mhurhangee/patent-ind-claim-en huggingface dataset:
A method of sorting a plurality of electrophysiological signals measured by a respective plurality of electrodes carried by a plurality of splines of a multi-dimensional catheter , the method comprising: determining , via an electroanatomical mapping system, an orientation of the multidimensional catheter relative to a direction of interest (Θ), wherein the direction of interest comprises a cardiac activation wavefront direction; computing a rotation matrix (R) representing the orientation of the multidimensional catheter relative to the direction of interest (Θ); applying the rotation matrix (R) to nominal positions of the respective plurality of electrodes to compute rotated coordinates for the electrodes ; sorting , via the electroanatomical mapping system, the plurality of electrophysiological signals using the rotated electrode coordinates, wherein the sorting is the order in which the cardiac activation wavefront passes through the plurality of electrodes , wherein the plurality of electrophysiological signals represent a plurality of electrogram traces; and outputting the sorted plurality of electrogram traces. determining , via an electroanatomical mapping system, an orientation of the multidimensional catheter relative to a direction of interest (Θ), wherein the direction of interest comprises a cardiac activation wavefront direction; computing a rotation matrix (R) representing the orientation of the multidimensional catheter relative to the direction of interest (Θ); applying the rotation matrix (R) to nominal positions of the respective plurality of electrodes to compute rotated coordinates for the electrodes ; sorting , via the electroanatomical mapping system, the plurality of electrophysiological signals using the rotated electrode coordinates, wherein the sorting is the order in which the cardiac activation wavefront passes through the plurality of electrodes , wherein the plurality of electrophysiological signals represent a plurality of electrogram traces; and outputting the sorted plurality of electrogram traces.
A method for manufacturing a component having a hat-shaped cross-section, the hat-shaped cross-section including a top plate , a pair of vertical walls respectively extending from both ends of the top plate toward a lower side, and a pair of flanges extending from the lower ends of the respective vertical walls , the manufacturing method comprising: a gripping process of disposing a pair of vertical walls of an elongated preliminarily formed component that has been formed into a hat-shaped cross-section profile at a width direction outer side of a punch , and gripping a top plate of the preliminarily formed component using the punch and a pad , the manufacturing method being characterized by : a bending and stretching process of, after the gripping process, moving a die provided on both width direction sides of the pad toward a punch side relative to the preliminarily formed component, and using the die to bend and stretch the vertical walls toward an opposite side to the top plate at one side in a length direction of the preliminarily formed component such that the height of the vertical walls at the one side in the length direction of the preliminarily formed component is changed so as to become higher; and a bend back process of, after the gripping process, moving a holder provided on both width direction sides of the punch toward a pad side relative to the preliminarily formed component , and using the holder to bend back the vertical walls toward a top plate side at another side in the length direction of the preliminarily formed component such that the height of the vertical walls at another side in the length direction of the preliminarily formed component is changed so as to become lower. a bending and stretching process of, after the gripping process, moving a die provided on both width direction sides of the pad toward a punch side relative to the preliminarily formed component, and using the die to bend and stretch the vertical walls toward an opposite side to the top plate at one side in a length direction of the preliminarily formed component such that the height of the vertical walls at the one side in the length direction of the preliminarily formed component is changed so as to become higher; and a bend back process of, after the gripping process, moving a holder provided on both width direction sides of the punch toward a pad side relative to the preliminarily formed component , and using the holder to bend back the vertical walls toward a top plate side at another side in the length direction of the preliminarily formed component such that the height of the vertical walls at another side in the length direction of the preliminarily formed component is changed so as to become lower.
A washing machine comprising a detergent dispenser , wherein the detergent dispenser comprises a drawer housed in a wall of the washing machine , and at least one container adapted to be loaded with a detergent product, wherein water is added to the container by a nozzle , characterized by the at least one container being pivotable about a pivot axis relative to the drawer , such that the container is stable in a first and in a second position, wherein the first position is an upright position (A), in which the container is upright to be loaded with the detergent product, and the second position is a tilted position (B), in which the container is tilted for discharging of the detergent product into a washing compartment of the washing machine and wherein the container has an asymmetric shape with respect to the pivot axis , such that, when filled with water to a first level, a common center of mass is shifted from one side of a pivot axis to the other, whereby the container is tilted from the upright (A) to the tilted (B) position.
