mhurhangee/patent-ind-claim-en huggingface dataset:
An implantable cochlear device comprising a sealed flat housing enclosing an electronic circuitry; a plurality of feedthrough conductors , each feedthrough conductor comprising a proximal end part connected to the enclosed electronic circuitry and a distal end part extending from a side surface of the housing and cumulated on said side surface; a tubing that houses a plurality of wires connected to said feedthrough conductors and that is arranged on the housing ; and a longitudinal slit through the wall of the tubing through which the wires extend out of the tubing , and wherein the tubing has at least one slit substantially perpendicular to the longitudinal slit and at least one wire exits the tubing through one of the slits . a sealed flat housing enclosing an electronic circuitry; a plurality of feedthrough conductors , each feedthrough conductor comprising a proximal end part connected to the enclosed electronic circuitry and a distal end part extending from a side surface of the housing and cumulated on said side surface; a tubing that houses a plurality of wires connected to said feedthrough conductors and that is arranged on the housing ; and a longitudinal slit through the wall of the tubing through which the wires extend out of the tubing , and wherein the tubing has at least one slit substantially perpendicular to the longitudinal slit and at least one wire exits the tubing through one of the slits .
A spade connector for connecting to an electrical connection terminal , the spade connector comprising a connecting zone for connecting to an electrical wire and a base , the base comprising an orifice for the passage of a connecting means and two lateral sides extending globally along a longitudinal axis (X47) of the spade connector, the base comprising, on at least one of its lateral sides , at least one element protruding relative to the corresponding lateral side and the rest of the base , characterized in that the base comprises a first part and a second part each defining one of the lateral sides which are both comprised in a first plane (P) of the spade connector , and in that the spade connector is plastically deformable from an initial configuration, in which the first and second parts are each inclined relative to the first plane (P), to a connecting configuration for connection to the connection terminal , and in that a distance between the two lateral sides has a first value (D74i) when the spade connector is in the initial configuration that is below a second value (D74c) of that distance when the spade connector is in the connecting configuration.
Memory selector, for use in a crossbar memory architecture, having a metal-semiconductor-metal, MSM, back-to-back Schottky diode, said diode consisting of: a metal bottom electrode , a metal top electrode and an intermediate layer stack arranged in-between and in contact with the electrodes ; a bottom Schottky barrier having a bottom Schottky barrier height Φ B formed at the interface between the metal bottom electrode and the intermediate layer stack ; and a top Schottky barrier having a top Schottky barrier height Φ T formed at the interface between the metal top electrode and the intermediate layer stack , characterised in that the intermediate layer stack comprises atomic layers which comprise multiple layers of different two-dimensional, 2D, materials at the interface with at least one of the electrodes (110; 120), each atomic layer forming or modulating the respective Schottky barrier height. a metal bottom electrode , a metal top electrode and an intermediate layer stack arranged in-between and in contact with the electrodes ; a bottom Schottky barrier having a bottom Schottky barrier height Φ B formed at the interface between the metal bottom electrode and the intermediate layer stack ; and a top Schottky barrier having a top Schottky barrier height Φ T formed at the interface between the metal top electrode and the intermediate layer stack , characterised in that the intermediate layer stack comprises atomic layers which comprise multiple layers of different two-dimensional, 2D, materials at the interface with at least one of the electrodes (110; 120), each atomic layer forming or modulating the respective Schottky barrier height.
A plug blank insertion assembly for inserting a plug blank into a stud orifice of a horseshoe, said plug insertion assembly comprising: means for guiding movement of the plug blank; characterized in that the plug blank insertion assembly further comprises: means for moving the plug blank via the guiding means towards and out of a plug blank dispensing end of the plug insertion assembly so the plug blank is dispensed from the plug insertion assembly into the stud orifice of a horseshoe, wherein the plug insertion assembly has actuation means . means for guiding movement of the plug blank; characterized in that the plug blank insertion assembly further comprises: means for moving the plug blank via the guiding means towards and out of a plug blank dispensing end of the plug insertion assembly so the plug blank is dispensed from the plug insertion assembly into the stud orifice of a horseshoe, wherein the plug insertion assembly has actuation means .
