mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: receiving (910; 1410), by a wireless communication device from a base station, a bandwidth part, BWP, configuration for a component carrier; determining (920; 1420), by the wireless communication device, a direct current, DC, location based on the BWP configuration; and transmitting (930; 1430), by the wireless communication device to the base station, a report indicating the DC location determined for the BWP configuration, wherein a subcarrier index within the component carrier indicates the DC location corresponding to a DC location of a baseband signal of a transmitter of the wireless communication device before up-conversion into an RF signal. receiving (910; 1410), by a wireless communication device from a base station, a bandwidth part, BWP, configuration for a component carrier; determining (920; 1420), by the wireless communication device, a direct current, DC, location based on the BWP configuration; and transmitting (930; 1430), by the wireless communication device to the base station, a report indicating the DC location determined for the BWP configuration, wherein a subcarrier index within the component carrier indicates the DC location corresponding to a DC location of a baseband signal of a transmitter of the wireless communication device before up-conversion into an RF signal.
A wireless communication method, comprising: sending (S101), by a wireless communication device , a broadcast message to a terminal device , the broadcast message including device identification information of the wireless communication device ; receiving (S102), by the wireless communication device , a scan request message sent by the terminal device ; sending (S103), by the wireless communication device , a scan response message to the terminal device in response to receiving the scan request message, wherein the scan response message includes attribute data associated with the wireless communication device , and the attribute data includes identification information of content associated with a physical location of the wireless communication device , and wherein the scan response message further comprises second identification information for identifying the wireless communication device ; wherein the second identification information and the device identification information are configured to allow the terminal device to determine its location. sending (S101), by a wireless communication device , a broadcast message to a terminal device , the broadcast message including device identification information of the wireless communication device ; receiving (S102), by the wireless communication device , a scan request message sent by the terminal device ; sending (S103), by the wireless communication device , a scan response message to the terminal device in response to receiving the scan request message, wherein the scan response message includes attribute data associated with the wireless communication device , and the attribute data includes identification information of content associated with a physical location of the wireless communication device , and wherein the scan response message further comprises second identification information for identifying the wireless communication device ; wherein the second identification information and the device identification information are configured to allow the terminal device to determine its location.
Method for depositing a coating on a surface of a workpiece, the method working with a Thermal Spray deposition torch comprising spray heads and nozzles , the torch being controlled by a robot ; the method characterized in that it provides for carrying out the deposition step by configuring the torch so as to create two concurrent movements to a jet of material to be deposited, of which: a. A first movement (M1) along the area of the surface to be coated; said first movement being carried out by means of linear advancement of the robot ; b. A second movement (M2) of oscillation according to a rotation axis (AA) coaxial with a linear advancement direction along which said first movement (M1) is carried out; said second movement being carried out by means of a rotation of the spray heads and/or of the nozzles of the torch about said rotation axis (AA) by means of a further motor associated to the torch . a. A first movement (M1) along the area of the surface to be coated; said first movement being carried out by means of linear advancement of the robot ; b. A second movement (M2) of oscillation according to a rotation axis (AA) coaxial with a linear advancement direction along which said first movement (M1) is carried out; said second movement being carried out by means of a rotation of the spray heads and/or of the nozzles of the torch about said rotation axis (AA) by means of a further motor associated to the torch .
A starter-generator system comprising; a stator ; a rotor mounted for rotation with respect to the stator ; a main field winding ; an exciter field armature winding ; a rectifier for rectifying an output from the exciter field armature winding to provide DC excitation for the main field winding , wherein the main field winding , the exciter field armature winding , and the rectifier are mounted for rotation with the rotor ; a main armature winding mounted on the stator and magnetically coupled to the main field winding ; and a single exciter field stator winding configured to provide a single excitation field to magnetically couple with the exciter field armature winding when the starter-generator system is operating in a starter mode and in a generator mode, wherein a single excitation source is provided to the single exciter field stator winding when the starter-generator system is operating in both a starter mode and in a generator mode, characterized in that the single exciter field stator winding and the exciter field armature winding are both single phase windings, the single excitation source comprises alternating current of frequency greater than the current frequency of the main armature winding , whereby an amplitude of a voltage waveform at the main field winding remains constant while a speed of the rotor varies.
