mhurhangee/ep-ind-claims huggingface dataset:
Method for connecting a filter material to a fluidic component, wherein it comprises the step of: materially bonding the filter material to the fluidic component by means of a material bonding process, wherein the filter material is joined to a functional component of the fluidic component by a material bonding process, the connection is performed as a step of an assembly process in which the functional component is mounted in the fluidic component, the fluidic component is a valve, the functional component is a nozzle, the material bonding process is an ultrasonic welding process, the suitable shape and size of the filter material is created by punching, the punching is carried out by means of a welding tool for the ultrasonic welding process, and the punching and welding of the ultrasonic welding process are carried out in a single working stroke of the welding tool, characterized in that, the filter material is supplied automatically by means of a band, and the welding tool subsequently moves in order to punch the filter material out of the band and then moves further in the direction of the nozzle and when the punching tool strikes the punched out filter material an ultrasonic vibration is transmitted from the punching tool via the filter material to the nozzle, whereby the filter material and a material of the nozzle are plasticized. materially bonding the filter material to the fluidic component by means of a material bonding process, wherein the filter material is joined to a functional component of the fluidic component by a material bonding process, the connection is performed as a step of an assembly process in which the functional component is mounted in the fluidic component, the fluidic component is a valve, the functional component is a nozzle, the material bonding process is an ultrasonic welding process, the suitable shape and size of the filter material is created by punching, the punching is carried out by means of a welding tool for the ultrasonic welding process, and the punching and welding of the ultrasonic welding process are carried out in a single working stroke of the welding tool, characterized in that, the filter material is supplied automatically by means of a band, and the welding tool subsequently moves in order to punch the filter material out of the band and then moves further in the direction of the nozzle and when the punching tool strikes the punched out filter material an ultrasonic vibration is transmitted from the punching tool via the filter material to the nozzle, whereby the filter material and a material of the nozzle are plasticized.
A printable film with metallized matte finish for lamination on paper and/or cardboard supports that comprises a biaxially-oriented polypropylene substrate, transparent by contact, having a thickness of between 8 and 60 μ, characterized in that the film further comprises, on the face of said substrate opposite to the face intended to be printed, a layer of aluminium and, on the face of said substrate intended to be printed, a layer of a plastic resin of the acrylic, polyurethanic or styrenic types that, when dry, exhibits a surface tension of at least 42 dynes/cm.
A tube inspection unit, comprising an eddy current probe, the probe comprising a plurality of inductors (16 to 22) and a plurality of receivers (23, 24), the receivers (23, 24) being magnetoresistances having a substantially linear functional zone, the inductors (16 to 22) of the probe being connected to a controller, the controller being programmed to inject, at the terminals of the inductors (16 to 22), a voltage, characterized in that the voltage has a sinusoidal component and a direct-current component that are non-nil, the receivers (23, 24) then having a polarization center situated in the substantially linear functional zone.
A local user equipment, UE, operable to perform video conferencing with a remote UE, the local UE having one or more processors configured to: receive, one or more step sizes, from the remote UE, that are used at the remote UE to process one or more pan, tilt, zoom and focus, PTZF, commands sent from the local UE, wherein the one or more step sizes are signaled as dedicated real-time transport protocol, RTP, header extension attributes; define, at the local UE, a region of interest, ROI, within a field of view of a camera of the remote UE; map the ROI to the one or more PTZF commands based on the one or more step sizes, wherein the one or more PTZF commands are in accordance with an International Telecommunication Union, ITU, H.281/H.224 protocol or a far end camera control, FECC, protocol; send the one or more PTZF commands from the local UE to the remote UE in a single packet, wherein the remote UE is configured to identify the ROI based on the one or more PTZF commands; and receive encoded video within the ROI from the remote UE, the encoded video including regions within the ROI and excluding regions outside the ROI, the encoded video including the regions within the ROI at an increased zoom level while substantially maintaining a defined quality level to enable the encoded video within the ROI to be rendered and displayed at the local UE. receive, one or more step sizes, from the remote UE, that are used at the remote UE to process one or more pan, tilt, zoom and focus, PTZF, commands sent from the local UE, wherein the one or more step sizes are signaled as dedicated real-time transport protocol, RTP, header extension attributes; define, at the local UE, a region of interest, ROI, within a field of view of a camera of the remote UE; map the ROI to the one or more PTZF commands based on the one or more step sizes, wherein the one or more PTZF commands are in accordance with an International Telecommunication Union, ITU, H.281/H.224 protocol or a far end camera control, FECC, protocol; send the one or more PTZF commands from the local UE to the remote UE in a single packet, wherein the remote UE is configured to identify the ROI based on the one or more PTZF commands; and receive encoded video within the ROI from the remote UE, the encoded video including regions within the ROI and excluding regions outside the ROI, the encoded video including the regions within the ROI at an increased zoom level while substantially maintaining a defined quality level to enable the encoded video within the ROI to be rendered and displayed at the local UE.