A method, executed by a computer, comprising: receiving , while a display presents a virtual object being held by a virtual hand , sensor data from one or more sensors of a handheld controller ; determining , at a first time and based at least in part on the sensor data, that the virtual hand is to release the virtual object; determining a predetermined time range prior to the first time; determining , at least partly in response to determining that the virtual hand is to release the virtual object, a peak velocity of the handheld controller within the predetermined time range, wherein the peak velocity comprises a highest velocity within the predetermined time range; determining that the peak velocity within the predetermined time range occurred at a second time prior to the first time; determining at least one of a speed of the handheld controller at the second time, a direction of the handheld controller at the second time, a position of the handheld controller at the second time, or a rotational velocity of virtual object at the second time; and presenting , on the display, the virtual hand releasing the virtual object based at least in part on the at least one of the speed of the handheld controller at the second time, the direction of the handheld controller at the second time, the position of the handheld controller at the second time, or the rotational velocity of the virtual object at the second time. receiving , while a display presents a virtual object being held by a virtual hand , sensor data from one or more sensors of a handheld controller ; determining , at a first time and based at least in part on the sensor data, that the virtual hand is to release the virtual object; determining a predetermined time range prior to the first time; determining , at least partly in response to determining that the virtual hand is to release the virtual object, a peak velocity of the handheld controller within the predetermined time range, wherein the peak velocity comprises a highest velocity within the predetermined time range; determining that the peak velocity within the predetermined time range occurred at a second time prior to the first time; determining at least one of a speed of the handheld controller at the second time, a direction of the handheld controller at the second time, a position of the handheld controller at the second time, or a rotational velocity of virtual object at the second time; and presenting , on the display, the virtual hand releasing the virtual object based at least in part on the at least one of the speed of the handheld controller at the second time, the direction of the handheld controller at the second time, the position of the handheld controller at the second time, or the rotational velocity of the virtual object at the second time.
A sealing assembly for an input shaft , comprising: a support structure ; a bearing assembly having an outer race coupled to the support structure, an inner race coupleable to the input shaft, and a plurality of rolling elements positioned between the outer race and the inner race; and an input seal including: an input seal housing affixed to the support structure, the input seal housing having a first portion and a second portion , the first portion being arranged in contact with an adjacent surface of the support structure and a distal end of the first portion being arranged in direct contact with a side surface of the bearing assembly; and a face plate positioned adjacent the second portion , the face plate being configured to directly contact the input shaft ; characterized by : at least one face plate anti-rotation pin coupled to the input seal housing arranged within a clearance between the first portion and the second portion , wherein the face plate anti-rotation pin is disposed adjacent to and in direct contact with a side surface of the bearing assembly , or the face plate anti-rotation pin directly contacts the clearance between the inner and outer races . a support structure ; a bearing assembly having an outer race coupled to the support structure, an inner race coupleable to the input shaft, and a plurality of rolling elements positioned between the outer race and the inner race; and an input seal including: an input seal housing affixed to the support structure, the input seal housing having a first portion and a second portion , the first portion being arranged in contact with an adjacent surface of the support structure and a distal end of the first portion being arranged in direct contact with a side surface of the bearing assembly; and a face plate positioned adjacent the second portion , the face plate being configured to directly contact the input shaft ; an input seal housing affixed to the support structure, the input seal housing having a first portion and a second portion , the first portion being arranged in contact with an adjacent surface of the support structure and a distal end of the first portion being arranged in direct contact with a side surface of the bearing assembly; and a face plate positioned adjacent the second portion , the face plate being configured to directly contact the input shaft ; characterized by : at least one face plate anti-rotation pin coupled to the input seal housing arranged within a clearance between the first portion and the second portion , wherein the face plate anti-rotation pin is disposed adjacent to and in direct contact with a side surface of the bearing assembly , or the face plate anti-rotation pin directly contacts the clearance between the inner and outer races . at least one face plate anti-rotation pin coupled to the input seal housing arranged within a clearance between the first portion and the second portion , wherein the face plate anti-rotation pin is disposed adjacent to and in direct contact with a side surface of the bearing assembly , or the face plate anti-rotation pin directly contacts the clearance between the inner and outer races .
