mhurhangee/ep-ind-claims huggingface dataset:
A finger lancing device comprising: a body having a chamber for receiving a finger; and a lancing device comprising a lancing member actuator for actuating a lancing member to lance a finger received in the chamber, wherein the body is flexible and made from an elastomeric material. a body having a chamber for receiving a finger; and a lancing device comprising a lancing member actuator for actuating a lancing member to lance a finger received in the chamber, wherein the body is flexible and made from an elastomeric material.
A medical device for electrical stimulation, the medical device comprising: an electric circuitry configured to perform active charge compensation, said electric circuitry being connectable to at least one electrode arrangement for electrical stimulation, wherein the electric circuitry includes: monitoring means configured to monitor at least one voltage associated with a stimulation network (108, 116); at least one variable resistive element (206, 208, 1300) configured to provide a voltage drop used in the active charge compensation; and adjustment means configured to dynamically adjust a resistance value of the at least one variable resistive element (206, 208, 1300) during the active charge compensation based on the at least monitored voltage, wherein the adjustment means is a finite state machine for neurostimulation. an electric circuitry configured to perform active charge compensation, said electric circuitry being connectable to at least one electrode arrangement for electrical stimulation, wherein the electric circuitry includes: monitoring means configured to monitor at least one voltage associated with a stimulation network (108, 116); at least one variable resistive element (206, 208, 1300) configured to provide a voltage drop used in the active charge compensation; and adjustment means configured to dynamically adjust a resistance value of the at least one variable resistive element (206, 208, 1300) during the active charge compensation based on the at least monitored voltage, wherein the adjustment means is a finite state machine for neurostimulation. monitoring means configured to monitor at least one voltage associated with a stimulation network (108, 116); at least one variable resistive element (206, 208, 1300) configured to provide a voltage drop used in the active charge compensation; and adjustment means configured to dynamically adjust a resistance value of the at least one variable resistive element (206, 208, 1300) during the active charge compensation based on the at least monitored voltage, wherein the adjustment means is a finite state machine for neurostimulation.
A high-precision sphere size measuring device comprising: a sphere size measuring unit configured to measure each diameter parameter (d1, d2) of a standard sphere and an object sphere that is in a course of processing by a sphere polishing device configured to process spheres; and a size difference calculation unit configured to obtain, as a size difference between the diameter of the object sphere and the diameter of the standard sphere, a difference between the diameter parameter of the object sphere and the diameter parameter of the standard sphere both measured by the sphere size measuring unit, characterized by a determination unit configured to compare the size difference with a threshold value so as to determine whether or not the diameter of the object sphere reaches a target value, wherein the high-precision sphere size measuring device is mounted on the sphere polishing device, wherein the diameter parameter (d1, d2) is obtained by adding a certain fixed value to each diameter, wherein the sphere size measuring unit includes a washing part configured to wash, with washing oil, the object sphere before the measurement, and wherein in use the sphere size measuring unit measures the object sphere and the standard sphere in the washing oil so as to measure the object sphere and the standard sphere under a same environment and to prevent measurement accuracy from being affected by expansion or contraction of the spheres. a sphere size measuring unit configured to measure each diameter parameter (d1, d2) of a standard sphere and an object sphere that is in a course of processing by a sphere polishing device configured to process spheres; and a size difference calculation unit configured to obtain, as a size difference between the diameter of the object sphere and the diameter of the standard sphere, a difference between the diameter parameter of the object sphere and the diameter parameter of the standard sphere both measured by the sphere size measuring unit, characterized by a determination unit configured to compare the size difference with a threshold value so as to determine whether or not the diameter of the object sphere reaches a target value, wherein the high-precision sphere size measuring device is mounted on the sphere polishing device, wherein the diameter parameter (d1, d2) is obtained by adding a certain fixed value to each diameter, wherein the sphere size measuring unit includes a washing part configured to wash, with washing oil, the object sphere before the measurement, and wherein in use the sphere size measuring unit measures the object sphere and the standard sphere in the washing oil so as to measure the object sphere and the standard sphere under a same environment and to prevent measurement accuracy from being affected by expansion or contraction of the spheres.
