mhurhangee/ep-ind-claims huggingface dataset:
An artificial reality system comprising: a device comprising one of a peripheral device configured to generate artificial reality content for display or a head-mounted display unit, HMD, configured to output artificial reality content, wherein the device comprises a System on a Chip, SoC, comprising a host subsystem, a plurality of non-host subsystems (602A, 602B), and the host subsystem including an inter-process communication, IPC, module connected to each of the non-host subsystems, wherein each non-host subsystem of the plurality of non-host subsystems includes a local processor (618A, 618B) and a child energy processing unit (616A, 616B) connected to the local processor, the child energy processing unit configured to manage power states for the non-host subsystem, wherein each local processor is configured to communicate with the local processor of other non-host subsystems of the plurality of non-host subsystems via the IPC module and to request a change in the power state of another non-host subsystem via a corresponding request transferred through the IPC module to the local processor of the another non-host subsystem, and wherein the host subsystem comprises a parent energy processing unit configured to direct power management of each of the child energy processing units of the plurality of non-host subsystems. a device comprising one of a peripheral device configured to generate artificial reality content for display or a head-mounted display unit, HMD, configured to output artificial reality content, wherein the device comprises a System on a Chip, SoC, comprising a host subsystem, a plurality of non-host subsystems (602A, 602B), and the host subsystem including an inter-process communication, IPC, module connected to each of the non-host subsystems, wherein each non-host subsystem of the plurality of non-host subsystems includes a local processor (618A, 618B) and a child energy processing unit (616A, 616B) connected to the local processor, the child energy processing unit configured to manage power states for the non-host subsystem, wherein each local processor is configured to communicate with the local processor of other non-host subsystems of the plurality of non-host subsystems via the IPC module and to request a change in the power state of another non-host subsystem via a corresponding request transferred through the IPC module to the local processor of the another non-host subsystem, and
Hair care device with a handle, a function head connectable to the handle, which has a hair care appliance, as well as an ion discharge appliance for discharging ions onto the hair, which has at least one ion outlet, characterized in that the hair treatment device is a battery-operated and / or rechargeable device and the function head and the handle each have an electroconductive surface on an outer surface of the housing, and the electroconductive surface of the function head and the electroconductive surface of the handle are electrically connected, and the electroconductive surface of the function head is connected to the grounding potential of the voltage circuit.
A handling unit for hollow glass articles including: - a plurality of fingers, each configured to engage a corresponding hollow glass article in correspondence of a gripping area and to drag said article along a connection trajectory between a gripping position and a release position, - a displacement mechanism (6, 7A, 7B, 7C, 7D, 7E) of said plurality of fingers between the gripping position and the release position, - wherein each finger of said plurality includes a nozzle which can be supplied by means of pressurized air and which is arranged in correspondence of said gripping area, said nozzle being configured for the ejection of air in a direction tangent with respect to said gripping area so as to set a depression in correspondence of said gripping area to hold a hollow glass article arranged in the gripping area itself, the handling unit being characterized in that it includes at least two control units (RQ, SV; PR, SVV; RQ; PR) of the supply airflow of the nozzles, wherein each control unit (RQ, SV; PR, SV; RQ; PR) of the airflow is configured to control at least one corresponding nozzle independently of the nozzles controlled by remaining control units (RQ, SV; PR, SV; RQ; PR) of the airflow. - a plurality of fingers, each configured to engage a corresponding hollow glass article in correspondence of a gripping area and to drag said article along a connection trajectory between a gripping position and a release position, - a displacement mechanism (6, 7A, 7B, 7C, 7D, 7E) of said plurality of fingers between the gripping position and the release position, - wherein each finger of said plurality includes a nozzle which can be supplied by means of pressurized air and which is arranged in correspondence of said gripping area, said nozzle being configured for the ejection of air in a direction tangent with respect to said gripping area so as to set a depression in correspondence of said gripping area to hold a hollow glass article arranged in the gripping area itself,
An electro-acoustic implant, comprising an elongate electrode carrier having a plurality of stimulation electrodes that can be introduced into a cochlea; and a flat sound transducer that is excitable to vibrate at least regionally by applying a voltage, wherein the sound transducer is configured such that it is arrangeable in, on and/or in front of a round window or an oval window or a surgically created third window of an ear and/or in a round window niche of an ear, covering the corresponding window at least partially or completely, such that vibrations of the sound transducer effect sound vibrations through the corresponding window; wherein the elongate electrode carrier extends through a plane of the flat sound transducer that extends, when the sound transducer is arranged in front of the corresponding window, at least partially over the corresponding window, wherein the flat transducer has a membrane structure as a part of its plane; and wherein the membrane structure has at least one carrier layer and at least one piezo layer that is arranged on the carrier layer and that comprises a piezoelectric material such that the sound transducer is excitable to vibrate at least regionally by applying the voltage to the piezo layer, wherein the membrane structure in the plane is divided by at least one cutting line separating all the layers of the membrane structure into at least two or more segments (9a, 9b, 9c) such that the membrane structure is mechanically decoupled at the cutting line.