A material comprising a transparent substrate coated on one face with a stack of thin layers successively comprising, starting from said face, an alternation of three silver-based functional metal layers denoted, starting from the substrate, first, second and third functional layers respectively Ag1, Ag2 and Ag3, and of four dielectric coatings denoted, starting from the substrate, M1, M2, M3 and M4, with optical thicknesses respectively To1, To2, To3 and To4, each dielectric coating comprising a dielectric layer or a dielectric assembly of layers, so that each functional metal layer is positioned between two dielectric coatings, said material being characterized in that : - the geometrical thickness of the second functional layer Ag2 is less than the thickness of the first functional layer Ag1, - the geometrical thickness of the second functional layer Ag2 is less than the thickness of the third functional layer Ag3, - the dielectric coating M2 exhibits a lower optical thickness To2 than the optical thicknesses To1, To3 and To4 respectively of the dielectric coatings M1, M3 and M4. - the geometrical thickness of the second functional layer Ag2 is less than the thickness of the first functional layer Ag1, - the geometrical thickness of the second functional layer Ag2 is less than the thickness of the third functional layer Ag3, - the dielectric coating M2 exhibits a lower optical thickness To2 than the optical thicknesses To1, To3 and To4 respectively of the dielectric coatings M1, M3 and M4.
Apparatus for data processing comprising: processing circuitry to perform data processing operations in response to data processing instructions, to determine whether an error memory barrier condition exists and to perform an error memory barrier procedure in dependence on whether the error memory barrier condition exists, the error memory barrier condition indicating that the error memory barrier procedure will be carried out in response to an error exception condition, wherein the processing circuitry is capable of setting the error exception condition in a first register location upon detection that a data processing operation has not been successful, wherein the error memory barrier procedure comprises, when the error exception condition is set and when an error mask condition is set: setting a deferred error exception condition in a second register location, the deferred error exception condition indicating that an error response has been deferred; and clearing the error exception condition in the first register location, and wherein the processing circuitry is capable of determining that the error memory barrier condition exists in response to an error memory barrier instruction in the data processing instructions. processing circuitry to perform data processing operations in response to data processing instructions, to determine whether an error memory barrier condition exists and to perform an error memory barrier procedure in dependence on whether the error memory barrier condition exists, the error memory barrier condition indicating that the error memory barrier procedure will be carried out in response to an error exception condition, wherein the processing circuitry is capable of setting the error exception condition in a first register location upon detection that a data processing operation has not been successful, wherein the error memory barrier procedure comprises, when the error exception condition is set and when an error mask condition is set: setting a deferred error exception condition in a second register location, the deferred error exception condition indicating that an error response has been deferred; and clearing the error exception condition in the first register location, and setting a deferred error exception condition in a second register location, the deferred error exception condition indicating that an error response has been deferred; and clearing the error exception condition in the first register location, and wherein the processing circuitry is capable of determining that the error memory barrier condition exists in response to an error memory barrier instruction in the data processing instructions.
An automated aerial vehicle , comprising: a frame ; a motor coupled to the frame; a propeller coupled to and rotated by the motor; a detection component configured to detect an object entering a safety perimeter of the propeller ; a stopping member configured to stop the propeller ; a control system configured to determine a position of the automated aerial vehicle and select a safety profile, based on the determined position, which defines an action including stopping the propeller or a set of actions including stopping the propeller by controlling the stopping member, that are to be automatically performed in response to detecting an object entering the safety perimeter , wherein the safety perimeter is a defined distance surrounding the propeller, further wherein the distance is defined depending on the selected safety profile. a frame ; a motor coupled to the frame; a propeller coupled to and rotated by the motor; a detection component configured to detect an object entering a safety perimeter of the propeller ; a stopping member configured to stop the propeller ; a control system configured to determine a position of the automated aerial vehicle and select a safety profile, based on the determined position, which defines an action including stopping the propeller or a set of actions including stopping the propeller by controlling the stopping member, that are to be automatically performed in response to detecting an object entering the safety perimeter , wherein the safety perimeter is a defined distance surrounding the propeller, further wherein the distance is defined depending on the selected safety profile.