A system for laser thermal conjunctivoplasty, comprising: a handheld laser probe for laser thermal conjunctivoplasty, a laser light source and an optical fiber to deliver laser light to the handheld laser probe; a control system coupled to the laser light source; the system being characterised by the handheld laser probe comprising: a pair of forceps including tips for grasping a conjunctival fold, the tips angled between 30° and 90° relative to a long axis of a body of the pair of forceps; a housing including a lens holder containing a cylindrical lens to focus the laser light into a line of laser light with a length of between 5-20 mm and a width between 0.5-2 mm, connecting struts that mechanically couple the pair of forceps to the lens holder, and a fiber adapter that couples the optical fiber to the housing; wherein the line of laser light is configured to uniformly heat the conjunctival fold held in the forceps to a temperature between 55°C and 80°C to impart collagen shrinkage but not cellular or vascular rupture. a handheld laser probe for laser thermal conjunctivoplasty, a laser light source and an optical fiber to deliver laser light to the handheld laser probe; a control system coupled to the laser light source; the system being characterised by the handheld laser probe comprising: a pair of forceps including tips for grasping a conjunctival fold, the tips angled between 30° and 90° relative to a long axis of a body of the pair of forceps; a housing including a lens holder containing a cylindrical lens to focus the laser light into a line of laser light with a length of between 5-20 mm and a width between 0.5-2 mm, connecting struts that mechanically couple the pair of forceps to the lens holder, and a fiber adapter that couples the optical fiber to the housing; wherein the line of laser light is configured to uniformly heat the conjunctival fold held in the forceps to a temperature between 55°C and 80°C to impart collagen shrinkage but not cellular or vascular rupture. a pair of forceps including tips for grasping a conjunctival fold, the tips angled between 30° and 90° relative to a long axis of a body of the pair of forceps; a housing including a lens holder containing a cylindrical lens to focus the laser light into a line of laser light with a length of between 5-20 mm and a width between 0.5-2 mm, connecting struts that mechanically couple the pair of forceps to the lens holder, and a fiber adapter that couples the optical fiber to the housing; wherein the line of laser light is configured to uniformly heat the conjunctival fold held in the forceps to a temperature between 55°C and 80°C to impart collagen shrinkage but not cellular or vascular rupture.
A hoist security arrangement for a hoist characterised in having a wrappable main lift element raised or lowered by rotation of a drive member (28, 34) around which said main lift element is at least partially wrapped to lift a load attached to said element, said security arrangement including the addition of a security wrappable lift element also at least partially wrapped around said drive member (28, 34) and extending alongside said main lift element and raised or lowered therewith, and also attached to said load but of a slightly longer length than said shorter main lift element extending between said drive member (28, 34) and said load to remain slack and so as to normally not be tensioned by the weight of said load, whereby if said main lift element breaks said security lift element thereafter immediately begins to support said load.
A method for determining a to-be-uploaded network service descriptor, NSD, performed by an NS pool comprising: receiving a request message, wherein the request message is used to request to obtain NSD information; searching, according to an NSD feature parameter carried in the request message, stored NSDs for NSD information that meets the NSD feature parameter; sending the found NSD information to a transmit end of the request message, so that the transmit end determines a to-be-uploaded NSD according to the found NSD information; wherein the NSD information is NSD description information or an NSD; and after the sending the found NSD information to a transmit end of the request message, the method further comprises: receiving an upload confirmation message, comprising a first NSD information, that is sent by the transmit end and that is used to confirm uploading of an NSD corresponding to the first NSD information, wherein the first NSD information is one piece of information in the found NSD information; and uploading the NSD corresponding to the first NSD information to a Network Function Virtualization Orchestrator, NFVO. receiving a request message, wherein the request message is used to request to obtain NSD information; searching, according to an NSD feature parameter carried in the request message, stored NSDs for NSD information that meets the NSD feature parameter; sending the found NSD information to a transmit end of the request message, so that the transmit end determines a to-be-uploaded NSD according to the found NSD information; wherein the NSD information is NSD description information or an NSD; and after the sending the found NSD information to a transmit end of the request message, the method further comprises: receiving an upload confirmation message, comprising a first NSD information, that is sent by the transmit end and that is used to confirm uploading of an NSD corresponding to the first NSD information, wherein the first NSD information is one piece of information in the found NSD information; and uploading the NSD corresponding to the first NSD information to a Network Function Virtualization Orchestrator, NFVO. receiving an upload confirmation message, comprising a first NSD information, that is sent by the transmit end and that is used to confirm uploading of an NSD corresponding to the first NSD information, wherein the first NSD information is one piece of information in the found NSD information; and uploading the NSD corresponding to the first NSD information to a Network Function Virtualization Orchestrator, NFVO.