A method of remotely changing operating characteristics of a communications device selected for signalling an incoming message or call to a user; comprising the steps of: - receiving, from a calling device, control data at a called device; - changing a group of operating characteristics of the device to be called in accordance with the transmitted control data; and - signalling an incoming message or call in accordance with the operating characteristics set up in the previous step. - receiving, from a calling device, control data at a called device; - changing a group of operating characteristics of the device to be called in accordance with the transmitted control data; and - signalling an incoming message or call in accordance with the operating characteristics set up in the previous step.
A method for closed-loop control of a controlled variable of a drive motor to a given reference variable (w), wherein the actual value and/or the measured actual value of the controlled variable is/are influenced by a fluctuating effect with a certain periodicity, wherein the controlled variable is only readjusted, if there is a control difference between the reference variable (w) and an average value of the actual value of the controlled variable averaged over the period duration (T, T 1, T 2) of the periodicity, wherein measurement values (M 1 to M n, M 1 ' to M n ') are determined within the period duration (T, T 1, T 2) of each periodicity at concrete measurement time points (t 1 to t n, t 1 ' to t n ') in a certain controller cycle, these measurement values correlating with the respective actual value of the controlled variable or corresponding to the actual value of the controlled variable, and/or being adapted to determine therefrom the control difference between the reference variable (w) and the average value of the actual value of the controlled variable, characterized in that the control difference is determined at each concrete measurement time point (t 1 to t n, t 1 ' to t n ') and the controlled variable is readjusted, if necessary. wherein the controlled variable is only readjusted, if there is a control difference between the reference variable (w) and an average value of the actual value of the controlled variable averaged over the period duration (T, T 1, T 2) of the periodicity, wherein measurement values (M 1 to M n, M 1 ' to M n ') are determined within the period duration (T, T 1, T 2) of each periodicity at concrete measurement time points (t 1 to t n, t 1 ' to t n ') in a certain controller cycle, these measurement values correlating with the respective actual value of the controlled variable or corresponding to the actual value of the controlled variable, and/or being adapted to determine therefrom the control difference between the reference variable (w) and the average value of the actual value of the controlled variable, characterized in that the control difference is determined at each concrete measurement time point (t 1 to t n, t 1 ' to t n ') and the controlled variable is readjusted, if necessary.
A method of managing, by means of an activation code management server, a plurality of activation codes (511 - 562) referring to at least one virtualized network function, VNF, in a network, the network including a plurality of network slices, the method including steps of: Providing (S31, S41), for each of the plurality of network slices, a network slice identifier in correspondence with a network slice; Providing (S32, S42) at least one VNF-product identifier, each VNF-product identifier being in correspondence with a VNF; providing (S33, S44) a plurality of activation code indicators (510, 520, 530, 540, 550, 560), each activation code indicator (510, 520, 530, 540, 550, 560) being indicative of one or more of the plurality of activation codes (511 - 562); and associating (S34, S45), at the server, each of the plurality of activation code indicators (510, 520, 530, 540, 550, 560) with a corresponding network slice identifier and a corresponding VNF-product identifier, wherein: each activation code (511,..., 562) enables one or more instances of a VNF to be instantiated in a network slice and/or enables one or more functionalities in an instantiated VNF; and the VNF and the network slice in which the VNF is instantiated is identified by a VNF-product identifier and a network slice identifier, respectively, with which an activation code indicator (510, 520, 530, 540, 550, 560) indicative of the activation code (511,..., 562) is associated. Providing (S31, S41), for each of the plurality of network slices, a network slice identifier in correspondence with a network slice; Providing (S32, S42) at least one VNF-product identifier, each VNF-product identifier being in correspondence with a VNF; providing (S33, S44) a plurality of activation code indicators (510, 520, 530, 540, 550, 560), each activation code indicator (510, 520, 530, 540, 550, 560) being indicative of one or more of the plurality of activation codes (511 - 562); and associating (S34, S45), at the server, each of the plurality of activation code indicators (510, 520, 530, 540, 550, 560) with a corresponding network slice identifier and a corresponding VNF-product identifier, wherein: each activation code (511,..., 562) enables one or more instances of a VNF to be instantiated in a network slice and/or enables one or more functionalities in an instantiated VNF; and the VNF and the network slice in which the VNF is instantiated is identified by a VNF-product identifier and a network slice identifier, respectively, with which an activation code indicator (510, 520, 530, 540, 550, 560) indicative of the activation code (511,..., 562) is associated. each activation code (511,..., 562) enables one or more instances of a VNF to be instantiated in a network slice and/or enables one or more functionalities in an instantiated VNF; and the VNF and the network slice in which the VNF is instantiated is identified by a VNF-product identifier and a network slice identifier, respectively, with which an activation code indicator (510, 520, 530, 540, 550, 560) indicative of the activation code (511,..., 562) is associated.
