mhurhangee/ep-ind-claims huggingface dataset:
Method for the production of a soft magnetic formed part which has inside island-like formed electrical insulating locations to reduce eddy current losses, in which method magnetically conductive particles, which are free from a sheathing of an electrical insulating layer, and an additive (22, 22') for the formation of electrical insulating locations are provided and, for the formation of the formed part, are fused to one another in layers in such a way that a structure with interspaces is formed, and the electrical insulating locations interrupting eddy currents, which arise when the formed part is used in a magnetic field, are arranged locally in the interspaces.
Method for operating a steering system of a vehicle, wherein the steering system has a steering wheel, a steerable wheel, wherein the steerable wheel and the steering wheel are mechanically decoupled, a steering wheel actuator for setting a rotational position of the steering wheel, a wheel steering drive for steering the steerable wheel and a control device for actuating the wheel steering drive and the steering wheel actuator, characterised in that the steering wheel is automatically placed in a neutral position independent of a wheel angle of the steerable wheel by the steering wheel actuator on the initiative of the driver irrespective of a state of ignition, upon confirmation by the driver or by way of a response from a camera directed at the driver.
Compounds of the formula wherein R 1 is halogen-C 1-7 -alkyl; R 2 is C 3-7 -cycloalkyl or C 4-7 -cycloalkenyl; and R 3 is selected from the group consisting of phenyl, wherein phenyl is unsubstituted or substituted by one or two groups selected from the group consisting of C 1-7 -alkyl, hydroxy, C 1-7 -alkoxy, cyano, C 3-7 cycloalkyl, C 3-7 -cycloalkyl-C 1-7 -alkyl, halogen and halogen-C 1-7 -alkyl, and heteroaryl, said heteroaryl being selected from the group consisting of furanyl, oxazolyl, isoxazolyl, pyrazolyl, oxadiazolyl, thiazolyl, isothiazolyl, thiodiazolyl, pyridyl, pyridazinyl, pyrimidinyl and pyrazinyl, and being unsubstituted or substituted by one or two groups selected from the group consisting of C 1-7 -alkyl, hydroxy, C 1-7 -alkoxy, cyano, C 3-7 -cycloalkyl, C 3-7 -cycloalkyl-C 1-7 -alkyl, halogen and halogen-C 1-7 -alkyl; and pharmaceutically acceptable salts thereof. R 1 is halogen-C 1-7 -alkyl; R 2 is C 3-7 -cycloalkyl or C 4-7 -cycloalkenyl; and R 3 is selected from the group consisting of phenyl, wherein phenyl is unsubstituted or substituted by one or two groups selected from the group consisting of C 1-7 -alkyl, hydroxy, C 1-7 -alkoxy, cyano, C 3-7 cycloalkyl, C 3-7 -cycloalkyl-C 1-7 -alkyl, halogen and halogen-C 1-7 -alkyl, and heteroaryl, said heteroaryl being selected from the group consisting of furanyl, oxazolyl, isoxazolyl, pyrazolyl, oxadiazolyl, thiazolyl, isothiazolyl, thiodiazolyl, pyridyl, pyridazinyl, pyrimidinyl and pyrazinyl, and being unsubstituted or substituted by one or two groups selected from the group consisting of C 1-7 -alkyl, hydroxy, C 1-7 -alkoxy, cyano, C 3-7 -cycloalkyl, C 3-7 -cycloalkyl-C 1-7 -alkyl, halogen and halogen-C 1-7 -alkyl;
A flow velocity measuring device comprising a flow passage composed of an internal space having a curved wall surface, an introduction passage connected to the internal space at one end of the wall surface tangentially to the wall surface, a discharge passage connected to the internal space at the other end of the wall surface tangentially to the wall surface, and a branch passage connected to the internal space at substantially right angle to a direction along the introduction passage and the discharge passage and the wall surface connecting the introduction passage and the discharge passage, and a sensor element arranged in the branch passage or a flow passage connected to the branch passage, and wherein a fluid is, in use, introduced into the internal space from the introduction passage to branch into the discharge passage and the branch passage, and the flow velocity of the fluid taken out from the branch passage is, in use, measured by the sensor element, characterized in that the internal space is cylindrical in shape, wherein the curved wall surface is cylindrical-shaped, the branch passage comprises a cylinder (35a, 35b) projecting into the internal space and positioned substantially centrally of the internal space, and wherein a cylinder axis of the cylinder (35a, 35b) projecting into the internal space substantially coincides with a cylinder axis of the internal space.