A kit for setting a position of a robotic arm system along a longitudinal axis of a cannula ( 201 or 1010) inserted to a body orifice, wherein the robotic arm system comprises a motor unit and at least one robotic arm extending, when positioned, distally from the motor unit along the longitudinal axis, the motor unit and the at least one robotic arm extending distally from the motor unit to a predetermined distance from a stopper-receiving portion of the motor unit; the kit comprising: the cannula ( 201 or 1010), including a cannula body configured for insertion to the body orifice; a mounting block, configured for attachment to the cannula; and an assembly attached to the mounting block and comprising a spacing arm and an aligning arm, and movable between a stowed position and a deployed position; wherein the deployed position of the assembly places elements of the aligning arm where they indicate a predetermined position along the longitudinal axis; wherein a distal end of the at least one robotic arm aligns with a distal end of the cannula when the at least one robotic arm is inserted to the cannula, and a stopper portion of the aligning arm contacts the stopper-receiving portion of the motor unit to prevent longitudinal advance of the motor unit; and wherein the spacing arm and the aligning arm 1030 deploy by hinging around a plurality of stopped hinges ( 1022, 1028), each stopped hinge defining at least a stopped deployed position, and a stopped stowed position. the cannula ( 201 or 1010), including a cannula body configured for insertion to the body orifice; a mounting block, configured for attachment to the cannula; and an assembly attached to the mounting block and comprising a spacing arm and an aligning arm, and movable between a stowed position and a deployed position; wherein the deployed position of the assembly places elements of the aligning arm where they indicate a predetermined position along the longitudinal axis; wherein a distal end of the at least one robotic arm aligns with a distal end of the cannula when the at least one robotic arm is inserted to the cannula, and a stopper portion of the aligning arm contacts the stopper-receiving portion of the motor unit to prevent longitudinal advance of the motor unit; and wherein the spacing arm and the aligning arm 1030 deploy by hinging around a plurality of stopped hinges ( 1022, 1028), each stopped hinge defining at least a stopped deployed position, and a stopped stowed position.
Magnetic field generator for a magnetocaloric thermal appliance, said magnetic field generator including at least one magnetising structure creating a constant magnetic field in at least one air gap (13, 23), said magnetising structure containing a first and a second magnetic poles arranged facing each other on each side of a symmetry plane and each made up of an assembly of permanent magnets (7, 8) and of a ferromagnetic element, magnetic field generator in which said ferromagnetic element presents one face protruding with reference to the assembly forming said magnetic pole (5, 6) and the two ferromagnetic elements of said magnetising structure are arranged face to face with a distance forming the said at least one air gap (13, 23) of said magnetising structure, generator characterised in that a magnet or a ferromagnetic part is placed in the plane, between said first and second magnetic poles and forms an air gap (13, 23) with each of the two corresponding faces of the ferromagnetic elements of said first and second magnetic poles.
A computerized system for using camera information to calibrate one or more inference models (114, 210, 1110) used to generate a musculoskeletal representation, the system (100, 200,1100) comprising: at least one camera (204, 1060, 1103) configured to capture at least one image; a plurality of neuromuscular sensors (110, 207, 1040, 1102, 1204, 1310) configured to sense and record a plurality of neuromuscular signals from a user, wherein the plurality of neuromuscular sensors are arranged on one or more wearable devices (1200, 1320, 1410) structured to be worn by the user to obtain the plurality of neuromuscular signals; and at least one computer processor (112, 205, 1434) programmed to: calibrate one or more inference models by updating at least one parameter associated with the one or more inference models based, at least in part, on the plurality of neuromuscular signals and the at least one image; characterized in that the system further comprises an extended reality system that generates an XR environment and displays a visual representation, wherein the at least one computer processor is further programmed to: detect, based at least in part on the at least one image, whether a gesture performed by the user matches a particular gesture; and if the gesture performed by the user is detected to match the particular gesture, update the one or more inference models to incorporate neuromuscular data corresponding to the gesture performed by the user. at least one camera (204, 1060, 1103) configured to capture at least one image; a plurality of neuromuscular sensors (110, 207, 1040, 1102, 1204, 1310) configured to sense and record a plurality of neuromuscular signals from a user, wherein the plurality of neuromuscular sensors are arranged on one or more wearable devices (1200, 1320, 1410) structured to be worn by the user to obtain the plurality of neuromuscular signals; and at least one computer processor (112, 205, 1434) programmed to: calibrate one or more inference models by updating at least one parameter associated with the one or more inference models based, at least in part, on the plurality of neuromuscular signals and the at least one image; detect, based at least in part on the at least one image, whether a gesture performed by the user matches a particular gesture; and if the gesture performed by the user is detected to match the particular gesture, update the one or more inference models to incorporate neuromuscular data corresponding to the gesture performed by the user.