An optical pressure sensor assembly (202, 400), comprising: an optical fiber (212, 410) having a light emitting end; a housing (210, 402) having an elongate body comprising a lumen through which the optical fiber extends, the housing having an opening (209, 414) through a sidewall; an elastic membrane (208, 408) disposed along the sidewall of the housing and positioned at the opening, the elastic membrane configured to be movable relative to the housing in response to pressure outside of the housing; an interface medium (106, 416) at the light emitting end of the optical fiber, the interface medium having a first refractive index different from a second refractive index of the optical fiber, wherein the differing refractive indices creates a Fresnel reflection; a detector (110, 206) configured to receive an interference signal resulting from an interaction of the Fresnel reflection and light reflected or scattered by the membrane; and a controller configured to receive the interference signal and compute a pressure measurement based on the interference signal, wherein the optical fiber is configured for optical communication with a light source and to transmit light to the elastic membrane and receive light reflected or scattered by the elastic membrane, characterised in that said interface medium (106, 416) is an adhesive. an optical fiber (212, 410) having a light emitting end; a housing (210, 402) having an elongate body comprising a lumen through which the optical fiber extends, the housing having an opening (209, 414) through a sidewall; an elastic membrane (208, 408) disposed along the sidewall of the housing and positioned at the opening, the elastic membrane configured to be movable relative to the housing in response to pressure outside of the housing; an interface medium (106, 416) at the light emitting end of the optical fiber, the interface medium having a first refractive index different from a second refractive index of the optical fiber, wherein the differing refractive indices creates a Fresnel reflection; a detector (110, 206) configured to receive an interference signal resulting from an interaction of the Fresnel reflection and light reflected or scattered by the membrane; and a controller configured to receive the interference signal and compute a pressure measurement based on the interference signal, wherein the optical fiber is configured for optical communication with a light source and to transmit light to the elastic membrane and receive light reflected or scattered by the elastic membrane, characterised in that said interface medium (106, 416) is an adhesive.
Method for clearance cutting with a helicopter-borne sawing device comprising at least two saw blades on a vertical or horizontal support coupled to the helicopter using a torque tube, characterized, in that each saw blade is driven by its own electric motor and each electric motor is associated with a controller which is connected to a control system which controls the speed and torque of each electric motor by means of the associated controller.
Container gripper for holding containers suspended by a container region (2.1), for example bottles by a bottle neck, beneath a container mouth (2.2), having two arms or segments (6, 7) which on a front side (4.1) of the container gripper form a container mount between them and to allow the container mount to be opened can be moved apart from one another from a closed position against the action of a closing force; for this purpose the container gripper is produced with the segments (6, 7) which form the container mount and with a spring portion acting between these segments (6, 7) and pre-tensioning the segments (6, 7) into the closed position, wherein the container gripper is produced in one piece with a locking portion which can move under spring action between a position in which the container gripper is locked and a position in which the container gripper is not locked.
A periphery monitoring device for a work machine, comprising: a plurality of imaging devices (30a, 30b, 30c) that each captures an image of surroundings of the work machine; an overhead view image generating unit that converts the image captured by each of the plurality of imaging devices (30a, 30b, 30c) into an upper view-point image, and generates an overhead view image of the surroundings of the work machine based upon upper view-point images; and a display unit that displays the overhead view image in an overhead view image display region, characterized in that: when generating an overhead view image of an overlap region of a first upper view-point image relating to the image captured by a first imaging device included in the plurality of imaging devices (30a, 30b, 30c) and a second upper view-point image relating to the image captured by a second imaging device included in the plurality of imaging devices (30a, 30b, 30c): the overhead view image generating unit, based upon a height (h) of a virtual monitoring target, sets at least one of a first region in which the first upper view-point image is displayed and a second region in which the second upper view-point image is displayed, and also sets a third region in which a composite display image based upon the first and second upper view-point images (e1, e3) is displayed. a plurality of imaging devices (30a, 30b, 30c) that each captures an image of surroundings of the work machine; an overhead view image generating unit that converts the image captured by each of the plurality of imaging devices (30a, 30b, 30c) into an upper view-point image, and generates an overhead view image of the surroundings of the work machine based upon upper view-point images; and a display unit that displays the overhead view image in an overhead view image display region, characterized in that: when generating an overhead view image of an overlap region of a first upper view-point image relating to the image captured by a first imaging device included in the plurality of imaging devices (30a, 30b, 30c) and a second upper view-point image relating to the image captured by a second imaging device included in the plurality of imaging devices (30a, 30b, 30c): the overhead view image generating unit, based upon a height (h) of a virtual monitoring target, sets at least one of a first region in which the first upper view-point image is displayed and a second region in which the second upper view-point image is displayed, and also sets a third region in which a composite display image based upon the first and second upper view-point images (e1, e3) is displayed.