A method for producing a purified supernatant comprising an antibody, which comprises the steps of: (a) preparing a composition comprising an antibody in such a state that the composition comprises an anionic polymer at pH of 3.5 to 5.0 that is lower than the pI of the antibody; and (b) removing an impurity precipitated by the anionic polymer from the composition, wherein the pI of the antibody is 5.0 to 7.0, and wherein the anionic polymer is polyvinylsulfonic acid (PVS), polyacrylic acid (PAA), or polystyrenesulfonic acid (PSS). (a) preparing a composition comprising an antibody in such a state that the composition comprises an anionic polymer at pH of 3.5 to 5.0 that is lower than the pI of the antibody; and (b) removing an impurity precipitated by the anionic polymer from the composition, wherein the pI of the antibody is 5.0 to 7.0, and wherein the anionic polymer is polyvinylsulfonic acid (PVS), polyacrylic acid (PAA), or polystyrenesulfonic acid (PSS).
A positive airway pressure system, comprising: a controllable flow generator operable to provide breathable gas at a first pressure; wherein said first pressure is above atmospheric pressure; a gas delivery tube coupled to said controllable flow generator ; a controllable oxygen concentrator device operable to provide oxygen-enriched gas; wherein said controllable oxygen concentrator device comprises at least one user-replaceable sieve cartridge comprising less than about 50 g adsorbent; an enriched gas delivery tube coupled to said controllable oxygen concentrator device and connected to said controllable flow generator ; a patient mask coupled to said gas delivery tube to receive breathable gas from said flow generator and to provide said gas, at a treatment pressure, to an airway of a patient; a controller operable to receive an input signal and to control the magnitude of said treatment pressure provided by said flow generator ; and a finger oximetry sensor configured to communicate oxygen levels to a software program where the oxygen levels are evaluated for blood oxygen levels.. a controllable flow generator operable to provide breathable gas at a first pressure; wherein said first pressure is above atmospheric pressure; a gas delivery tube coupled to said controllable flow generator ; a controllable oxygen concentrator device operable to provide oxygen-enriched gas; wherein said controllable oxygen concentrator device comprises at least one user-replaceable sieve cartridge comprising less than about 50 g adsorbent; an enriched gas delivery tube coupled to said controllable oxygen concentrator device and connected to said controllable flow generator ; a patient mask coupled to said gas delivery tube to receive breathable gas from said flow generator and to provide said gas, at a treatment pressure, to an airway of a patient; a controller operable to receive an input signal and to control the magnitude of said treatment pressure provided by said flow generator ; and a finger oximetry sensor configured to communicate oxygen levels to a software program where the oxygen levels are evaluated for blood oxygen levels..
A handheld scanner system for obtaining sizing of an irregularly shaped object , the system comprising: a housing , an optical module including at least one 3D optical sensor configured to generate a 3D point cloud data representing (A) a surface of at least one item covering at least a first portion of the irregularly shaped object and (B) a surface of a second portion of the irregularly shaped object's surface; a radar module including at least one radar sensor configured to generate radar data used to sense a spacing between the housing and at least a surface of the first portion of the irregularly shaped object which is covered by the at least one item; and a processor which receives the 3D point cloud data from the optical module and the radar data from the radar module, uses the 3D point cloud data representing (A) to limit a radar algorithm's range information solution computed from the radar data to an area near the at least one item covering the irregularly shaped object, and creates a map representing dimensions of the irregularly shaped object's body based on the 3D point cloud data and the limited range solution, wherein the processor maintains a state vector with respect to a fixed coordinate reference frame and with respect to the irregularly shaped object's body, the state vector comprising information specifying an orientation, translation and rotation of the handheld scanner system; and wherein the range information is updated using the state vector and known physical offsets of antenna elements with respect to a center of gravity of the handheld scanner system. a housing , an optical module including at least one 3D optical sensor configured to generate a 3D point cloud data representing (A) a surface of at least one item covering at least a first portion of the irregularly shaped object and (B) a surface of a second portion of the irregularly shaped object's surface; a radar module including at least one radar sensor configured to generate radar data used to sense a spacing between the housing and at least a surface of the first portion of the irregularly shaped object which is covered by the at least one item; and a processor which receives the 3D point cloud data from the optical module and the radar data from the radar module, uses the 3D point cloud data representing (A) to limit a radar algorithm's range information solution computed from the radar data to an area near the at least one item covering the irregularly shaped object, and creates a map representing dimensions of the irregularly shaped object's body based on the 3D point cloud data and the limited range solution, wherein the processor maintains a state vector with respect to a fixed coordinate reference frame and with respect to the irregularly shaped object's body, the state vector comprising information specifying an orientation, translation and rotation of the handheld scanner system; and wherein the range information is updated using the state vector and known physical offsets of antenna elements with respect to a center of gravity of the handheld scanner system.