Pneumatic vehicle tire, which is a commercial vehicle tire or an off-the-road tire, having a tread with transverse grooves (3, 3'), which are continuous over the tread width and which, at least in sections, are formed to the profile depth and are the main grooves of the tread, wherein circumferential grooves that run adjacent to one another in pairs and parallel to one another, at an angle (α) with respect to the circumferential direction of 10° to 30° divide the tread into profile blocks (1, 2), wherein pairs of circumferential grooves following one another in the circumferential direction are offset with respect to one another in the axial direction, such that the circumferential grooves of the pairs of circumferential grooves begin and end at substantially the same axial positions, wherein each circumferential groove reaches, with a section running beyond a transverse groove, into a middle profile block present between the circumferential grooves, characterized in that the circumferential grooves have a smaller depth than the profile depth and divide the tread, with two sections in each case between three transverse grooves (3, 3') following one another in the circumferential direction, into profile blocks (1, 2), wherein each circumferential groove is formed shallower in at least one section (4a, 4b) than in its other sections or its other section. wherein circumferential grooves that run adjacent to one another in pairs and parallel to one another, at an angle (α) with respect to the circumferential direction of 10° to 30° divide the tread into profile blocks (1, 2), wherein pairs of circumferential grooves following one another in the circumferential direction are offset with respect to one another in the axial direction, such that the circumferential grooves of the pairs of circumferential grooves begin and end at substantially the same axial positions, wherein each circumferential groove reaches, with a section running beyond a transverse groove, into a middle profile block present between the circumferential grooves, characterized in that the circumferential grooves have a smaller depth than the profile depth and divide the tread, with two sections in each case between three transverse grooves (3, 3') following one another in the circumferential direction, into profile blocks (1, 2), wherein each circumferential groove is formed shallower in at least one section (4a, 4b) than in its other sections or its other section.
A plaster profile, in particular an overhang profile, comprising an elongated profile body which is provided for fastening to a wall section to be plastered and which has at least one areal plaster limb which is configured for an application of a plaster layer, wherein the at least one areal plaster limb has a continuously closed surface section and wherein a film which can be plastered over is applied to the continuously closed surface section, wherein the profile body has a contact surface for placing the plaster profile against a wall section to be plastered and wherein the at least one areal plaster limb extends in an overhang plane which is offset in parallel from the contact surface, wherein the contact surface is formed at an areal base limb of the plaster profile which is provided with apertures. wherein the at least one areal plaster limb has a continuously closed surface section and wherein a film which can be plastered over is applied to the continuously closed surface section, wherein the profile body has a contact surface for placing the plaster profile against a wall section to be plastered and wherein the at least one areal plaster limb extends in an overhang plane which is offset in parallel from the contact surface, wherein the contact surface is formed at an areal base limb of the plaster profile which is provided with apertures.