A method for forming an integrated structure comprising first and second bodies, the method comprising forming the first body (30; 50) in a rigid state and subsequently: preparing a mould (31; 53, 54) for the second body , the mould being mated to the first rigid body and the mould comprising a first, rigid zone adjacent to first precursor material for the second body and a second, flexible zone adjacent to second precursor material for the second body; applying pressure against the flexible zone to urge the second precursor material against the first body; and rigidifying the precursor material whilst the second precursor material is in contact with the first body. preparing a mould (31; 53, 54) for the second body , the mould being mated to the first rigid body and the mould comprising a first, rigid zone adjacent to first precursor material for the second body and a second, flexible zone adjacent to second precursor material for the second body; applying pressure against the flexible zone to urge the second precursor material against the first body; and rigidifying the precursor material whilst the second precursor material is in contact with the first body.
Rotating power transformer having a stationary and a rotating part, at least one of the parts comprising: - a plurality of transformer segments of metal or a plastic material attached to a body or being connected to form a body , the body having the shape of a disk, - rectangular cross sectioned E- or U soft magnetic cores (160a-160n) within the transformer segments, - at least one winding in the soft magnetic cores configured to generate a magnetic field for inductive coupling the stationary and the rotating part. - a plurality of transformer segments of metal or a plastic material attached to a body or being connected to form a body , the body having the shape of a disk, - rectangular cross sectioned E- or U soft magnetic cores (160a-160n) within the transformer segments, - at least one winding in the soft magnetic cores configured to generate a magnetic field for inductive coupling the stationary and the rotating part.
A method for controlling flight of an unmanned aerial vehicle, abbreviated UAV, said method comprising: obtaining information about a location of an object of interest ; calculating, during operation of the UAV, a flight-restricted distance for the UAV to maintain relative to the object of interest , wherein the flight-restricted distance is calculated based on a safety factor, wherein the safety factor is determined based on an object classification, wherein the object classification is indicative of a movement characteristic of the object of interest , and wherein a greater value to the safety factor results in a greater flight-restricted distance; and controlling flight of the UAV to maintain the flight-restricted distance relative to the object of interest . obtaining information about a location of an object of interest ; calculating, during operation of the UAV, a flight-restricted distance for the UAV to maintain relative to the object of interest , wherein the flight-restricted distance is calculated based on a safety factor, wherein the safety factor is determined based on an object classification, wherein the object classification is indicative of a movement characteristic of the object of interest , and wherein a greater value to the safety factor results in a greater flight-restricted distance; and controlling flight of the UAV to maintain the flight-restricted distance relative to the object of interest .
A print server comprising: a web server configured to provide a user interface over a data network , the user interface adapted to receive user preferences from a user including a subscription to a plurality of sources of a plurality of three-dimensional models, a prioritization of content from the plurality of sources, an identification of one or more three-dimensional printers coupled to the data network and suitable for fabricating objects from the plurality of three-dimensional models, build material capabilities for the one or more three-dimensional printers , and a preference for handling objects greater than a build volume of the one or more three-dimensional printers ; a database to store the user preferences, and to receive and store the plurality of three-dimensional models as they are issued by the plurality of sources ; a processor configured to select a selected one of the plurality of three-dimensional models for fabrication based upon the prioritization; and the print server is configured to communicate with the one or more three-dimensional printers through the data network , to determine an availability of the one or more three-dimensional printers , to select one of the one or more three-dimensional printers based on the user preferences, and to transmit the selected one of the plurality of three-dimensional models to the one of the one or more three-dimensional printers for fabrication. a web server configured to provide a user interface over a data network , the user interface adapted to receive user preferences from a user including a subscription to a plurality of sources of a plurality of three-dimensional models, a prioritization of content from the plurality of sources, an identification of one or more three-dimensional printers coupled to the data network and suitable for fabricating objects from the plurality of three-dimensional models, build material capabilities for the one or more three-dimensional printers , and a preference for handling objects greater than a build volume of the one or more three-dimensional printers ; a database to store the user preferences, and to receive and store the plurality of three-dimensional models as they are issued by the plurality of sources ; a processor configured to select a selected one of the plurality of three-dimensional models for fabrication based upon the prioritization; and the print server is configured to communicate with the one or more three-dimensional printers through the data network , to determine an availability of the one or more three-dimensional printers , to select one of the one or more three-dimensional printers based on the user preferences, and to transmit the selected one of the plurality of three-dimensional models to the one of the one or more three-dimensional printers for fabrication.
