mhurhangee/ep-ind-claims huggingface dataset:
An aircraft propulsion system comprising: a wing of an aircraft; a vertical lift propulsor mounted within the wing; wherein the vertical propulsor comprises an electric motor comprising a rotor mounted to a plurality of propulsor blades arranged to rotate about a vertical axis, the motor further comprising a stator; and wherein the rotor is provided radially outwardly of the stator, such that the stator, rotor and propulsor blades are provided in the same plane. a wing of an aircraft; a vertical lift propulsor mounted within the wing; wherein the vertical propulsor comprises an electric motor comprising a rotor mounted to a plurality of propulsor blades arranged to rotate about a vertical axis, the motor further comprising a stator; and wherein the rotor is provided radially outwardly of the stator, such that the stator, rotor and propulsor blades are provided in the same plane.
A method for identifying whether a plurality of target molecules are in a plurality of cells comprising: (i) binding to the target molecules in the plurality of cells a plurality of nucleic acid tags, wherein a nucleic acid tag comprises: (a) a first unique binding agent that is specific for one of the target molecules, (b) a first epitope specific barcode comprising a nucleic acid code that represents the target molecule identity, and (c) at least two assayable polymer subunits (APSs) added in an ordered manner during successive rounds of split pool synthesis, (ii) wherein each round of split pool synthesis comprises adding a different APS to each container, to create unique nucleic acid codes that represent: (a) the target molecule identity and (b) the identity of the cell in which the nucleic acid tag is bound, and (iii) wherein the plurality of nucleic acid tags comprise at least two different nucleic acid tags with the same target identity and cell identity that amplify at varying rates with the same set of primers. (i) binding to the target molecules in the plurality of cells a plurality of nucleic acid tags, wherein a nucleic acid tag comprises: (a) a first unique binding agent that is specific for one of the target molecules, (b) a first epitope specific barcode comprising a nucleic acid code that represents the target molecule identity, and (c) at least two assayable polymer subunits (APSs) added in an ordered manner during successive rounds of split pool synthesis, (a) a first unique binding agent that is specific for one of the target molecules, (b) a first epitope specific barcode comprising a nucleic acid code that represents the target molecule identity, and (c) at least two assayable polymer subunits (APSs) added in an ordered manner during successive rounds of split pool synthesis, (ii) wherein each round of split pool synthesis comprises adding a different APS to each container, to create unique nucleic acid codes that represent: (a) the target molecule identity and (b) the identity of the cell in which the nucleic acid tag is bound, and (a) the target molecule identity and (b) the identity of the cell in which the nucleic acid tag is bound, and (iii) wherein the plurality of nucleic acid tags comprise at least two different nucleic acid tags with the same target identity and cell identity that amplify at varying rates with the same set of primers.
A cutting device of a safety belt, the cutting device comprising a housing, a passage going through this housing and allowing the cutting device to be mounted on the belt to be cut, and cutting means of the belt lodged inside the housing, said cutting means comprising a wire and heating means of this wire, the wire assuming a passive state in which the wire is away from the belt, and an active state in which the wire is heated by the heating means and in contact with the belt to cut it, the cutting device being characterized in that the active state of the wire corresponds to an active position assumed by the wire and different to a passive position assumed by the wire and corresponding to the passive state of this wire, the wire is kept in its passive position by at least one hot-melt element (48, 481, 482), and in that the wire moves from its passive position to its active position when this wire is heated and the hot-melt element(s) (48, 481, 482) melt(s) at least in part under the effect of the heat of the wire.
A wind turbine generator which comprises: a tower; a nacelle; a yaw bearing for supporting the nacelle rotatably to the tower; a brake disc provided between a bottom end surface of the yaw bearing and a top end surface of the tower; the nacelle comprising a bottom (23, 25) formed with an opening (23c 25c) along an outer circumferential surface of an upper end of the tower and characterized in that the bottom of the nacelle is formed with a depression (23a, 25a) around the opening (23c, 25c); and in that the wind turbine generator further comprises a first seal member (30, 40) attached to a bottom part of the yaw bearing or to the brake disc, the first seal member (30, 40) being configured to contact an edge part (23b 25b) of the bottom of the nacelle on an opening side. a tower; a nacelle; a yaw bearing for supporting the nacelle rotatably to the tower; a brake disc provided between a bottom end surface of the yaw bearing and a top end surface of the tower; the nacelle comprising a bottom (23, 25) formed with an opening (23c 25c) along an outer circumferential surface of an upper end of the tower and characterized in that the bottom of the nacelle is formed with a depression (23a, 25a) around the opening (23c, 25c); and in that the wind turbine generator further comprises a first seal member (30, 40) attached to a bottom part of the yaw bearing or to the brake disc, the first seal member (30, 40) being configured to contact an edge part (23b 25b) of the bottom of the nacelle on an opening side.
