mhurhangee/ep-ind-claims huggingface dataset:
Method for conditioning at least part of the surface of an object such as an aircraft by means of a conditioning head, comprising the following steps: a) placing the said conditioning head at a distance from the surface of the object so as to face a predefined reference point of the said surface, b) delimiting a local work zone on the said surface of the object by bringing a free end of a skirt into contact with the surface of the said object, the said skirt surrounding the said head at least in part, the said local work zone comprising the said reference point, c) controlling at least the temperature and/or hygrometry in the volume delimited, on the one hand, by the said skirt and the said local work zone thus delimited and, on the other hand, by the said skirt and the said conditioning head, d) depositing at least one coating on the surface of the said object in the said local work zone, the method being characterized in that in the step c), at least one hot air flow with a controlled hygrometry degree is generated, which flow is shaped to form a flow of annularly shaped cross section directed at the periphery of the work zone so as not to disturb the operations of the said conditioning head. a) placing the said conditioning head at a distance from the surface of the object so as to face a predefined reference point of the said surface, b) delimiting a local work zone on the said surface of the object by bringing a free end of a skirt into contact with the surface of the said object, the said skirt surrounding the said head at least in part, the said local work zone comprising the said reference point, c) controlling at least the temperature and/or hygrometry in the volume delimited, on the one hand, by the said skirt and the said local work zone thus delimited and, on the other hand, by the said skirt and the said conditioning head, d) depositing at least one coating on the surface of the said object in the said local work zone,
A method of determining a genomic estimated breeding value (GEBV) or a genomic predicted transmitting ability (GPTA) of a non-human mammalian fetus comprising: extracting DNA from one or more fetal amniocytes; genotyping the DNA to obtain a genotype for the fetus; and determining a GEBV or a GPTA of the fetus based on the genotype. extracting DNA from one or more fetal amniocytes; genotyping the DNA to obtain a genotype for the fetus; and determining a GEBV or a GPTA of the fetus based on the genotype.
A spring operated actuator for an electrical switching apparatus, the spring operated actuator including a rotary drive main shaft arranged to transmit an actuating movement to the switching apparatus, an opening spring means and a closing spring means, where the opening spring means includes at least one opening torsion spring, defining an opening spring axis and an external opening spring diameter, and the closing spring means includes at least one closing torsion spring, defining a closing spring axis, which axes extend in the same direction, each of said torsion springs (3, 4) defining a respective winding direction and an unwinding direction, characterized in that each of the torsion springs (3, 4) is arranged to be charged with mechanical energy in the unwinding direction and to discharge mechanical energy in the winding direction, and in that the axes extend at a distance from each other that is smaller than 20 % of the external opening spring diameter.
A remote electrical tilt unit, wherein the remote electrical tilt unit is connected to at least one base station through a group of Antenna Interface Standards Group, AISG, ports of a remote control unit and comprises: a receiving module, configured to receive permission configuration information sent by a first base station through a group of AISG ports of the remote control unit; and a configuration module, configured to configure, according to the permission configuration information, management permission of the first base station on the remote electrical tilt unit, wherein the management permission comprises at least control permission and query permission, and control permission on the remote electrical tilt unit can be allocated to only one base station, characterized in that if the permission configuration information comprises control permission configuration information, the receiving module is specifically configured to receive first control permission configuration information sent by the first base station through the group of AISG ports of the remote control unit; and the configuration module is specifically configured to notify the first base station of a control permission conflict if the control permission on the remote electrical tilt unit is allocated to one base station, or allocate the control permission on the remote electrical tilt unit to the first base station if the control permission on the remote electrical tilt unit is not allocated to any base station. a receiving module, configured to receive permission configuration information sent by a first base station through a group of AISG ports of the remote control unit; and a configuration module, configured to configure, according to the permission configuration information, management permission of the first base station on the remote electrical tilt unit, wherein the management permission comprises at least control permission and query permission, and control permission on the remote electrical tilt unit can be allocated to only one base station, characterized in that if the permission configuration information comprises control permission configuration information, the receiving module is specifically configured to receive first control permission configuration information sent by the first base station through the group of AISG ports of the remote control unit; and the configuration module is specifically configured to notify the first base station of a control permission conflict if the control permission on the remote electrical tilt unit is allocated to one base station, or allocate the control permission on the remote electrical tilt unit to the first base station if the control permission on the remote electrical tilt unit is not allocated to any base station.