A fabric comprising: a. a warp system comprising yarns, including at least one flame retardant yarn comprising meta-aramid fibers, para-aramid fibers and/or combinations thereof, and b. a weft system comprising yarns, including at least one core spun yarn wherein the fabric has a satin or twill weave and the flame retardant yarn of the warp system is covered by at least 70% by the yarns of the weft system, wherein the weft system provides an ink receptive surface, wherein the core-spun yarn has a core and a sheath and the core is poly(phenylene sulfide sulfone), aramid, acrylic, elastane, polypropylene, polyethylene, polyester and combinations thereof, and wherein the sheath comprises at least one non-thermoplastic fiber material and at least one thermoplastic fiber material; wherein the at least one non-thermoplastic fiber material is chosen among cellulose, viscose, modified cellulose, modacrylic, acrylic, and combinations thereof, and wherein the amount of the non-thermoplastic fiber material is at least 1.5 times more than the amount of the thermoplastic fiber material of the core spun yarn. a. a warp system comprising yarns, including at least one flame retardant yarn comprising meta-aramid fibers, para-aramid fibers and/or combinations thereof, and b. a weft system comprising yarns, including at least one core spun yarn
A system for positioning and operating an electro-optical instrument within a printing device, the printing device including a media guide for positioning media relative to a target region defined thereby, the system comprising: a pivot; an actuator operatively associated with the electro-optical instrument for generating a mechanical force necessary to rotate the electro-optical instrument about the pivot, between at least (i) a first position wherein a read plane defined as a plane parallel to a detection face of the electro-optical instrument corresponding to optimal illumination and light detection optically corresponds to an upper surface of the media at the target region defined by the media guide, and (ii) a second position characterised in that in the second position, the read plane of the electro-optical instrument has a different orientation from the first position and is inclined at an angle relative to the media guide; and a calibration module disposed adjacent to the electro-optical instrument, the calibration module including a calibration reference tray having at least one calibration reference arranged thereon, the calibration module being configured to extend the calibration reference tray into the read plane of the electro-optical instrument when the electro-optical instrument is in the second position. a pivot; an actuator operatively associated with the electro-optical instrument for generating a mechanical force necessary to rotate the electro-optical instrument about the pivot, between at least (i) a first position wherein a read plane defined as a plane parallel to a detection face of the electro-optical instrument corresponding to optimal illumination and light detection optically corresponds to an upper surface of the media at the target region defined by the media guide, and (ii) a second position characterised in that in the second position, the read plane of the electro-optical instrument has a different orientation from the first position and is inclined at an angle relative to the media guide; and a calibration module disposed adjacent to the electro-optical instrument, the calibration module including a calibration reference tray having at least one calibration reference arranged thereon, the calibration module being configured to extend the calibration reference tray into the read plane of the electro-optical instrument when the electro-optical instrument is in the second position.
