal layer, wherein the intermediate layer is configured as a laminating film that is embodied from a synthetic material. - at least one cooling body having an upper face, - at least one intermediate layer that is applied to the upper face of the cooling body and extends in a planar manner and provides an adhesive bond and comprises a first face that is facing the upper face of the cooling body and a second face that is remote from the first face, - at least one metal layer that is arranged on the second face of the intermediate layer and is sub-divided into conductor track sections and comprises a contact face that faces the second face of the intermediate layer,
A control unit for controlling a respiration gas source for ventilating a patient, comprising a regulation of the tidal volume of the patient by providing and applying an inspiratory pressure, and a simultaneous regulation of another ventilation parameter, characterized in that, beyond the change in the tidal volume, a ventilation frequency for mandatory ventilation is also regulated as another ventilation parameter.
An apparatus for harvesting hair follicles from a skin donor site by rotating or oscillating motion, the apparatus comprising: a hollow tubular structure having a central axis; an annular ledge (810, 1310) attached to an end of the hollow tubular structure and terminating distally at an annular face (4, 508, 816, 1116, 1316, 1616) that is substantially in a plane perpendicular to the central axis, the annular ledge (810, 1310) including: a top surface (812, 1312) extending outward from the hollow tubular structure, a side surface (814, 1314) connecting the top surface (812, 1312) and the annular face (4, 508, 816, 1116, 1316, 1616) and that is at least one of: substantially parallel to the central axis or substantially perpendicular to the annular face (4, 508, 816, 1116, 1316, 1616), and a follicle receiving chamber, characterized in that the annular face (4, 508, 816, 1116, 1316, 1616) is substantially flat and has a non-cutting inner edge (817, 1317, 1617) and a sharp cutting edge (506, 818, 1110, 1510, 1810) being formed by the connection of the side surface (814, 1314) with the flat annular face (4, 508, 816, 1116, 1316, 1616), wherein the follicle receiving chamber extends proximally from the non-cutting inner edge (817, 1317, 1617) of the substantially flat annular face (4, 508, 816, 1116, 1316, 1616). a hollow tubular structure having a central axis; an annular ledge (810, 1310) attached to an end of the hollow tubular structure and terminating distally at an annular face (4, 508, 816, 1116, 1316, 1616) that is substantially in a plane perpendicular to the central axis, the annular ledge (810, 1310) including: a top surface (812, 1312) extending outward from the hollow tubular structure, a side surface (814, 1314) connecting the top surface (812, 1312) and the annular face (4, 508, 816, 1116, 1316, 1616) and that is at least one of: substantially parallel to the central axis or substantially perpendicular to the annular face (4, 508, 816, 1116, 1316, 1616), and a follicle receiving chamber, a top surface (812, 1312) extending outward from the hollow tubular structure, a side surface (814, 1314) connecting the top surface (812, 1312) and the annular face (4, 508, 816, 1116, 1316, 1616) and that is at least one of: substantially parallel to the central axis or substantially perpendicular to the annular face (4, 508, 816, 1116, 1316, 1616), and a follicle receiving chamber, substantially parallel to the central axis or substantially perpendicular to the annular face (4, 508, 816, 1116, 1316, 1616), and a follicle receiving chamber, characterized in that the annular face (4, 508, 816, 1116, 1316, 1616) is substantially flat and has a non-cutting inner edge (817, 1317, 1617) and a sharp cutting edge (506, 818, 1110, 1510, 1810) being formed by the connection of the side surface (814, 1314) with the flat annular face (4, 508, 816, 1116, 1316, 1616), wherein the follicle receiving chamber extends proximally from the non-cutting inner edge (817, 1317, 1617) of the substantially flat annular face (4, 508, 816, 1116, 1316, 1616).
Measuring arrangement for inspecting sliding boards or items of sports equipment lying flat, comprising a sensor device on which at least one sliding board or item of sports equipment is able to be placed, characterized - in that the sensor device has a sensor surface that is at least predominantly divided into a multiplicity of sensor surface sections in the longitudinal and transverse direction, - in that the sensor surface sections each have at least one force sensor that outputs the force acting on the sensor surface section in the form of an electrical signal that is evaluated by a computer unit, and - in that the measuring arrangement has a sensor surface that is able to be inclined with respect to a longitudinal axis and/or a transverse axis by way of an inclining device. - in that the sensor device has a sensor surface that is at least predominantly divided into a multiplicity of sensor surface sections in the longitudinal and transverse direction, - in that the sensor surface sections each have at least one force sensor that outputs the force acting on the sensor surface section in the form of an electrical signal that is evaluated by a computer unit, and - in that the measuring arrangement has a sensor surface that is able to be inclined with respect to a longitudinal axis and/or a transverse axis by way of an inclining device.
High-Z particles for use in a method for enhancing the effects of radiation directed to a tissue or a population of cells, wherein the high -Z particles are gold nanorods and have a surface coating of polyethylene glycol; the high-Z particles comprise a targeting molecule with an affinity for a targeted tissue or a targeted population of cells; wherein the high-Z particles are administered to an animal and the targeted tissue or targeted population of cells is subsequently irradiated with ionizing radiation; wherein the high-Z particles are administered to the animal in an amount sufficient to achieve a concentration in the targeted tissue or the targeted population of cells of less than 0.05% metal by weight.