Surgical implant adapted for repairing a tissue or muscle wall defect, comprising an outer section (8; 44) and an inner section (6; 42) located in the outer section (8; 44), wherein the outer section and the inner section (6; 42) are formed from one double-sheet (14; 38) of a flexible basic structure (2; 32), characterized in that : the double-sheet (14; 38) of the basic structure (2; 32) is a single-sheet folded about a fold line (A-A; B-B), resulting in two opposite sheet parts defining the inner section (6; 42) in an area adjacent to the fold line (A-A; B-B) and the outer section (8; 44) in an area distant from the fold line (A-A; B-B) and having edge areas (18; 40) facing each other; in the outer section (8; 44), at least part of said edge areas (18; 40) facing each other are connected to each other; in the outer section (8; 44), the double-sheet (14; 38) of the basic structure (2; 32) is inverted and accommodates the inner section (6; 42); wherein the inner section (6; 42) is accessible to be grasped via an open end of the outer section (8; 44). the double-sheet (14; 38) of the basic structure (2; 32) is a single-sheet folded about a fold line (A-A; B-B), resulting in two opposite sheet parts defining the inner section (6; 42) in an area adjacent to the fold line (A-A; B-B) and the outer section (8; 44) in an area distant from the fold line (A-A; B-B) and having edge areas (18; 40) facing each other; in the outer section (8; 44), at least part of said edge areas (18; 40) facing each other are connected to each other; in the outer section (8; 44), the double-sheet (14; 38) of the basic structure (2; 32) is inverted and accommodates the inner section (6; 42); wherein the inner section (6; 42) is accessible to be grasped via an open end of the outer section (8; 44).
A preparation vessel for connection with a receiving area of a base unit of a food processor driven by an electric motor, wherein the preparation vessel has a locking assembly for locking the preparation vessel with the base unit of the food processor , wherein the locking assembly has a displaceable contact element , which is arranged on the preparation vessel in such a way that it can be activated by a corresponding activating assembly of the receiving area of the food processor with the preparation vessel in a state properly connected with the base unit , so as to induce the locking of the preparation vessel by means of the locking assembly , characterized in that the locking assembly has a locking ring , which has the contact element and which is mounted on the preparation vessel so that it can rotate in peripheral direction of the preparation vessel .
A system for vertically displacing masses, comprising: (a) a drive assembly comprising at least one bi-directional rotary machine driving at least one drive pulley , said drive assembly being located at an upper level of a vertical displacement space ; (b) a plurality of cable loops connecting the drive assembly with a transfer assembly comprising at least one transfer pulley , said transfer assembly being located at a lower level of said vertical displacement space , wherein said transfer assembly maintains tension in the cable loops , wherein the portion of cable of each cable loop disposed between the drive pulley and the transfer pulley defines a first portion of cable and the remaining portion of cable of each cable loop disposed between the drive pulley and the transfer pulley defines a second portion of cable ; (c) each portion of cable comprises a plurality of coupling assemblies ; (d) a plurality of masses that are attached by means of said coupling assemblies to the portions of cable to be displaced through the vertical displacement space; (e) an upper assembly for deflecting cable loops comprising a plurality of upper deflector pulleys and a lower assembly for deflecting cable loops comprising a plurality of lower deflector pulleys , wherein said assemblies for deflecting cable loops are displaceable between two positions, a first position wherein the first portion of cable is substantially centred in the vertical displacement space , and a second position wherein the second portion of cable is substantially centred in the vertical displacement space . (a) a drive assembly comprising at least one bi-directional rotary machine driving at least one drive pulley , said drive assembly being located at an upper level of a vertical displacement space ; (b) a plurality of cable loops connecting the drive assembly with a transfer assembly comprising at least one transfer pulley , said transfer assembly being located at a lower level of said vertical displacement space , wherein said transfer assembly maintains tension in the cable loops , wherein the portion of cable of each cable loop disposed between the drive pulley and the transfer pulley defines a first portion of cable and the remaining portion of cable of each cable loop disposed between the drive pulley and the transfer pulley defines a second portion of cable ; (c) each portion of cable comprises a plurality of coupling assemblies ; (d) a plurality of masses that are attached by means of said coupling assemblies to the portions of cable to be displaced through the vertical displacement space; (e) an upper assembly for deflecting cable loops comprising a plurality of upper deflector pulleys and a lower assembly for deflecting cable loops comprising a plurality of lower deflector pulleys , wherein said assemblies for deflecting cable loops are displaceable between two positions, a first position wherein the first portion of cable is substantially centred in the vertical displacement space , and a second position wherein the second portion of cable is substantially centred in the vertical displacement space .