An arrangement comprising: an inductive angular position sensor comprising at least three sensor elements formed by at least one transmitting sensor element and at least two receiving sensor elements or by at least two transmitting sensor elements and at least one receiving sensor element for measuring the magnetic flux coupling between the transmitting sensor element(s) and the receiving sensor element(s); a target (250c-e) configured to be used with the angular position sensor for sensing a rotational position of the target (250c-e), the target (250c-e) comprising: at least two elongated conductive loop structures, which are formed by at least two recesses or slits, which are arranged in parallel, for allowing eddy currents to flow therein and configured to affect a magnetic field received from the angular position sensor in a preferred direction along the at least two elongated conductive loop structures, wherein the at least two elongated conductive loop structures are conductively coupled to form discrete electrically conductive paths, and wherein the at least two elongated conductive loop structures are spatially separated; means for processing signals that are outputted by the at least one receiving sensor element and outputting at least one signal indicative of the angular position of the target (250c-e). an inductive angular position sensor comprising at least three sensor elements formed by at least one transmitting sensor element and at least two receiving sensor elements or by at least two transmitting sensor elements and at least one receiving sensor element for measuring the magnetic flux coupling between the transmitting sensor element(s) and the receiving sensor element(s); a target (250c-e) configured to be used with the angular position sensor for sensing a rotational position of the target (250c-e), the target (250c-e) comprising: at least two elongated conductive loop structures, which are formed by at least two recesses or slits, which are arranged in parallel, for allowing eddy currents to flow therein and configured to affect a magnetic field received from the angular position sensor in a preferred direction along the at least two elongated conductive loop structures, wherein the at least two elongated conductive loop structures are conductively coupled to form discrete electrically conductive paths, and wherein the at least two elongated conductive loop structures are spatially separated; means for processing signals that are outputted by the at least one receiving sensor element and outputting at least one signal indicative of the angular position of the target (250c-e).
A device for servicing a pneumatic conveyance line comprising: a body having a length extending from a leading end to a trailing end and a width extending perpendicularly to the length, the width of the body defining a pair of wings (44, 46) projecting in opposed directions from a centerline of the body, wherein the body is configured to be positioned between opposed rails (16, 18) of a pneumatic conveyance track with each of the pair of wings (44, 46) positioned on a respective one of the opposed rails (16, 18) and the pair of wings (44, 46) carry an agent for at least one cleaning and lubricating the opposed rails (16, 18) of the pneumatic conveyance track, said device being characterized in that the trailing end of the body has a shape corresponding to a shape of an object to be conveyed on the pneumatic conveyance track, and in that the object is a circular shaped bottle, and the shape is a rounded groove configured to mate with the circular shaped bottle positioned in the pneumatic conveyance track and used to propel the body along the pneumatic conveyance track. a body having a length extending from a leading end to a trailing end and a width extending perpendicularly to the length, the width of the body defining a pair of wings (44, 46) projecting in opposed directions from a centerline of the body, wherein the body is configured to be positioned between opposed rails (16, 18) of a pneumatic conveyance track with each of the pair of wings (44, 46) positioned on a respective one of the opposed rails (16, 18) and the pair of wings (44, 46) carry an agent for at least one cleaning and lubricating the opposed rails (16, 18) of the pneumatic conveyance track, said device being characterized in that the trailing end of the body has a shape corresponding to a shape of an object to be conveyed on the pneumatic conveyance track, and in that the object is a circular shaped bottle, and the shape is a rounded groove configured to mate with the circular shaped bottle positioned in the pneumatic conveyance track and used to propel the body along the pneumatic conveyance track.