A window, door or the like, in particular residential skylight, comprising at least one displaceable wing, which, on at least one side, has a seal for sealing against a blind frame of the window, the door or the like, characterized in that the seal is embodied as at least partially circumferential seal and is held on the wing in a self-displaceable manner in the direction of the longitudinal extension thereof such that, in response to the application of a force, which acts in longitudinal direction, the position of said seal changes, thus displaces in the direction of the longitudinal extension thereof.
A protector with a sensor comprising: an installation base member operatively coupled on a peripheral edge of an opening or closing object for opening or closing an opening of an automobile body, the opening or closing object including a door or a sun roof of an automobile, or on a peripheral edge of said opening; and a hollow part integrally molded with the installation base member, the hollow part having two core wires (31, 32) and a space provided therein, the space being positioned between the two core wires (31, 32), in which: when an alien substance caught between said opening or closing object and said opening presses and crushes said hollow part while closing said opening or closing object, a corresponding change in electric signal detects said alien substance; in a terminal part, said core wires (31, 32) drawn out in a longitudinal direction are connected with leads, said leads being joined with a control unit or an electrical component, and one end side of an insert made of a non-conductive material is inserted in and fills up said space, and said terminal part is die molded, and: materials of said insert and said die molding material have compatibility with each other, characterized in that said insert is made of a flexible material, has channels (55, 58, 65) formed thereon for storing wire connection parts of said core wires (31, 32) and the leads and encloses the wire connection parts. when an alien substance caught between said opening or closing object and said opening presses and crushes said hollow part while closing said opening or closing object, a corresponding change in electric signal detects said alien substance; in a terminal part, said core wires (31, 32) drawn out in a longitudinal direction are connected with leads, said leads being joined with a control unit or an electrical component, and one end side of an insert made of a non-conductive material is inserted in and fills up said space, and said terminal part is die molded, and: materials of said insert and said die molding material have compatibility with each other, materials of said insert and said die molding material have compatibility with each other,
Measuring device, in particular a sensor, such as a pressure sensor, position sensor, turbidity sensor or the like, with a housing, and with a signal generator and/or signal receiver contained inside the housing, whereby the housing is in the form of a kind of double housing comprising an inner casing and an outer casing so that the current and/or voltage-carrying parts of the signal generator and/or the signal receiver and/or the other current and/or voltage-carrying parts are electrically doubly insulated with respect to the exterior of the housing by means of two housing walls (7, 8), whereby the two housing walls (7, 8) are made of thermoplastic resin, and whereby the two housing walls (7, 8) are produced in a two-component injection moulding process, characterised in that the plastic of the inner casing is not firmly bonded with the plastic of the outer casing during the encapsulation, and whereby the outer casing has an undercut to enable the inner casing to be fixed in the outer casing.
A slice selection method, characterized by comprising: receiving, by a terminal device, deployment-related slice information, wherein the deployment-related slice information comprises slice identification and slice deployment location information; and selecting, by the terminal device, a slice based on the deployment-related slice information; wherein the receiving, by the terminal device, the deployment-related slice information comprises: receiving, by the terminal device, first indication information from a network device, wherein the first indication information comprises the deployment-related slice information; the selecting, by the terminal device, the slice based on the deployment-related slice information comprises: based on a current location and the slice deployment location information, selecting a slice that can be accessed, and determining, based on the selected slice, at least one of: whether to report a required slice, whether a first cell can be selected as a resident cell or a suitable cell, and whether to perform cell reselection. receiving, by a terminal device, deployment-related slice information, wherein the deployment-related slice information comprises slice identification and slice deployment location information; and selecting, by the terminal device, a slice based on the deployment-related slice information; wherein the receiving, by the terminal device, the deployment-related slice information comprises: receiving, by the terminal device, first indication information from a network device, wherein the first indication information comprises the deployment-related slice information; the selecting, by the terminal device, the slice based on the deployment-related slice information comprises: based on a current location and the slice deployment location information, selecting a slice that can be accessed, and determining, based on the selected slice, at least one of: whether to report a required slice, whether a first cell can be selected as a resident cell or a suitable cell, and whether to perform cell reselection. receiving, by the terminal device, first indication information from a network device, wherein the first indication information comprises the deployment-related slice information; the selecting, by the terminal device, the slice based on the deployment-related slice information comprises: based on a current location and the slice deployment location information, selecting a slice that can be accessed, and determining, based on the selected slice, at least one of: whether to report a required slice, whether a first cell can be selected as a resident cell or a suitable cell, and whether to perform cell reselection.