Method for assembling a front end module and at least one headlight on a body of a passenger motor vehicle, said method comprising the following steps: a) holding the headlight by way of a holding device in at least one preliminary assembling position on the front end module, the headlight by way of said holding device being held on the front end module so as to be movable relative to the latter; b) disposing the front end module conjointly with the headlight, the latter by way of the holding device being held on said front end module so as to be movable relative to the front end module, on the body, wherein the front end module and therewith the headlight are moved relative to the body; and c) securing the headlight in a final assembly position; wherein in step b) at least one first alignment element provided on the headlight is brought to interact with a second alignment element assigned to the body of the passenger motor vehicle, wherein the headlight, when moving the headlight relative to the body, by means of the interacting alignment elements is moved relative to the body and relative to the front end module to a final assembly position, characterized in that the holding device has at least one articulation by means of which the headlight in the preliminary assembly position thereof is pivoted relative to the front end module; wherein the holding device comprises at least one holding element (40, 42) by means of which the headlight in the preliminary assembly position thereof is held on the front end module so as to be displaceable relative to the front end module. a) holding the headlight by way of a holding device in at least one preliminary assembling position on the front end module, the headlight by way of said holding device being held on the front end module so as to be movable relative to the latter; b) disposing the front end module conjointly with the headlight, the latter by way of the holding device being held on said front end module so as to be movable relative to the front end module, on the body, wherein the front end module and therewith the headlight are moved relative to the body; and c) securing the headlight in a final assembly position; in step b) at least one first alignment element provided on the headlight is brought to interact with a second alignment element assigned to the body of the passenger motor vehicle, wherein the headlight, when moving the headlight relative to the body, by means of the interacting alignment elements is moved relative to the body and relative to the front end module to a final assembly position, characterized in that the holding device has at least one articulation by means of which the headlight in the preliminary assembly position thereof is pivoted relative to the front end module; wherein the holding device comprises at least one holding element (40, 42) by means of which the headlight in the preliminary assembly position thereof is held on the front end module so as to be displaceable relative to the front end module.
Method for assembling a hybrid transmission device, comprising an electric machine, wherein the electric machine comprises an externally situated stator and an internally situated rotor shaft, wherein the hybrid transmission device furthermore comprises a transmission in a transmission housing and a clutch in a clutch housing, wherein the stator is fastened in the transmission housing or in the clutch housing, wherein the rotor shaft has, at a first end, a pinion that meshes with an intermediate gear of the transmission, wherein the rotor shaft is mounted in the region of the first end and in the region of the oppositely situated second end of the rotor shaft by means of a first and a second bearing (9, 10), wherein an intermediate plate of the hybrid transmission device is arranged axially in the region of the first end of the rotor shaft, wherein the stator is fastened to the intermediate plate, wherein the second bearing for the mounting of the second end of the rotor shaft is fixed directly in the clutch housing, and the first bearing for the mounting of the first end of the rotor shaft is fixed to the transmission housing or is fixed to the intermediate plate, wherein, firstly, a rotor module that comprises at least the rotor shaft, which has the pinion at a first end, and a rotor laminated core and the second bearing is preassembled, and a stator module that comprises at least one stator laminated core with stator windings is preassembled, in that the rotor module and the stator module are placed in an axial direction onto a workpiece carrier and are fitted one inside the other in contact-free fashion, in that the intermediate plate, which comprises a shaft stub for the mounting of the intermediate gear, is mounted on the stator, in that the rotor module and stator module fitted on the workpiece carrier are assembled with the transmission, in that the transmission housing is placed over the transmission, and in that the clutch housing is connected to the transmission housing, wherein, after the intermediate plate, which comprises the shaft stub for the mounting of the intermediate gear, is mounted on the stator, and preferably before the rotor module and stator module fitted on the workpiece carrier are assembled with the transmission, the intermediate gear is fastened on the shaft stub, wherein, before the rotor module and stator module fitted on the workpiece carrier are assembled with the transmission, preferably after the intermediate gear has been fastened on the shaft stub, the first bearing for the mounting of the first end of the rotor shaft is fastened to the rotor shaft, or the first bearing is already fastened in the intermediate plate, wherein, after the transmission housing is placed over the transmission, and before the clutch housing is connected to the transmission housing, the workpiece carrier is dismounted.