Method for determining the position of a component in a high lift system of an aircraft, the high lift system comprising a power control unit for providing rotational power by means of a transmission shaft (8, 10); and actuator drive stations coupled with the power control unit and movable high lift surfaces; the method comprising the steps of: - acquiring a first rotational position of a first position pick-off unit mechanically coupled with the power control unit by means of a first gear having a first gear ratio, - acquiring at least one second rotational position of at least one second position pick-off unit mechanically coupled with a driven element in at least one drive station, - determining the number of full rotations the first position pick-off unit has already accomplished between a neutral position and an intended maximum number of rotations based on an associated number of angle sections of the at least one second position pick-off unit and the actual second rotational position, - multiplying the number of full rotations of the first position pick-off unit with 360° and adding the resulting full rotations angle to the measured first rotational position to acquire the first rotational position. - acquiring a first rotational position of a first position pick-off unit mechanically coupled with the power control unit by means of a first gear having a first gear ratio, - acquiring at least one second rotational position of at least one second position pick-off unit mechanically coupled with a driven element in at least one drive station, - determining the number of full rotations the first position pick-off unit has already accomplished between a neutral position and an intended maximum number of rotations based on an associated number of angle sections of the at least one second position pick-off unit and the actual second rotational position, - multiplying the number of full rotations of the first position pick-off unit with 360° and adding the resulting full rotations angle to the measured first rotational position to acquire the first rotational position.
A cutting insert comprising, at a forward end thereof, a cutting portion having a cutting edge and, at a rear end thereof, a locating portion, the locating portion comprising an upper locating surface and a lower locating surface, the upper locating surface being divided into three sections, a forward section adjacent the cutting portion, a rear section distal the cutting portion and a middle section located between the forward and rear sections, wherein in a side view of the cutting insert, the upper locating surface forward section and the lower locating surface lie on third and fourth straight lines, respectively, that form a second acute angle (α2) therebetween, and converge to a point rearward of the cutting insert, and the upper locating surface rear section lies on a fifth straight line that forms a third acute angle (α3) with the fourth straight line, and the upper locating surface has a stepped formation, with the rear section being recessed relative to the forward section, so that the third and fifth straight lines are non-collinear characterized in that the forward and middle sections of the upper locating surface form a first obtuse interior angle (β1) therebetween and the middle and rear sections of the upper locating surface form a second obtuse exterior angle (β2), and the upper locating surface forward and rear sections (92, 94) both have a concave or convex V-shape in cross-section.
Vaccine composition for use in the prophylactic treatment of a bacterial urinary tract infection by intramuscular injection, whereby the vaccine composition is a suspension for injection containing dextran as sole vaccine and an aluminum compound as adjuvant, whereby the aluminum compound is aluminum phosphate.
A method for circuit monitoring, comprising: detecting a waveform of first voltage at a DC-link capacitor in a power converter, the first voltage being generated by turning on a chopper circuit coupling in parallel to the DC-link; determining a phase angle shift of the waveform of first voltage with respect to a waveform of second voltage at a rectifier in the power converter or a power supply for the power converter; determining magnitude of the waveform of first voltage; and determining, based on at least one of the magnitude and the phase angle shift, a parameter indicative of a health condition of the DC-link capacitor. detecting a waveform of first voltage at a DC-link capacitor in a power converter, the first voltage being generated by turning on a chopper circuit coupling in parallel to the DC-link; determining a phase angle shift of the waveform of first voltage with respect to a waveform of second voltage at a rectifier in the power converter or a power supply for the power converter; determining magnitude of the waveform of first voltage; and determining, based on at least one of the magnitude and the phase angle shift, a parameter indicative of a health condition of the DC-link capacitor.