Method for operating a radar sensor in a motor vehicle, wherein the radar sensor has at least one antenna arrangement for emitting and receiving radar signals and a processing apparatus for evaluating received radar signals, wherein the antenna arrangement is controlled to simultaneously emit and receive radar signals both in a far frequency range and a near frequency range, wherein the bandwidth of the near frequency range is greater than that of the far frequency range, wherein a spatial detection range (10, 10', 11) for the frequency ranges (17, 18) partially overlaps and received radar signals are jointly evaluated for an overall frequency range (19, 19') that fully encompasses the near frequency range and the far frequency range and is continuous, wherein the overall frequency range (19, 19') is greater than the near frequency range, according to which received radar signals of the overall frequency range (19, 19') are evaluated as radar data of a higher distance resolution and received radar signals of the far frequency range are evaluated as radar data of a lower distance resolution.
Decorating apparatus that is suitable for decorating with a material in pulverulent form a surface (2a, 2b, 2c) of an object that advances along an advancement direction, said decorating apparatus comprising at least one decorating device (6, 6'), said at least one decorating device (6, 6') being provided with a propelling device suitable for projecting said material in pulverulent form towards said surface (2a, 2b, 2c) of said object, said propelling device comprising at least one flexible element (37, 37'; 37"; 37"') that is suitable for receiving said material in pulverulent form and projecting the material in pulverulent form towards said surface (2a, 2b, 2c) of said object, said at least one flexible element (37, 37'; 37"; 37"') being fixed on a rotating support that is rotatable around a rotation axis that is substantially parallel to said advancement direction, said decorating device (6, 6') further comprising an abutting element with which said at least one flexible element (37, 37'; 37"; 37"') interacts to flex and project said material in pulverulent form towards said surface (2a, 2b, 2c), characterised in that each end of said abutting element is inserted into a respective slit obtained in a supporting plate, said slit enabling a position of said abutting element to be modified with respect to said rotating support.
Injection valve (101, 102), comprising a valve assembly and a fluid inlet tube with a recess connected to the valve assembly, the valve assembly comprising a valve body having a central longitudinal axis, the valve body comprising a cavity with a fluid outlet portion, a valve needle arranged in the cavity and movable along the central longitudinal axis between a closing position and opening positions, the valve needle preventing a fluid flow through the fluid outlet portion in the closing position and releasing the fluid flow through the fluid outlet portion in opening positions, an electro-magnetic actuator unit being designed to actuate an armature which is arranged in the cavity and is axially moveable relative to the valve needle along the longitudinal axis, wherein - the armature is hydraulically coupled to the valve needle and is operable to move the valve needle to an opening position by exerting a hydraulic force when being actuated by the electro-magnetic actuator unit, characterized in that - the armature is hydraulically coupled to the valve needle by a coupling member arranged between the armature and the valve needle, wherein the coupling member forms a first chamber with the armature and a second chamber with the valve needle, the first chamber and the second chamber being hydraulically coupled by an orifice in the coupling member, the orifice forming a constriction between the first chamber and the second chamber. - the armature is hydraulically coupled to the valve needle and is operable to move the valve needle to an opening position by exerting a hydraulic force when being actuated by the electro-magnetic actuator unit, - the armature is hydraulically coupled to the valve needle by a coupling member arranged between the armature and the valve needle, wherein the coupling member forms a first chamber with the armature and a second chamber with the valve needle, the first chamber and the second chamber being hydraulically coupled by an orifice in the coupling member, the orifice forming a constriction between the first chamber and the second chamber.