A loudspeaker system (1 to 7, 853) comprising: a cabinet (10, 815, 833, 854); a loudspeaker unit (11, 819, 834, 855) attached to an opening formed in the cabinet (10, 815, 833, 854); a gas adsorber (13, 816, 840, 857) provided in the cabinet (10, 815, 833, 854) and operable to physically adsorb gas in the cabinet (10, 815, 833, 854) to equivalently increase a volume of an inside of the cabinet (10, 815, 833, 854); and a dehumidifier (14, 817, 841, 858) attached to an opening formed in the cabinet (10, 815, 833, 854) and operable to discharge humid air in the cabinet (10, 815, 833, 854) to the outside through ion decomposition when a DC voltage is applied to the dehumidifier (14, 817, 841, 858), and an acoustic filter arrangement (21, 21a) attached to an inside of the cabinet (10, 815, 833, 854), covering the dehumidifier (14, 817, 841, 858), and operable to cause only sounds having frequencies lower than or equal to a predetermined cut-off frequency, of sounds emitted from the loudspeaker unit (11, 819, 834, 855) into the cabinet (10, 815, 833, 854), to reach the dehumidifier (14, 817, 841, 858). a cabinet (10, 815, 833, 854); a loudspeaker unit (11, 819, 834, 855) attached to an opening formed in the cabinet (10, 815, 833, 854); a gas adsorber (13, 816, 840, 857) provided in the cabinet (10, 815, 833, 854) and operable to physically adsorb gas in the cabinet (10, 815, 833, 854) to equivalently increase a volume of an inside of the cabinet (10, 815, 833, 854); and a dehumidifier (14, 817, 841, 858) attached to an opening formed in the cabinet (10, 815, 833, 854) and operable to discharge humid air in the cabinet (10, 815, 833, 854) to the outside through ion decomposition when a DC voltage is applied to the dehumidifier (14, 817, 841, 858), and an acoustic filter arrangement (21, 21a) attached to an inside of the cabinet (10, 815, 833, 854), covering the dehumidifier (14, 817, 841, 858), and operable to cause only sounds having frequencies lower than or equal to a predetermined cut-off frequency, of sounds emitted from the loudspeaker unit (11, 819, 834, 855) into the cabinet (10, 815, 833, 854), to reach the dehumidifier (14, 817, 841, 858).
A method for investigating the presence and/or properties of a liquid droplet, comprising the steps of: a) providing a substrate for receiving a liquid droplet, b) exciting acoustic waves in the substrate by means of at least one transmitter, c) receiving acoustic waves evoked by the transmitter by at least one receiver, d) evaluating a signal generated by the receiver upon receipt of acoustic waves evoked by the transmitter, e) determining whether a droplet is present on the substrate and/or if a droplet is present determining the position and/or properties of the droplet using the result of step d), characterized in that the frequency of the waves excited in the substrate is such that the excited waves are Lamb waves or Lamb-Rayleigh waves, these wave types being defined by a correlation between the displacement movement of the opposite surfaces of the substrate, wherein the transmitter and the receiver are arranged on the substrate and the substrate is arranged in the proximity of a conduct filled with a liquid such that liquid escaping from a leakage of the conduct generates one or more droplets on a surface of the substrate, wherein the droplets will be detected according to step e). a) providing a substrate for receiving a liquid droplet, b) exciting acoustic waves in the substrate by means of at least one transmitter, c) receiving acoustic waves evoked by the transmitter by at least one receiver, d) evaluating a signal generated by the receiver upon receipt of acoustic waves evoked by the transmitter, e) determining whether a droplet is present on the substrate and/or if a droplet is present determining the position and/or properties of the droplet using the result of step d),
A bridge (402, 902) comprising: a first type of magnetoresistance element (404a, 904a) having a first reference angle that indicates an angle that the first type of magnetoresistance element is most sensitive to changes in a magnetic field; a second type of magnetoresistance element (406a, 906a) in series with the first magnetoresistance element and having a second reference angle that indicates an angle that the second type of magnetoresistance element is most sensitive to changes in a magnetic field; a third magnetoresistance element (404b, 904b) in parallel with the first type of magnetoresistance element and constructed to be the same as the first type of magnetoresistance element, including having the first reference angle; and a fourth magnetoresistance element (406b, 906b) in series with the third magnetoresistance element and constructed to be the same as the second type of magnetoresistance element, including having the second reference angle, wherein the first reference angle and the second reference angle correspond to a value that is selected to enable an output of the bridge to have a linear response over a range of magnetic field values horizontal to the bridge plane and not centered about a zero value. a first type of magnetoresistance element (404a, 904a) having a first reference angle that indicates an angle that the first type of magnetoresistance element is most sensitive to changes in a magnetic field; a second type of magnetoresistance element (406a, 906a) in series with the first magnetoresistance element and having a second reference angle that indicates an angle that the second type of magnetoresistance element is most sensitive to changes in a magnetic field; a third magnetoresistance element (404b, 904b) in parallel with the first type of magnetoresistance element and constructed to be the same as the first type of magnetoresistance element, including having the first reference angle; and a fourth magnetoresistance element (406b, 906b) in series with the third magnetoresistance element and constructed to be the same as the second type of magnetoresistance element, including having the second reference angle, wherein the first reference angle and the second reference angle correspond to a value that is selected to enable an output of the bridge to have a linear response over a range of magnetic field values horizontal to the bridge plane and not centered about a zero value.