Method for detecting tailgating of subjects and/or objects at gates (101, 102) comprising: measuring the occultation of at least one reference occulted by at least one subject and/or at least one object passing through at least one gate (101, 102), wherein the measuring is carried out by at least one detector configured for capturing single image frames and/or a stream of image frames, e.g. a video stream, generating at least one time series based on the measured occultation, wherein said generation comprises generating a curve for the relation of amount of occultation of the at least one reference in dependence of time, and characterized by determining at least one parameter from an analysis of the general shape of the curve for the relation of amount of occultation of the at least one reference in dependence of time for characterization of the at least one subject and/or at least one object passing through at least one gate (101, 102) for detecting fraudulent access, said determining at least one parameter from the curve comprising one or more of determining the time interval between two consecutive peaks or between two points of the rising parts of two different peaks of the curve, height and/or width and/or number of peaks, and/or shape of peaks, and/or area below the curve. measuring the occultation of at least one reference occulted by at least one subject and/or at least one object passing through at least one gate (101, 102), wherein the measuring is carried out by at least one detector configured for capturing single image frames and/or a stream of image frames, e.g. a video stream, generating at least one time series based on the measured occultation, wherein said generation comprises generating a curve for the relation of amount of occultation of the at least one reference in dependence of time, and characterized by determining at least one parameter from an analysis of the general shape of the curve for the relation of amount of occultation of the at least one reference in dependence of time for characterization of the at least one subject and/or at least one object passing through at least one gate (101, 102) for detecting fraudulent access, said determining at least one parameter from the curve comprising one or more of determining the time interval between two consecutive peaks or between two points of the rising parts of two different peaks of the curve, height and/or width and/or number of peaks, and/or shape of peaks, and/or area below the curve.
Method for the generation of a device-specific identifier (G-Id) in a device, which contains at least one programmable circuit element and whose circuit consists of individual components, which is configured by loading a bitstream, with the steps: - representing a reference identifier (R-Id) as a bit sequence, and assigning each bit of the reference identifier (R-Id) to a different component of the circuit element in each case, - generating a reference bitstream for a reference circuit of the circuit element, in which at least the predetermined components of the reference identifier (R-Id) are contained, and - entering the device-specific identifier (G-Id) as a binary sequence by overwriting the bits of the corresponding components of the reference identifier (R-Id) directly in the reference bitstream, wherein the bits through which a component of the reference identifier (R-Id) is encoded in the bitstream are determined by the method steps of: a) generating a reference bitstream of the reference circuit, b) generating a further bitstream (Bi) for a further circuit (Fi) changed by at least one bit of the predetermined reference identifier (R-Id), and c) determining at least one position of a bit (PFi) which is changed in the generated further bitstream (Bi) in comparison with the reference bitstream. - representing a reference identifier (R-Id) as a bit sequence, and assigning each bit of the reference identifier (R-Id) to a different component of the circuit element in each case, - generating a reference bitstream for a reference circuit of the circuit element, in which at least the predetermined components of the reference identifier (R-Id) are contained, and - entering the device-specific identifier (G-Id) as a binary sequence by overwriting the bits of the corresponding components of the reference identifier (R-Id) directly in the reference bitstream, wherein the bits through which a component of the reference identifier (R-Id) is encoded in the bitstream are determined by the method steps of: a) generating a reference bitstream of the reference circuit, b) generating a further bitstream (Bi) for a further circuit (Fi) changed by at least one bit of the predetermined reference identifier (R-Id), and c) determining at least one position of a bit (PFi) which is changed in the generated further bitstream (Bi) in comparison with the reference bitstream. a) generating a reference bitstream of the reference circuit, b) generating a further bitstream (Bi) for a further circuit (Fi) changed by at least one bit of the predetermined reference identifier (R-Id), and c) determining at least one position of a bit (PFi) which is changed in the generated further bitstream (Bi) in comparison with the reference bitstream.
Method for electrochemical machining of workpieces, wherein at least one electrode is situated adjacent to a surface to be machined, and current pulses are generated in pulsed operation in order to ablate material from the workpiece, wherein - before and/or at the beginning and/or during an electrochemical ablation, data of the current pulses are registered and analyzed in order to identify a starting phase or a transient phase comparable to a starting phase and/or to regulate the spacing of the electrode to the adjacent surface to be machined and/or the current flow during a starting phase or a transient phase comparable to a starting phase, characterized in that - the starting phase or the transient phase comparable to a starting phase is identified in that the maximum or average current strength per pulse rises over a series of successive pulses or the maximum or average voltage per pulse drops over a series of successive pulses, wherein - the closed-loop control comprises a linearization and decoupling of the manipulated variables, wherein the applied potential U is defined by U = v 2 R + x κ A + Δ U, and/or the feed V is defined by V = κv 2 − v 1, wherein R is the total resistance of the system, x is the spacing of the electrode from the surface to be machined, κ represents the electrical conductivity, A represents the working surface of the electrode, ΔU represents the overvoltage, and v 1 and v 2 are virtual manipulated variables, wherein v 1 corresponds to the control variable of the spacing of the electrode from the surface to be machined, and v 2 corresponds to the control variable of the current strength. - before and/or at the beginning and/or during an electrochemical ablation, data of the current pulses are registered and analyzed in order to identify a starting phase or a transient phase comparable to a starting phase and/or to regulate the spacing of the electrode to the adjacent surface to be machined and/or the current flow during a starting phase or a transient phase comparable to a starting phase, - the starting phase or the transient phase comparable to a starting phase is identified in that the maximum or average current strength per pulse rises over a series of successive pulses or the maximum or average voltage per pulse drops over a series of successive pulses, - the closed-loop control comprises a linearization and decoupling of the manipulated variables, wherein the applied potential U is defined by U = v 2 R + x κ A + Δ U, and/or the feed V is defined by V = κv 2 − v 1, wherein R is the total resistance of the system, x is the spacing of the electrode from the surface to be machined, κ represents the electrical conductivity, A represents the working surface of the electrode, ΔU represents the overvoltage, and v 1 and v 2 are virtual manipulated variables, wherein v 1 corresponds to the control variable of the spacing of the electrode from the surface to be machined, and v 2 corresponds to the control variable of the current strength.