A method of wirelessly transmitting power using radio frequency, RF, waves, the method comprising: at a RF wireless power transmitter comprising an antenna array: receiving, by a first subset of antennas of the antenna array, a first signal from a wireless power receiver; receiving, by a second subset of antennas of the antenna array, a second signal from the wireless power receiver, wherein (i) the second subset of antennas includes at least one antenna not included in the first subset of antennas and (ii) the first and second subsets of antennas are configured to allow determination of horizontal and vertical coordinates of wireless power receivers; characterised by the following steps; based on an analysis of the first and second signals to determine horizontal and vertical coordinates, respectively, representing a location of the wireless power receiver, determining, by the controller, respective transmission features for RF power transmission waves that cause the RF power transmission waves to constructively interfere around the location of the wireless power receiver when transmitted by the antenna array; and after determining the respective transmission features based on the analysis of the first and second signals, transmitting, by the antenna array, RF power transmission waves having the determined transmission features, the RF power transmission waves constructively interfering around the location of the wireless power receiver, thereby forming a pocket of energy. receiving, by a first subset of antennas of the antenna array, a first signal from a wireless power receiver; receiving, by a second subset of antennas of the antenna array, a second signal from the wireless power receiver, wherein (i) the second subset of antennas includes at least one antenna not included in the first subset of antennas and (ii) the first and second subsets of antennas are configured to allow determination of horizontal and vertical coordinates of wireless power receivers; characterised by the following steps; based on an analysis of the first and second signals to determine horizontal and vertical coordinates, respectively, representing a location of the wireless power receiver, determining, by the controller, respective transmission features for RF power transmission waves that cause the RF power transmission waves to constructively interfere around the location of the wireless power receiver when transmitted by the antenna array; and after determining the respective transmission features based on the analysis of the first and second signals, transmitting, by the antenna array, RF power transmission waves having the determined transmission features, the RF power transmission waves constructively interfering around the location of the wireless power receiver, thereby forming a pocket of energy.
An electric motor or generator comprising a stator comprising a heat sink, at least one coil, and a control module having a housing, wherein the at least one coil is formed on stator tooth laminations to form a coil winding, wherein the stator tooth laminations are mounted on the heat sink, wherein the control module is mounted on a planar portion of stator heat sink, wherein the control module housing includes a Hall sensor and a partial toroid made of ferromagnetic material for detecting current flow, a control device for controlling current flow in the coil winding based on the current flow detected by the Hall sensor, wherein the partial toroid has a section missing from the toroid that substantially corresponds to the size of the Hall sensor and is replaced with the Hall sensor, wherein an end portion of the coil winding protrudes through the planar portion of the stator heat sink and extends away therefrom in a substantially perpendicular direction relative to the planar portion of the stator heat sink, wherein an aperture is formed on the side of the control module housing that is mounted adjacent to the planar portion of the stator heat sink, wherein the aperture is sized and positioned to match the position and diameter of the end portion of the coil winding that extend from the planar portion of the stator heat sink, thereby allowing the end portion of the coil winding to extend through the aperture, wherein a recess is formed around the aperture on the surface of the control module housing opposite to that mounted adjacent to the planar portion of the stator heat sink, characterised in that the recess includes a conduit section formed around the aperture in order to facilitate the guiding of the end portion of the coil winding, wherein the partial toroid is fitted in the recess around the conduit.
A circuit-switched, CS, paging processing method, comprising: receiving (101, 201, 301, 401), by a mobility management entity, MME, a paging request message from a mobile switching center, MSC, server which a called User Equipment, UE, is registered to; and sending (102, 202, 302, 402), by the MME, a paging notification message to the called UE when the called UE is connected according to the status recorded in the context of the called UE, and returning (102, 203, 304, 403) a called-UE paging status message to the MSC server when the called UE is connected according to the status recorded in the context of the called UE without the MME receiving a service request from the called UE; and receiving (206, 207, 307, 308, 406, 407), by the MME, the service request message from the called UE in response to the paging notification message. receiving (101, 201, 301, 401), by a mobility management entity, MME, a paging request message from a mobile switching center, MSC, server which a called User Equipment, UE, is registered to; and sending (102, 202, 302, 402), by the MME, a paging notification message to the called UE when the called UE is connected according to the status recorded in the context of the called UE, and returning (102, 203, 304, 403) a called-UE paging status message to the MSC server when the called UE is connected according to the status recorded in the context of the called UE without the MME receiving a service request from the called UE; and receiving (206, 207, 307, 308, 406, 407), by the MME, the service request message from the called UE in response to the paging notification message.
An elongate membrane assembly having a length, a width and a height, the assembly comprising a microporous membrane layer supported on a liquid-impermeable support layer and the assembly being suitable for lateral flow of a liquid through the membrane layer under the action of capillary forces, wherein the assembly has a constant height and at least part of the membrane layer has a first thickness in the range of from 20 to 80 μm over the entire width of the assembly.