A method of power management performed by a user equipment, UE, in a wireless communication network, the method comprising: identifying that the UE is operating according to a configuration that is a stationary extra-long battery device configuration based on device characteristics and/or thresholds; characterized by: transmitting a stationary extra-long battery device indication; in response to the transmitting, receiving a measurement threshold adjustment message; and adjusting an idle mode cell measurement threshold value based on the measurement threshold adjustment message. identifying that the UE is operating according to a configuration that is a stationary extra-long battery device configuration based on device characteristics and/or thresholds; characterized by: transmitting a stationary extra-long battery device indication; in response to the transmitting, receiving a measurement threshold adjustment message; and adjusting an idle mode cell measurement threshold value based on the measurement threshold adjustment message. transmitting a stationary extra-long battery device indication; in response to the transmitting, receiving a measurement threshold adjustment message; and adjusting an idle mode cell measurement threshold value based on the measurement threshold adjustment message.
Industrial truck with a drive component, having a trailer hitch for hitching a trailer, wherein the trailer hitch is rigidly mounted on an adapter, and said adapter is mounted on the drive component such that a tensile force that acts upon the trailer hitch and emanates from the drive part is introduced by a force measuring apparatus into the drive component, wherein the adapter is configured as a plate that has the trailer hitch attached on its first flat side and that has a pivot bearing, by means of which the plate is rotatably mounted on the drive component, and a connecting element, by means of which a tensile force from the adapter is introduced into the drive component of the vehicle, arranged on its opposite flat side, characterized in that the industrial truck is equipped with a vehicle control system, in which at least one of the following driving parameters is stored: maximum driving speed, maximum acceleration and minimum turning radius, and wherein the vehicle control system adapts at least one of the driving parameters in accordance with the measured value of the tensile force.
A dual-inline memory module (500, 720, 920, 1120, 1320, 1420, 1520, 1620, 1720, 1820) comprising: a module interface configured to send module data from the dual-inline memory module (500, 720, 920, 1120, 1320, 1420, 1520, 1620, 1720, 1820) using parallel data channels; a non-volatile flash memory bank (728, 928, 1128, 1228, 1328, 1428, 1528, 1628, 1728, 1828); and one or more integrated circuits configured to enable the module data to be read from the non-volatile flash memory bank (728, 928, 1128, 1228, 1328, 1428, 1528, 1628, 1728, 1828) and to be written to a dynamic random access memory bank (723, 923, 1123), the one or more integrated circuits also configured to read the module data from the dynamic random access memory bank (723, 923, 1323) and send, via the parallel data channels, the module data read from the dynamic random access memory bank (723, 923, 1123)), and, wherein the one or more integrated circuits are configured to translate between a first addressing scheme employed by the dynamic random access memory bank (723, 923, 1123) and a second addressing scheme employed by the non-volatile flash memory bank, the module to execute at least a part of a module block device driver that receives the block I/O storage type device commands via the parallel data channels from a local file system, the block I/O storage type device commands received from the local file system causing the module data to be read from the non-volatile flash memory bank (728, 928, 1128, 1228, 1328, 1428, 1528, 1628, 1728,1828). a module interface configured to send module data from the dual-inline memory module (500, 720, 920, 1120, 1320, 1420, 1520, 1620, 1720, 1820) using parallel data channels; a non-volatile flash memory bank (728, 928, 1128, 1228, 1328, 1428, 1528, 1628, 1728, 1828); and one or more integrated circuits configured to enable the module data to be read from the non-volatile flash memory bank (728, 928, 1128, 1228, 1328, 1428, 1528, 1628, 1728, 1828) and to be written to a dynamic random access memory bank (723, 923, 1123), the one or more integrated circuits also configured to read the module data from the dynamic random access memory bank (723, 923, 1323) and send, via the parallel data channels, the module data read from the dynamic random access memory bank (723, 923, 1123)), and, wherein the one or more integrated circuits are configured to translate between a first addressing scheme employed by the dynamic random access memory bank (723, 923, 1123) and a second addressing scheme employed by the non-volatile flash memory bank, the module to execute at least a part of a module block device driver that receives the block I/O storage type device commands via the parallel data channels from a local file system, the block I/O storage type device commands received from the local file system causing the module data to be read from the non-volatile flash memory bank (728, 928, 1128, 1228, 1328, 1428, 1528, 1628, 1728,1828).