A contact lens, comprising: a first surface and a second surface opposite to each other, wherein the first surface is concave in shape and the second surface is convex in shape; two first sector zones, each of the first sector zones having a first curvature on the first surface along a radial direction of the contact lens, and the first curvature being constant along an arc direction of the contact lens; two second sector zones alternately arranged with the two first sector zones, each of the second sector zones having a second curvature on the first surface along the radial direction, and the second curvature being constant along the arc direction, wherein the first curvature is steeper than the second curvature; and a first meridian and a second meridian perpendicular to each other, wherein a maximum thickness of the contact lens along the first meridian is greater than a maximum thickness of the contact lens along the second meridian, characterized in that a central angle (θ1) of each of the first sector zones and a central angle (θ2) of each of the second sector zones are both about 90 degrees. a first surface and a second surface opposite to each other, wherein the first surface is concave in shape and the second surface is convex in shape; two first sector zones, each of the first sector zones having a first curvature on the first surface along a radial direction of the contact lens, and the first curvature being constant along an arc direction of the contact lens; two second sector zones alternately arranged with the two first sector zones, each of the second sector zones having a second curvature on the first surface along the radial direction, and the second curvature being constant along the arc direction, wherein the first curvature is steeper than the second curvature; and a first meridian and a second meridian perpendicular to each other, wherein a maximum thickness of the contact lens along the first meridian is greater than a maximum thickness of the contact lens along the second meridian, characterized in that a central angle (θ1) of each of the first sector zones and a central angle (θ2) of each of the second sector zones are both about 90 degrees.
Energy management and distribution system for a railbound vehicle, comprising: - a plurality of power electronic traction transformers for coupling to an AC catenary for receiving high-voltage AC power; - a common DC bus being connected for supplying electrical energy to one or more loads; and - a control unit capable of activating and deactivating the power electronic traction transformers depending on the total power required by the loads, wherein the control unit is configured to actively operate a selected number of power electronic traction transformers among the plurality of power electronic traction transformers, and wherein the number of power electronic traction transformers is selected depending on the characteristics of the conversion efficiency of each power electronic traction transformer, wherein the power electronic traction transformers comprise multiple converter groups, each comprising: - an input AC/DC converter to convert the high-voltage AC power to a high-voltage DC power; - a DC/AC converter to convert the high-voltage DC power to a medium-frequency AC power; - a medium-frequency transformer to transform the medium-frequency AC power to a low-voltage AC power; - a further AC/DC converter to convert the low-voltage AC power to a low-voltage DC power which is supplied to the common DC bus, and wherein the power electronic traction transformers are coupled to the common DC bus via a respective switch controllable by the control unit to decouple the respective power electronic traction transformer. - a plurality of power electronic traction transformers for coupling to an AC catenary for receiving high-voltage AC power; - a common DC bus being connected for supplying electrical energy to one or more loads; and - a control unit capable of activating and deactivating the power electronic traction transformers depending on the total power required by the loads, wherein the control unit is configured to actively operate a selected number of power electronic traction transformers among the plurality of power electronic traction transformers, and wherein the number of power electronic traction transformers is selected depending on the characteristics of the conversion efficiency of each power electronic traction transformer, wherein the power electronic traction transformers comprise multiple converter groups, each comprising: - an input AC/DC converter to convert the high-voltage AC power to a high-voltage DC power; - a DC/AC converter to convert the high-voltage DC power to a medium-frequency AC power; - a medium-frequency transformer to transform the medium-frequency AC power to a low-voltage AC power; - a further AC/DC converter to convert the low-voltage AC power to a low-voltage DC power which is supplied to the common DC bus, and wherein the power electronic traction transformers are coupled to the common DC bus via a respective switch controllable by the control unit to decouple the respective power electronic traction transformer.