A controller for industrial equipment (1, 4, 5), the controller being configured to output a control command to the industrial equipment (1, 4, 5) in a predetermined control cycle (Ta), the controller comprising: a clock device configured to generate a control clock of the controller; and a time counting unit configured to count a time counter value in each cycle that is equal to the predetermined control cycle (Ta) based on the control clock, the controller being characterised in that it further comprises a command transmission unit configured to transmit the control command to the industrial equipment (1, 4, 5), the control command including a data acquisition command to instruct the industrial equipment (1, 4, 5) to start acquiring data, wherein the predetermined control cycle (Ta) is a transmission cycle in which the command transmission unit is configured to transmit the control command to the industrial equipment (1, 4, 5), the controller further comprising: a first calendar information generation unit configured to generate first counter calendar information in which time information is described in a predetermined format based on the time counter value, a transmission time storage unit configured to store a transmission time at which the command transmission unit transmits the control command including the data acquisition command; and a logging unit configured to generate logging data in which the first counter calendar information is attached to the data that is received from the industrial equipment (1, 4, 5) based on the transmission time. a clock device configured to generate a control clock of the controller; and a time counting unit configured to count a time counter value in each cycle that is equal to the predetermined control cycle (Ta) based on the control clock, the controller being characterised in that it further comprises a command transmission unit configured to transmit the control command to the industrial equipment (1, 4, 5), the control command including a data acquisition command to instruct the industrial equipment (1, 4, 5) to start acquiring data, wherein the predetermined control cycle (Ta) is a transmission cycle in which the command transmission unit is configured to transmit the control command to the industrial equipment (1, 4, 5), a first calendar information generation unit configured to generate first counter calendar information in which time information is described in a predetermined format based on the time counter value, a transmission time storage unit configured to store a transmission time at which the command transmission unit transmits the control command including the data acquisition command; and a logging unit configured to generate logging data in which the first counter calendar information is attached to the data that is received from the industrial equipment (1, 4, 5) based on the transmission time.