A wiper for a container of cosmetic product, said wiper comprising a substantially tubular body comprising at least one wiping portion of which a free interior surface defines a wiping passage through which an application member can pass in a wiping direction, said wiper being characterized in that the wiping portion is made of a thermoplastic elastomer having a hardness less than 45 or 50 Shore 00.
An ultrasound apparatus comprising a therapy transducer having a treatment surface , wherein the therapy transducer comprises a plurality of electrically isolated sections , wherein each of said electrically isolated sections is a flat piezoelectric material; wherein the ultrasound apparatus also comprises a single concave acoustic lens defining a therapy aperture in the treatment surface of the therapy transducer , wherein the single concave acoustic lens comprises a plurality of sectors each having a radius of curvature, wherein each said radius of curvature is defined by a concave elliptical profile such that the major axis is aligned in the direction towards the focal point of the transducer , wherein the ultrasound apparatus also comprises an imaging aperture defined by the single concave acoustic lens and an ultrasound imaging probe axially aligned with a central axis of the therapy aperture and characterized in that each of the plurality of electrically isolated sections of the therapy transducer is coupled to one of the plurality of sectors of the single acoustic lens via an adhesive , such that in operation, the ultrasound generated in the electrically isolated sections may travel through the adhesive layer , through the acoustic lens and out of the therapy transducer to focal point of the transducer. wherein the ultrasound apparatus also comprises a single concave acoustic lens defining a therapy aperture in the treatment surface of the therapy transducer , wherein the single concave acoustic lens comprises a plurality of sectors each having a radius of curvature, wherein each said radius of curvature is defined by a concave elliptical profile such that the major axis is aligned in the direction towards the focal point of the transducer , wherein the ultrasound apparatus also comprises an imaging aperture defined by the single concave acoustic lens and an ultrasound imaging probe axially aligned with a central axis of the therapy aperture and characterized in that each of the plurality of electrically isolated sections of the therapy transducer is coupled to one of the plurality of sectors of the single acoustic lens via an adhesive , such that in operation, the ultrasound generated in the electrically isolated sections may travel through the adhesive layer , through the acoustic lens and out of the therapy transducer to focal point of the transducer.
Device for an information system of a vehicle , for establishing a communication connection with a mobile device , comprising a communication module , wherein the communication module is designed to communicate with the mobile device via a communication protocol; and a control module , designed to: control the communication module , receive information about a hardware address of the mobile device and metainformation that comprises a last usage time or a usage frequency, detect the hardware address of the mobile device via the communication module based on the information about the hardware address, initiate coupling of the mobile device with the information system based on the hardware address of the mobile device and the metainformation, and establish the communication connection with the mobile device based on the coupling. control the communication module , receive information about a hardware address of the mobile device and metainformation that comprises a last usage time or a usage frequency, detect the hardware address of the mobile device via the communication module based on the information about the hardware address, initiate coupling of the mobile device with the information system based on the hardware address of the mobile device and the metainformation, and establish the communication connection with the mobile device based on the coupling.
Method for the production of a rotationally symmetrical, notably annular permanent magnet with radially oriented magnetisation through the extrusion of a blank made of magnet material, characterised by extrusion transverse to the axis of the blank by means of transversal male moulds that deform protrusions of the blank so that the material volume forming the protrusions flows in the circumferential direction.
A tracheostomy tube comprising a shaft for providing a gas passage to the trachea, a coupling for enabling gas connection with the shaft , and a flange for securing the tube with a patient's neck, wherein the coupling is of a harder material than the shaft , the rear, machine end of the shaft is attached with the coupling by material of the shaft flowed around a retaining formation at the patient end of the coupling to form a subassembly by mechanical interlocking of the shaft with the coupling , the external surface at the rear end of the subassembly is formed with an abutment surface facing towards the forward, patient end of the tube, and the flange has an attachment portion with an abutment surface facing rearwardly, the abutment surface on the flange abutting the abutment surface on the subassembly so as to prevent forward movement of the subassembly relative to the flange .