A valve arrangement, comprising: a housing having an inlet and an outlet; a poppet with a stem disposed within the housing and movable within the housing along a movement axis extending through the inlet between open and closed positions, wherein the inlet is isolated from the outlet when the poppet is in the closed position and the inlet in fluid communication with the outlet when the poppet is in the open position, wherein the poppet stem is inverted relative to the housing such that at least a portion of the poppet stem is disposed within the inlet when the poppet is in the open position; and characterized in that it further comprises first and second rollers (112A, 112B) arranged on diametrically opposite sides of the movement axis, each roller being movable between radially inner and radially outer roller positions. a housing having an inlet and an outlet; a poppet with a stem disposed within the housing and movable within the housing along a movement axis extending through the inlet between open and closed positions, wherein the inlet is isolated from the outlet when the poppet is in the closed position and the inlet in fluid communication with the outlet when the poppet is in the open position,
A stretch-blown plastic container with a container body which encloses a filling volume and is with a container bottom, and with a container neck which connects at the opposite end of the container body and is with a container opening, as well as with a handle region which is designed in an integrated manner, is designed in a hollow manner and is in connection with the filling volume which is enclosed by the container body, wherein a grip-through opening is recessed between the handle region and the container body, wherein the container body is designed in a single-layered or multi-layered manner and comprises a mass share of at least 80% of a plastic primary component from the group consisting of polyethylene terephthalate, polyethylene naphthalate, polyethylene furanoate, their copolymers or mixtures of the mentioned plastics, and that the grip-through opening over its entire periphery is edged by wall parts (13, 14) of the container body and of the handle region, said wall parts being welded to one another, characterised in that the wall parts (13, 14) which are welded to one another are materially connected to one another in a laser welding method.
A high-voltage transistor comprising: a semiconductor substrate of a first conductivity type a layer of semiconductor material of the first conductivity type formed on the substrate; first and second trenches in the layer of semiconductor material formed on the substrate that define a mesa; first and second field plate members (24a, 24b, 24c) respectively disposed in the first and second trenches, each of the first and second field plate members (24a, 24b, 24c) being separated from the mesa and the substrate by a dielectric layer (28a, 28b, 28c, 28d); characterized in that: either the mesa comprises at least three sections, each section having a substantially constant doping concentration gradient, a lowermost section having a doping concentration gradient that is greater than a doping concentration gradient of an uppermost section, and the at least three sections being adjoined in a vertical stack, with each successive section in the stack having a larger doping concentration gradient than a preceding section, or the mesa has a doping concentration gradient that varies in a substantially continuous manner in a vertical direction through the mesa, the doping concentration gradient increasing from near a top of the mesa to near a bottom of the mesa. a semiconductor substrate of a first conductivity type a layer of semiconductor material of the first conductivity type formed on the substrate; first and second trenches in the layer of semiconductor material formed on the substrate that define a mesa; first and second field plate members (24a, 24b, 24c) respectively disposed in the first and second trenches, each of the first and second field plate members (24a, 24b, 24c) being separated from the mesa and the substrate by a dielectric layer (28a, 28b, 28c, 28d); characterized in that: either the mesa comprises at least three sections, each section having a substantially constant doping concentration gradient, a lowermost section having a doping concentration gradient that is greater than a doping concentration gradient of an uppermost section, and the at least three sections being adjoined in a vertical stack, with each successive section in the stack having a larger doping concentration gradient than a preceding section, or the mesa has a doping concentration gradient that varies in a substantially continuous manner in a vertical direction through the mesa, the doping concentration gradient increasing from near a top of the mesa to near a bottom of the mesa. either the mesa comprises at least three sections, each section having a substantially constant doping concentration gradient, a lowermost section having a doping concentration gradient that is greater than a doping concentration gradient of an uppermost section, and the at least three sections being adjoined in a vertical stack, with each successive section in the stack having a larger doping concentration gradient than a preceding section, or the mesa has a doping concentration gradient that varies in a substantially continuous manner in a vertical direction through the mesa, the doping concentration gradient increasing from near a top of the mesa to near a bottom of the mesa.