A method of twisting a pair of wires, comprising the steps of: a) arranging a first wire and a second wire along a longitudinal axis; b) disposing ends of the first and second wires being terminated by electrical terminals within terminal cavities of connector bodies ; the method being characterized in that it further comprises the steps of: c) securing the connector bodies ; d) gripping central portions of the first and second wires ; e) applying a lateral offsetting force to the first and second wires by deflecting the central portions of the first and second wires orthogonally from the longitudinal axis; and f) rotating the central portions of the first and second wires , thereby twisting the first and second wires about one another, wherein step e) is performed prior to step f). a) arranging a first wire and a second wire along a longitudinal axis; b) disposing ends of the first and second wires being terminated by electrical terminals within terminal cavities of connector bodies ; c) securing the connector bodies ; d) gripping central portions of the first and second wires ; e) applying a lateral offsetting force to the first and second wires by deflecting the central portions of the first and second wires orthogonally from the longitudinal axis; and f) rotating the central portions of the first and second wires , thereby twisting the first and second wires about one another,
A housing for containing and supporting a filter cartridge including a filter element housed in a bag , an inlet fitting projecting from the bag for receiving inlet fluid to be filtered by the filter element , the housing comprising: a support housing portion having an open end ; and a lid portion configured to selectively close the open end of the support housing ; an inlet aperture in the lid portion 214, 404) configured to receive and maintain in position the inlet fitting of the filter cartridge ; characterized in that the lid portion includes a split lid including at least two portions (226, 228; 406, 408), the two portions being dividable and being configured to be placed in an assembled configuration; wherein in the assembled configuration the two portions together define the inlet aperture at their juncture . a support housing portion having an open end ; and a lid portion configured to selectively close the open end of the support housing ; an inlet aperture in the lid portion 214, 404) configured to receive and maintain in position the inlet fitting of the filter cartridge ; characterized in that the lid portion includes a split lid including at least two portions (226, 228; 406, 408), the two portions being dividable and being configured to be placed in an assembled configuration; wherein in the assembled configuration the two portions together define the inlet aperture at their juncture .
A work assist server for assisting remote operation of a work machine by an operator using a remote operation device , the work assist server comprising: a first assist processing element that causes an output interface of the remote operation device to output, based on communication with the remote operation device , a work-site bird's-eye image according to an image captured at a worksite acquired through an image pickup device (C), determines a real spatial position of a connection-target work machine, which is the work machine to be subject to operation through the remote operation device , and when a work machine is in the work-site bird's-eye image, determines whether or not the work machine is the connection-target work machine based on the position of the work machine in an image coordinate system and the real spatial position of the connection-target work machine; and a second assist processing element that causes the output interface of the remote operation device to output, based on communication with the remote operation device , a first sign image showing that the work machine in the work-site bird's-eye image is the connection-target work machine when the first assist processing element determines that the work machine is the connection-target work machine. a first assist processing element that causes an output interface of the remote operation device to output, based on communication with the remote operation device , a work-site bird's-eye image according to an image captured at a worksite acquired through an image pickup device (C), determines a real spatial position of a connection-target work machine, which is the work machine to be subject to operation through the remote operation device , and when a work machine is in the work-site bird's-eye image, determines whether or not the work machine is the connection-target work machine based on the position of the work machine in an image coordinate system and the real spatial position of the connection-target work machine; and a second assist processing element that causes the output interface of the remote operation device to output, based on communication with the remote operation device , a first sign image showing that the work machine in the work-site bird's-eye image is the connection-target work machine when the first assist processing element determines that the work machine is the connection-target work machine.
Apparatus for preparing and dispensing food products, comprising at least one containment tank predisposed to contain a product to be prepared and dispensed; a base body having a prismatic shape, on which said containment tank is mounted; a mixing device arranged inside said tank and predisposed to cause a continuous circulation of said product inside said tank , to convey said product towards a front zone of said tank ; a dispenser device of the product, placed at said front zone of said containment tank , characterized in that said base body is closed at the front by a panel of transparent or opaque material, which fits the whole front surface of said base body and is backlit by lighting means ; wherein said panel extends between a lower edge of said front surface of said base body and an upper edge of said front surface of said base body ; said lower edge of said front surface of said base body being placed at a support base which frontally protrudes from said body and on which, in use, a container is placed to receive the dispensed product, below said dispensing device .