Method for operating a driver model for controlling a vehicle on a test bench, wherein the method comprises the following steps: a) ascertaining a specified target power curve (213, 311) that changes with time for the vehicle from a test cycle to be run, b) determining a tolerance range for the target power curve (213, 311), wherein the tolerance range is limited by an upper boundary (109, 215) and a lower boundary (111, 217), wherein the upper boundary (109, 215) is determined based on a course of the target power curve (213, 311) plus a specified upper tolerance value, and wherein the lower boundary (111, 217) is determined based on the course of the target power curve (213, 311) minus a specified lower tolerance value, c) determining an expected characteristic curve for a power of the vehicle to be expected in the future by extrapolating a power progression of the vehicle at a current setting of the vehicle for a prediction window of a specified temporal length, and d) enabling a control command (315, 319) by means of the driver model for changing a setting of the vehicle for the case where the expected characteristic curve intersects at least one of the upper boundary (109, 215) and the lower boundary (111, 217) of the tolerance range within the temporal prediction window. a) ascertaining a specified target power curve (213, 311) that changes with time for the vehicle from a test cycle to be run, b) determining a tolerance range for the target power curve (213, 311), wherein the tolerance range is limited by an upper boundary (109, 215) and a lower boundary (111, 217), wherein the upper boundary (109, 215) is determined based on a course of the target power curve (213, 311) plus a specified upper tolerance value, and wherein the lower boundary (111, 217) is determined based on the course of the target power curve (213, 311) minus a specified lower tolerance value, the tolerance range is limited by an upper boundary (109, 215) and a lower boundary (111, 217), wherein the upper boundary (109, 215) is determined based on a course of the target power curve (213, 311) plus a specified upper tolerance value, and wherein the lower boundary (111, 217) is determined based on the course of the target power curve (213, 311) minus a specified lower tolerance value, c) determining an expected characteristic curve for a power of the vehicle to be expected in the future by extrapolating a power progression of the vehicle at a current setting of the vehicle for a prediction window of a specified temporal length, and d) enabling a control command (315, 319) by means of the driver model for changing a setting of the vehicle for the case where the expected characteristic curve intersects at least one of the upper boundary (109, 215) and the lower boundary (111, 217) of the tolerance range within the temporal prediction window.
A brake disc assembly comprising a central drive hub and a wear disc comprising first and second faces (14, 16), the faces (14, 16) being held together axially around the hub, each face (14, 16) having a respective inner surface (24, 26) facing the inner surface (24, 26) of the other face (14, 16), each face (14, 16) being formed of at least two distinct segments, each segment extending between two radial edges (34, 36), the radial edges (34, 36) of the segments of one face (14, 16) not extending opposite the radial edges (34, 36) of the segments of the other face (14, 16), each face segment being adapted to be secured to a segment of the other face via at least one fastening member adapted to hold said faces (14, 16), characterized in that each face (14, 16) comprises the same predetermined number (n) of segments, each segment having an equal angular extent (α) for all segments of the face (14, 16), and in that the angular offset (θ) between segments of facing faces (14, 16) is substantially equal to the ratio of the angular extent to the predetermined number of segments the radial edges (34, 36) of the segments of one face (14, 16) not extending opposite the radial edges (34, 36) of the segments of the other face (14, 16), each face segment being adapted to be secured to a segment of the other face via at least one fastening member adapted to hold said faces (14, 16), characterized in that each face (14, 16) comprises the same predetermined number (n) of segments, each segment having an equal angular extent (α) for all segments of the face (14, 16), and in that the angular offset (θ) between segments of facing faces (14, 16) is substantially equal to the ratio of the angular extent to the predetermined number of segments
A method of manufacturing a needle device, comprising the steps of: a) selecting a needle having a particular gauge; b) adding a specific color that corresponds to the particular gauge to a molding material; c) injection molding a needle assembly having a base and a needle protection housing pivotable relative to said base from said molding material so that said base and housing having the same specific color, said base including a needle hub having a luer end connectable to a syringe; d) attaching said needle to said base, said needle adapted to be covered by said housing when said housing is pivoted to a position in alignment along the longitudinal axis of said base; and e) covering said needle with a needle sheath to prevent contamination of said needle before use; wherein since said specific color corresponds to said particular gauge of said needle, the gauge of said needle can be determined by the colour of said needle assembly. a) selecting a needle having a particular gauge; b) adding a specific color that corresponds to the particular gauge to a molding material; c) injection molding a needle assembly having a base and a needle protection housing pivotable relative to said base from said molding material so that said base and housing having the same specific color, said base including a needle hub having a luer end connectable to a syringe; d) attaching said needle to said base, said needle adapted to be covered by said housing when said housing is pivoted to a position in alignment along the longitudinal axis of said base; and e) covering said needle with a needle sheath to prevent contamination of said needle before use;