Method for detecting deposited particles (P) on a surface of an object , comprising: irradiating a partial region (T) of the surface of the object with measurement radiation , detecting measurement radiation scattered at the irradiated partial region (T), and detecting the particles (P) on the surface of the object based on the detected measurement radiation , characterized in that , during the steps of irradiating and detecting the measurement radiation , the surface of the object is provided with an anti-reflective coating and/or with a surface structure for reducing the reflectivity (R) of the surface for the measurement radiation, wherein the particle detection limit is lowered on account of the anti-reflective coating and/or the surface structure . irradiating a partial region (T) of the surface of the object with measurement radiation , detecting measurement radiation scattered at the irradiated partial region (T), and detecting the particles (P) on the surface of the object based on the detected measurement radiation , characterized in that , during the steps of irradiating and detecting the measurement radiation , the surface of the object is provided with an anti-reflective coating and/or with a surface structure for reducing the reflectivity (R) of the surface for the measurement radiation, wherein the particle detection limit is lowered on account of the anti-reflective coating and/or the surface structure .
A cover for an optical device , the cover comprising: a concave surface ; a convex surface formed on an opposite side of the cover than the concave surface; a hydrophobic coating formed on the convex surface; and an adhesive disposed on the concave surface proximate an outer perimeter of the cover and operable to attach the cover to the optical device such that a majority of a field of view of the optical device is not covered by the adhesive. a concave surface ; a convex surface formed on an opposite side of the cover than the concave surface; a hydrophobic coating formed on the convex surface; and an adhesive disposed on the concave surface proximate an outer perimeter of the cover and operable to attach the cover to the optical device such that a majority of a field of view of the optical device is not covered by the adhesive.
A DC breaker module suitable for use in a high voltage DC circuit comprising: at least a first breaker circuit enclosed within a conductive enclosure ; the enclosure being configured such that, in use, the first breaker circuit can be connected in an electrical path with a circuit external to the conductive enclosure ; characterised in that the conductive enclosure is further configured to be connected to a node of the electrical path such that, in use, the conductive enclosure is at the same voltage potential as the node of the circuit path. at least a first breaker circuit enclosed within a conductive enclosure ; the enclosure being configured such that, in use, the first breaker circuit can be connected in an electrical path with a circuit external to the conductive enclosure ; characterised in that the conductive enclosure is further configured to be connected to a node of the electrical path such that, in use, the conductive enclosure is at the same voltage potential as the node of the circuit path.
A replaceable unit for an electrophotographic image forming device , comprising: a housing having a top, a bottom, a front, and a rear positioned between a first side a second side of the housing , the housing has a reservoir for holding toner, the housing has a side-to-side dimension that runs from the first side to the second side; an electrical contact (382-385) positioned within a pocket on the first side of the housing , the pocket having an opening facing the front of the housing to permit an electrical connector of the image forming device to enter the pocket and mate with the electrical contact (382-385) when the replaceable unit is installed in the image forming device , the electrical contact (382-385) is electrically connected to processing circuitry mounted on the housing ; characterized by a first guide wall and a second guide wall each positioned outside the pocket on the first side of the housing closer to the front of the housing than the opening is to the front of the housing , the first guide wall positioned closer to the top of the housing and the second guide wall positioned closer to the bottom of the housing with a gap between the first guide wall and the second guide wall , the first and second guide walls each include an inclined surface (183-3, 184-3), the inclined surfaces (183-3, 184-3) of the first and second guide walls being outwardly angled planar surfaces with respect to an outer surface of the first side of the housing to direct electrical connector into alignment with the electrical contact (382-385) when replaceable unit is inserted in the image forming device . a housing having a top, a bottom, a front, and a rear positioned between a first side a second side of the housing , the housing has a reservoir for holding toner, the housing has a side-to-side dimension that runs from the first side to the second side; an electrical contact (382-385) positioned within a pocket on the first side of the housing , the pocket having an opening facing the front of the housing to permit an electrical connector of the image forming device to enter the pocket and mate with the electrical contact (382-385) when the replaceable unit is installed in the image forming device , the electrical contact (382-385) is electrically connected to processing circuitry mounted on the housing ; characterized by a first guide wall and a second guide wall each positioned outside the pocket on the first side of the housing closer to the front of the housing than the opening is to the front of the housing , the first guide wall positioned closer to the top of the housing and the second guide wall positioned closer to the bottom of the housing with a gap between the first guide wall and the second guide wall , the first and second guide walls each include an inclined surface (183-3, 184-3), the inclined surfaces (183-3, 184-3) of the first and second guide walls being outwardly angled planar surfaces with respect to an outer surface of the first side of the housing to direct electrical connector into alignment with the electrical contact (382-385) when replaceable unit is inserted in the image forming device .