A vehicle with a movable flap, such as an engine bonnet or the like, and with a component, such as a headlight, a tail light, a trim grille or the like, wherein the component is connected by means of fastening and/or alignment elements to the body of the vehicle and wherein the flap at least partially surrounds the component in a closed state, characterised in that the fastening and/or alignment elements of the component in the closed state of the flap are accessible therethrough, to which end the flap is provided with cutouts through which the fastening and/or alignment elements of the component are accessible in the closed state of the flap.
Communication and control system for a vehicle, comprising: a vehicle-installed wireless telematics unit; a wireless personal communication device carried by a vehicle operator; and a wireless fob carried by the vehicle operator for relaying communications between the telematics unit and the personal communication device via a medium-range wireless communication link (20/24) with the telematics unit and a short-range wireless communication link (26/28) with the personal communication device, wherein once authentication is achieved, the relayed communications from the telematics unit to the personal communication device include a voice, text or video message to the personal communication device listing a menu of possible command options, and instructing the operator to make a selection, and a menu selection communication from the personal communication device to the telematics unit, wherein a human-machine-interface of the wireless personal communication device is utilized. a vehicle-installed wireless telematics unit; a wireless personal communication device carried by a vehicle operator; and a wireless fob carried by the vehicle operator for relaying communications between the telematics unit and the personal communication device via a medium-range wireless communication link (20/24) with the telematics unit and a short-range wireless communication link (26/28) with the personal communication device, wherein once authentication is achieved, the relayed communications from the telematics unit to the personal communication device include a voice, text or video message to the personal communication device listing a menu of possible command options, and instructing the operator to make a selection, and a menu selection communication from the personal communication device to the telematics unit, wherein a human-machine-interface of the wireless personal communication device is utilized.
A sensor for measuring at least one physical or chemical parameter of a cartridge or syringe filled with a liquid substance, the sensor comprising: - a planar flexible foil arrangeable to an outer circumference of a barrel of the cartridge or syringe, characterized by - at least a first and a second measuring electrode (102, 104) arranged on said foil and configured as electrical capacity measuring electrodes or as temperature measuring electrodes, and - at least a first and a second contact electrode (106, 108) arranged on said foil and configured to provide an electrical contact to an external electric energy supply, - a processor arranged on said foil and connected to the first and to the second measuring electrodes (102, 104), and - wherein the first contact electrode and the second contact electrode are connected to the processor. - a planar flexible foil arrangeable to an outer circumference of a barrel of the cartridge or syringe, characterized by - at least a first and a second measuring electrode (102, 104) arranged on said foil and configured as electrical capacity measuring electrodes or as temperature measuring electrodes, and - at least a first and a second contact electrode (106, 108) arranged on said foil and configured to provide an electrical contact to an external electric energy supply, - a processor arranged on said foil and connected to the first and to the second measuring electrodes (102, 104), and - wherein the first contact electrode and the second contact electrode are connected to the processor.
Lens for distribution of light from a light emitter having an emitter axis, the lens comprising: an inner surface defining an inner cavity and including a cross-sectionally convex inner region configured for refracting emitter light rays toward the axis and a cross-sectionally linear inner region; and an outer surface receiving the light from each of the inner regions (22D, 23D); a lens flange surrounding the lens and extending radially outwardly from the lens outer surface at positions axially spaced from the light emitter; characterized in that the convex inner region is formed along an open end of the inner cavity, the cross-sectionally linear inner region joins the cross-sectionally convex inner region, extends therefrom toward the emitter axis and forms a cone-shaped inner surface portion at the closed end of the inner cavity. an inner surface defining an inner cavity and including a cross-sectionally convex inner region configured for refracting emitter light rays toward the axis and a cross-sectionally linear inner region; and an outer surface receiving the light from each of the inner regions (22D, 23D); a lens flange surrounding the lens and extending radially outwardly from the lens outer surface at positions axially spaced from the light emitter; characterized in that the convex inner region is formed along an open end of the inner cavity, the cross-sectionally linear inner region joins the cross-sectionally convex inner region, extends therefrom toward the emitter axis and forms a cone-shaped inner surface portion at the closed end of the inner cavity.