A cervical transfer catheter for transferring a therapeutic substance to an endocervix or other internal mucosal surfaces of a recipient, the catheter comprising: a catheter body having first and second lumens , and an inflatable balloon at a distal end of the first lumen , characterised in that a removable stent is provided containing the therapeutic substance, that is released continuously through the wall of the catheter body , the second lumen of the catheter body being adapted, in use, to allow passage and retention of the removeable stent ; and, the inflatable balloon being retained in the uterus and endocervix in its inflated condition by virtue of its shape, wherein the balloon is shaped in a concave way transversely on its superior aspect and in an anterior-posterior dimension on its superior aspect. a catheter body having first and second lumens , and an inflatable balloon at a distal end of the first lumen , characterised in that a removable stent is provided containing the therapeutic substance, that is released continuously through the wall of the catheter body , the second lumen of the catheter body being adapted, in use, to allow passage and retention of the removeable stent ; and, the inflatable balloon being retained in the uterus and endocervix in its inflated condition by virtue of its shape, wherein the balloon is shaped in a concave way transversely on its superior aspect and in an anterior-posterior dimension on its superior aspect.
A solid electrolyte membrane for an all-solid-state battery, which comprises a support member , a lithium dendrite growth-inhibiting material and a first solid electrolyte material , wherein the support member has a porous sheet including a plurality of pores and is disposed in such a manner that the support member is not exposed to a top surface, bottom surface or both surfaces of the solid electrolyte membrane, and the lithium dendrite growth-inhibiting material is incorporated to the solid electrolyte membrane by being coated on the support member or mixed with the first solid electrolyte material ; the lithium dendrite growth-inhibiting material (a) is provided in the form of (a1) a metal salt derived from a metal, (a2) a metal ion thereof, or both; the porous sheet is a porous material including a plurality of pores, and the pores are at least partially filled with a mixture of the first solid electrolyte material and the lithium dendrite growth-inhibiting material; the solid electrolyte membrane has an ion conductivity of 1.0 x 10 -7 S/cm or more and is measured as described in the specification; the metal or metal ion is Sr, Ca, Mg, Be, Al, Mn, Zn, Cr(+3), Fe, Cd, Co, Ni, Sn, Pb, Cu, Hg, Ag, Pd. Ir, Pt(+2), Au, Pt(+4), or two or more of them; the first solid electrolyte material comprises an ion conductive polymeric solid electrolyte material which is prepared by adding a polymer resin to a solvated lithium salt, and shows an ion conductivity; and the porous sheet is at least one of a polymer film including a plurality of pores, a woven web including a polymeric material, and a non-woven web including a polymeric material. wherein the support member has a porous sheet including a plurality of pores and is disposed in such a manner that the support member is not exposed to a top surface, bottom surface or both surfaces of the solid electrolyte membrane, and the lithium dendrite growth-inhibiting material is incorporated to the solid electrolyte membrane by being coated on the support member or mixed with the first solid electrolyte material ; the lithium dendrite growth-inhibiting material (a) is provided in the form of (a1) a metal salt derived from a metal, (a2) a metal ion thereof, or both; the porous sheet is a porous material including a plurality of pores, and the pores are at least partially filled with a mixture of the first solid electrolyte material and the lithium dendrite growth-inhibiting material; the solid electrolyte membrane has an ion conductivity of 1.0 x 10 -7 S/cm or more and is measured as described in the specification; the metal or metal ion is Sr, Ca, Mg, Be, Al, Mn, Zn, Cr(+3), Fe, Cd, Co, Ni, Sn, Pb, Cu, Hg, Ag, Pd. Ir, Pt(+2), Au, Pt(+4), or two or more of them; the first solid electrolyte material comprises an ion conductive polymeric solid electrolyte material which is prepared by adding a polymer resin to a solvated lithium salt, and shows an ion conductivity; and the porous sheet is at least one of a polymer film including a plurality of pores, a woven web including a polymeric material, and a non-woven web including a polymeric material.
Method for producing an electrode layer of a battery store by means of at least one system, in which an electrode layer paste is used, comprising the following steps: - acquiring system parameters of at least one system associated with the production of the electrode layer, - acquiring one or more measured values of a measured variable of the electrode layer paste and/or the electrode layer, - calculating/determining a correction value from a comparison of the acquired measured value of the electrode layer with a defined target value range and - setting the system parameters as a function of the calculated correction value. - acquiring system parameters of at least one system associated with the production of the electrode layer, - acquiring one or more measured values of a measured variable of the electrode layer paste and/or the electrode layer, - calculating/determining a correction value from a comparison of the acquired measured value of the electrode layer with a defined target value range and - setting the system parameters as a function of the calculated correction value.